Airport Services Manual Part 1 Rescue And Fire Fighting - BAZL

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Doc 9137 – AN/898
Part 1
Fourth Edition — 2014
This document is an unedited version of an ICAO publication and has not yet
been approved in final form. As its content may still be supplemented,
removed, or otherwise modified during the editing process, ICAO shall not be
responsible whatsoever for any costs or liabilities incurred as a result of its use.
Approved by the Secretary General
and published under his authority
Amendments are announced in the supplements to the Catalogue of ICAO Publications; the Catalogue
and its supplements are available on the ICAO website at The space below is provided to
keep a record of such amendments.
No. Date Entered by No. Date Entered by
Part 1
Rescue and Fire Fighting
Fourth Edition — 2014
In accordance with the provisions of Annex 14 — Aerodromes, Volume I — Aerodrome Design and
Operations, States are required to provide rescue and firefighting equipment and services at an airport.
The purpose of the material in this Manual is to assist States in the implementation of these specifications
and thereby help to ensure their uniform application.
The methodology for rescue and firefighting at an aerodrome is based on the critical area concept
developed by the Rescue and Fire Fighting Panel and adopted by ICAO via Amendment No. 30 t o
Annex 14 in 1976. The concept is based on the critical area to be protected in any post-accident fire
situation with the objective of creating and maintaining survivable conditions, providing egress routes for
aircraft occupants and to initiate the rescue of those occupants unable to make their escape without direct
The third edition of this Manual was produced in 1990. It has been updated in 2014 as a result of a
series of amendments to Annex 14, Volume I, up to and including Amendment 11. This fourth edition
incorporates changes and additions resulting from an overall review by the Secretariat. Significant
additions/revisions to the Manual as a result of this revision are:
a) the introduction of the new principal extinguishing agent ie. performance level C foam (Chapter 2,
updated test protocol in Chapter 8);
b) guidance on the use of a task resource analysis in determining the minimum number of rescue and
firefighting personnel (Chapter 10);
c) updated procedures for aircraft rescue and firefighting (Chapter 12, including training in
Chapter 14);
d) guidance on preventive maintenance of vehicles and rescue equipment (Chapter 17);
e) guidance on human factors principles in rescue and firefighting (Chapter 18);
f) downloadable and up-to-date crash charts for commonly used aircraft by electronic linkage to
aircraft manufacturers’ website (Appendix 1)
The content of the Manual was developed over a period of several years with input from the Rescue
and Fire Fighting Working Group of the Aerodromes Panel. The working group included aerodrome
rescue and fire fighting experts, airports and pilot representative organizations and aircraft manufacturers.
The manual was thereafter submitted for an extensive peer review to collect and take into account
comments from the expert community. It is intended that the Manual be kept up to date. Future editions
will most likely be improved on the basis of experience gained and of comments and suggestions received
from users of this manual. Therefore, readers are invited to give their views, comments and suggestions
on this edition. These should be directed to the Secretary General of ICAO.
Chapter 1
General Considerations
1.1.1 The principal objective of a RFF service is to save lives in the event of an aircraft accident or
incident occurring at, or in the immediate vicinity of, an airport. The RFF service is provided to create
and maintain survivable conditions, to provide egress routes for occupants and to initiate the rescue of
those occupants unable to make their escape without direct aid.
1.1.2 This service must assume at all times the possibility of and need for extinguishing a fire which
a) exist at the time an aircraft is landing, taking off, taxiing, parked, etc.; or
b) occur immediately following an aircraft accident or incident; or
c) occur at any time during rescue operations.
The rupture of fuel tanks in an aircraft crash and the consequent spillage of highly volatile fuels, and other
flammable liquids used by aircraft, present a high degree of probability of ignition if these liquids come
into contact with hot metal parts of the aircraft or because of sparks caused by the movement of wreckage
or disturbance of the electrical circuit. Fires may also occur through the discharge of accumulated
electrostatic charges at the time of ground contact or during fuelling operations. A n outstanding
characteristic of aircraft fires is their tendency to reach lethal intensity within a very short time. This
presents a sev ere hazard to the lives of those directly involved and can hamper rescue or evacuation
1.1.3 For this reason, the provision of adequate and special means of dealing promptly with an aircraft
accident or incident occurring at, or in the immediate vicinity of, an airport assumes primary importance
because it is within this area that there are the greatest opportunities of saving lives.
1.1.4 The extent of aircraft fires which may affect rescue is influenced largely by the quantity and
disposition of fuel carried by the aircraft and the location of any fuel released as a result of the accident or
1.1.5 The provision of emergency exits and their ability to be opened from the inside and outside of an
aircraft is of primary importance in rescue and evacuation operations. The provision of special tools to
rescue crews in order to gain access to the interior of a fuselage is essential. However, their use can only
be regarded as an extreme measure to be taken whenever for special reasons normal means of access
including emergency exits are unavailable or unsuitable for use.
1.1.6 The most important factors bearing on effective rescue in a survivable aircraft accident is the
training received, the effectiveness of the equipment and the speed with which personnel and equipment,
designated for RFF purposes, can be deployed.
1.1.7 The proposals set out hereunder concerning these services are intended as a general guide, to be
applied to the fullest extent practicable.
1.2.1 The RFF service at an airport should normally be under the administrative control of the airport
management, which should also be responsible for ensuring that the service provided is organized,
equipped, staffed, trained and operated in such a manner as to achieve its principle objective of saving
lives in the event of an aircraft accident or incident. The airport management may designate public or
private organizations suitably located and equipped to provide/support the RFF service. It is intended that
the fire station housing the RFF service be located on the airport and suitably located so that responses
will not be delayed and ensuring response times can be met.
1.2.2 It is intended that the above include the availability of suitable specialist vehicles, rescue
equipment and services for an airport located close to water, swamp, desert or other difficult
environments, where a significant portion of aircraft approach or departure operations takes place over
these areas. The purpose of these specialist vehicles, rescue equipment and services is to rescue aircraft
occupants at an aircraft accident that may occur in these areas. Material related to rescue operations in
difficult environments may be found in Chapter 13.
1.2.3 Co-ordination between the RFF service at an airport and public protective agencies (such as
local fire departments, police forces, coast guard and hospitals) who may be called upon as supporting
agencies should be established by prior agreement for assistance in dealing with an aircraft accident or
incident. G uidance related to airport emergency planning and procedures can be found in the ICAO
Airport Services Manual Part 7 Airport Emergency Planning.
1.2.4 A detailed grid map(s) of the airport and its immediate vicinity (with date of revision) should be
provided for the use of the airport services concerned. Information concerning topography, access roads
and location of water supplies should be indicated. This map should be conspicuously posted in the
control tower and the fire station and be available on the RFF vehicles as well as other supporting
vehicles required to respond to an aircraft accident or incident. Copies should also be distributed to
external agencies, such as police and medical services as required. The issuing authority for the detailed
grid maps should have a document control process to ensure all agencies are made aware of any changes
or re-issues.
Chapter 2
Level of Protection to be Provided
2.1.1 The level of protection to be provided at an airport should be based on the dimensions of the
aeroplanes normally using the airport as adjusted for their frequency of operations.
2.1.2 The airport category for RFF should be based on the over-all length of the longest aeroplanes
normally using the airport and their maximum fuselage width. The airport category should be determined
from Table 2-1 by categorizing the aeroplanes using the airport, by first evaluating their over-all length
and second, their fuselage width. If after selecting the category appropriate to an aeroplane’s over-all
length that aeroplane’s fuselage width is greater than the maximum width in column 3 for that category,
then the category for that aeroplane is actually one category higher.
category Aeroplane over-all length
(1) (-2) (3)
11 0 up to but not including 19 m 2 m
12 19 m up to but not including 12 m 2 m
13 12 m up to but not including 18 m 3 m
14 18 m up to but not including 24 m 4 m
15 24 m up to but not including 28 m 4 m
16 28 m up to but not including 39 m 5 m
17 39 m up to but not including 49 m 5 m
18 49 m up to but not including 61 m 7 m
19 61 m up to but not including 76 m 7 m
10 76 m up to but not including 90 m 8 m
2.1.3 Airports should be categorized for RFF purposes by counting the aeroplane movements in the
busiest consecutive three months of the year as follows:
a) when the number of movements of the aeroplanes in the highest category normally using
the airport is 700 or greater in the busiest consecutive three months, then that category
should be the airport category (see examples nos. 1 and 2); and
b) when the number of movements of the aeroplanes in the highest category normally using
the airport is less than 700 in the busiest consecutive three months, then the airport
category may be one less than the highest aeroplane category (see examples nos. 3 and 4)
even when there is a wide range of difference between the dimensions of the aeroplanes
which are included in reaching 700 movements) (see example no. 5).
2.1.4 It should be noted that the level of protection provided based on frequency of operations in 2.1.3
b) shall not be less than one category below the determined category.
2.1.5 Either a take-off or a landing constitutes a movement. Movements of scheduled, non-scheduled
and general aviation operations should be counted in determining the airport category. A classification of
representative aeroplanes by the airport category shown in Table 2-1 is included in Appendix 2.
2.1.6 The following examples illustrate the method for the determination of the airport category.
Example No. 1
Aeroplane Overall length Fuselage width Category Movements
Airbus A320 37.6 m 4.0 m 6 600
Bombardier CRJ 900 36.4 m 2.7 m 6 300
Embraer 190 36.2 m 3.0 m 6 500
ATR 72 27.2 m 2.8 m 5 200
The longest aeroplanes are categorized by evaluating, from Table 2-1, first their over-all length and
second, their fuselage width, until 700 movements are reached. It may be seen that the number of
movements of the longest aeroplanes in the highest category totals more than 700. The airport in this case
would be category 6.
Example No. 2
Aeroplane Overall length Fuselage width Category Movements
Airbus A330-200 58.8 m 5.6 m 8 300
Boeing 787-8 56.7 m 5.8 m 8 300
Boeing 767-200 48.5 m 5.0 m 8 300
The longest aeroplanes are categorized by evaluating, from Table 2-1, first their over-all length and
second, their fuselage width, until 700 movements are reached. It may be seen that the number of
movements of the longest aeroplanes in the highest category totals more than 700. It may also be noted
that when evaluating the category appropriate to the Boeing 767-200 aeroplane’s over-length, e.g.
category 7, the category selected is actually one higher as the aeroplane’s fuselage width is greater than
the maximum fuselage width for category 7. The airport in this case would be category 8.
Example No. 3
Aeroplane Overall length Fuselage width Category Movements
Boeing 737-900ER 42.1 m 3.8 m 7 300
Bombardier CRJ 900 36.4 m 2.7 m 6 500
Airbus A319 33.8 m 4.0 m 6 300
The longest aeroplanes are categorized by evaluating, from Table 2-1, first their over-all length and
second, their fuselage width, until 700 movements are reached. It may be seen that the number of
movements of the longest aeroplanes in the highest category totals only 300. The minimum category for
the airport in this case would be category 6, which is one category below that of the longest aeroplane.
Example No. 4
Aeroplane Overall length Fuselage width Category Movements
Airbus A380 73.0 m 7.1 m 10 300
Boeing 747-8 76.3 m 6.5 m 10 200
Boeing 747-400 70.7 m 6.5 m 9 300
The longest aeroplanes are categorized by evaluating, from Table 2-1, first their over-all length and
second, their fuselage width, until 700 movements are reached. It may be seen that the number of
movements of the longest aeroplanes in the highest category totals only 500. I t may also be noted that
when evaluating the category appropriate to the Airbus A380 aeroplane’s over-all length, e.g. category 9,
the category selected is actually one higher as the aeroplane’s fuselage width is greater than the maximum
fuselage width for category 9. The minimum category for the airport in this case would be category 9,
which is one category below that of the longest aeroplane.
Example No. 5
Aeroplane Overall length Fuselage width Category Movements
Airbus A321 44.5 m 4,0 m 7 100
Boeing 737-900ER 42.1 m 3.8 m 7 300
ATR 42 22.7 m 2.9 m 4 500
The longest aeroplanes are categorized by evaluating, from Table 2-1, first their over-all length and
second, their fuselage width, until 700 movements are reached. It may be seen that the number of
movements of the longest aeroplanes in the highest category totals only 400. It would appear from 2.1.3 b)
above that the minimum category for the airport would be category 6 ; however, even when there is a
relatively wide range of difference between the length of the longest aeroplane (Airbus A321) and the
aeroplane for which the 700th movement is reached (ATR 42), the minimum category for the airport may
only be reduced to category 6.
2.1.7 Notwithstanding the above, during anticipated periods of reduced activity the airport category
may be reduced to that of the highest category of aeroplane planned to use the airport during that time
irrespective of the number of movements.
2.1.8 Cargo operations. The level of protection at aerodromes used for all-cargo aeroplane operations
may be reduced in accordance with Table 2-2. This is based on the need to protect only the area around
the cockpit of an all-cargo aeroplane in the critical area concept. Using this rationale, the aerodrome
category for all-cargo aeroplane may be reduced by providing enough water quantity Q1 for the control of
fire. Information on the critical area concept and the method by which the scale of extinguishing agents
has been related to the critical area may be found in 2.4.
Table 2-2. Airport category for all-cargo aeroplane
Aerodrome Category Re-classification of aerodrome category for allcargo aeroplanes
11 1
12 2
13 3
14 4
15 5
16 5
17 6
18 6
19 7
10 7
Note 1. - This table has been determined using the average size of aeroplane in a given category.
Note 2. - An all-cargo aeroplane is an aeroplane operated for the transportation of goods, without farepaying passengers.
2.2.1 Both principal and complementary agents should normally be provided at an airport. Principal
agents produce a permanent control, i.e. for a period of several minutes or longer. Complementary agents
have rapid fire suppression capability but offer a “transient” control which is usually only available
during application.
2.2.2 The principal extinguishing agent should be:
a) a foam meeting the minimum performance level A; or
b) a foam meeting the minimum performance level B; or
c) a foam meeting the minimum performance level C; or
d) a combination of these agents.
The principal extinguishing agent for airports in categories 1 to 3 should preferably meet the minimum
performance levels B or C foam.
2.2.3 The complementary extinguishing agent should be:
a) dry chemical powders (classes B and C powders); or
b) other extinguishing agents with at least the same firefighting capability.
When selecting dry chemical powder for use with foam, care must be exercised to ensure compatibility.
2.2.4 Characteristics of the recommended extinguishing agents may be found in Chapter 8.
2.3.1 The amounts of water for foam production and the complementary agents to be provided on the
RFF vehicles should be in accordance with the airport category determined under 2.1.2 and Table 2-3,
except that for airport categories 1 and 2, up to 100 per cent of the water may be substituted with
complementary agent.
Table 2-3 Minimum usable amounts of extinguishing agents
Foam meeting performance
level A
Foam meeting performance
level B
Foam meeting performance
level C Complementary agents
Discharge rate
Discharge rate
Discharge rate
(1) (2) (3) (4) (5) (6) (7) (8) (9)
11 350 350 230 230 160 160 145 2.25
12 1 000 800 670 550 460 360 190 2.25
13 1 800 1 300 1 200 900 820 630 135 2.25
14 3 600 2 600 2 400 1 800 1 700 1 100 135 2.25
15 8 100 4 500 5 400 3 000 3 900 2 200 180 2.25
16 11 800 6 000 7 900 4 000 5 800 2 900 225 2.25
17 18 200 7 900 12 100 5 300 8 800 3 800 225 2.25
18 27 300 10 800 18 200 7 200 12 800 5 100 450 4.5
19 36 400 13 500 24 300 9 000 17 100 6 300 450 4.5
10 48 200 16 600 32 300 11 200 22 800 7 900 450 4.5
Note.— The quantities of water shown in columns 2, 4, and 6 are based on the average overall length of aeroplanes in a given
2.3.2 The amounts in Table 2-3 are the minimum amounts of extinguishing agents to be provided and
are based on the average overall length of aeroplanes in a given category. If the aeroplane operating at an
airport is larger than the median aeroplane, the amounts should be recalculated in accordance with
paragraph 2.3.7.
2.3.3 The amounts in Table 2-3 have been determined by adding the quantity of extinguishing agents
which are required to obtain a one-minute control time in the practical critical area and the quantity of
extinguishing agents which are required for continued control of the fire thereafter and/or for possible
complete extinguishment of the fire. Control time is the time required to reduce the initial intensity of the
fire by 90 per cent. Information on the critical area concept and the method by which the scale of
extinguishing agents has been related to the critical area may be found in 2.4.
2.3.4 The quantity of foam concentrate separately provided on vehicles for foam production should be
in proportion to the quantity of water provided and the foam concentrate selected. The amount of foam
concentrate should be sufficient to supply at least two full loads of such quantity of water where sufficient
additional water supplies are immediately available to ensure a rapid replenishment of the water content
2.3.5 The amounts of water specified for foam production are predicated on an application rate of 8.2
L/min/m2 for a foam meeting performance level A, 5.5 L/min/m2 for a foam meeting performance level B
and 3.75L/min/m2 for a foam meeting performance level C. These application rates are considered to be
the minimum rates at which control can be achieved within one minute.
2.3.6 The amounts of foams given in Table 2-3 have been determined on t he assumption that the
foams meet minimum specifications approved by the State. Guidance on basic characteristics of foams is
contained in Chapter 8.
2.3.7 From 1 J anuary 2015, a t aerodromes where operations by aeroplanes larger than the average
size in a given category are planned, the quantities of water shall be recalculated and the amount of water
for foam production and the discharge rates for foam solution shall be increased accordingly.
2.3.8 Table 2-4 provides guidance on the calculation of the quantities of water and discharge rates
based on the largest overall length of aeroplane in a given category. The table is based on the use of
performance level A foam with an application rate of 8.2 L /min/m2. Where performance level B or C
foams are used, similar calculations should be made using the appropriate application rates. The formulae
indicated in Table 2-4 is used only for the recalculation of quantities in accordance with paragraph 2.3.7.
Table 2-4. Maximum quantities of extinguishing agents based on largest dimension of an aeroplane
(Performance level A foam, application rate 8.2 l/min/m2)
length of
aeroplane, L
Total width of
protection area
(k1 + W)
Critical Area,
AT =
L x (k1+W)
Area, AP =
⅔ AT
Q1 =
8.2 x 1 x AP
Q2 =k2 x Q1
( see 2.4.10 for
values of k2)
∑Q =
Rate (l/min)
= AP x
rate of 8.2
1 9 2 12+2 = 14 126 84 689 0, 0 689 689
2 12 2 12+2 = 14 168 112 918 0.27x918=248 1166 918
3 18 3 14+3 = 17 306 204 1673 0.30x1673=502 2175 1673
4 24 4 17+4 = 21 504 336 2755 0.58x2755=1598 4353 2755
5 28 4 30+4 = 34 952 635 5207 0.75x5207=3905 9112 5207
6 39 5 30+5 = 35 1365 910 7462 1.0x7462=7462 14924 7462
7 49 5 30+5 = 35 1715 1144 9381 1.29x9381=12,101 21482 9381
8 61 7 30+7 = 37 2257 1505 12,341 1.52x12341=18,758 31099 12341
9 76 7 30+7 = 37 2812 1876 15,383 1.70x15383=26,100 41483 15383
10 90 8 30+8 = 38 3420 2281 18,704 1.9x18704=35,538 54242 18704
2.3.9 As of 1 January 2015, at aerodromes where the level of protection is reduced in accordance with
the remission factor allowed in 2.1.3 b) and where operations by aeroplanes larger than the average size in
a given category are planned, the recalculation of quantities of extinguishing agents required in 2.3.7
would need to be computed based on the largest aeroplane in the reduced category. As an example, an
Airbus A380 (category 10) is operating infrequently into a B747 aerodrome (category 9). If the number of
movements of the A380 is less than 700 m ovements in the busiest consecutive three months, the
aerodrome is allowed to provide a category 9 level of protection, as permitted in 2.1.3 b).
2.3.10 However, as o f 1 January 2015, 2.3. 7 requires the quantities of agent to be recalculated for
aerodromes where operations by aeroplanes larger than the average size in a given category are planned.
As the A380 is larger than the average aeroplane used for calculation of quantities of extinguishing agents
for category 9 in Table 2-3, the actual quantities to be provided need to be recalculated. Since 2.1.3 b)
permits a remission factor of one, the largest quantity for category 9 ie. 41,483L (for performance level A
foam) should be provided. As a comparison, this quantity is more than the median quantity of 36,400L for
category 9 in Table 2-3 but less than the maximum quantity of 54,242L for category 10 in Table 2-4.
2.3.11 There may be aerodromes that use more than one type of performance level foams, such as a
combination of level A and B foams, which could lead to error in quantity calculation or replenishment.
The use of a combination of different performance level foams at an aerodrome is therefore not
2.3.12 For the purpose of replacing water for foam production by complementary agents, 1 kg o f
complementary agent shall be taken as equivalent to 1.0L of water for production of a foam meeting
performance level A. Higher equivalencies for complementary agents may be used if results of tests
conducted on the complementary agents used by the State have indicated higher efficiencies than those
recommended above. When any other complementary agent is used, the substitution ratios need to be
2.4.1 The critical area is a co ncept for rescue of the occupants of an aircraft. It differs from other
concepts in that, instead of attempting to control and extinguish the entire fire, it seeks to control only that
area of fire adjacent to the fuselage. The objective is to safeguard the integrity of the fuselage and
maintain tolerable conditions for its occupants. The size of the controlled area required to achieve this for
a specific aircraft has been determined by experimental means.
2.4.2 There is a need to distinguish between the theoretical critical area within which it m ay be
necessary to control the fire and the practical critical area which is representative of actual aircraft
accident conditions. The theoretical critical area serves only as a means for categorizing aircraft in terms
of the magnitude of the potential fire hazard in which they may become involved. It is not intended to
represent the average, maximum or minimum spill fire size associated with a particular aircraft. The
theoretical critical area is a rectangle having as one dimension the over-all length of the aircraft and as the
other dimension a length which varies with the length and width of the fuselage.
2.4.3 From experiments performed it has been established that for an aircraft with a fuselage length
equal to or greater than 24 m, in wind conditions of 16 to 19 km/h and at right angles to the fuselage, the
theoretical critical area extends from the fuselage to a distance of 24 m upwind and 6 m downwind. For
smaller aircraft a distance of 6 m on either side is adequate. To provide for a progressive increase in the
theoretical critical area, however, a transition is used when the fuselage length is between 12 m and 24 m.
2.4.4 The over-all length of the aircraft is considered appropriate for the theoretical critical area as the
entire length of aircraft must be protected from burning. If not, the fire could burn through the skin and
enter the fuselage. Also, other aircraft such as T-tail aircraft often have engines or exit points in this
extended portion.
2.4.5 The formula for the theoretical critical area AT thus becomes:
Over-all length Theoretical critical area AT
L < 12 m L × (12 m + W)
12 m ≤ L < 18 m L × (14 m + W)
18 m ≤ L < 24 m L × (17 m + W)
L ≥ 24 m L × (30 m + W)
where L = the over-all length of the aircraft, and
W = the maximum width of the aircraft fuselage.
2.4.6 As mentioned earlier, in practice it is seldom that the entire theoretical critical area is subject to
fire and a smaller area, for which it is proposed to provide firefighting capacity, is referred to as the
practical critical area. As a result of a statistical analysis of actual aircraft accidents, the practical critical
area Ap has been found to be approximately two-thirds of the theoretical critical area, or
Ap = 0.667 AT
2.4.7 The quantity of water for foam production can be calculated from the following formula:
Q = Q1 + Q2
where Q = the total water required
Q1 = the water for control of the fire in the practical critical area, and
Q2 = the water required after control has been established and is needed for
such factors as the maintenance of control and/or extinguishment of the remaining
2.4.8 The water required for control in the practical critical area (Q1), may be
expressed by the following formula:
Q1 = A × R × T
where A = the practical critical area
R = the rate of application, and
T time of application.
2.4.9 The amount of water required for Q2 cannot be calculated exactly as it depends on a number of
variables. The factors considered of primary importance are:
a) maximum gross mass of the aircraft;
b) maximum passenger capacity of the aircraft;
c) maximum fuel load of the aircraft; and
d) previous experience (analysis of aircraft RFF operations).
These factors, when plotted on a graph, are used to calculate the total amount of water required for each
airport category. The volume of water for Q2, as a percentage of Q1, varies from about 0 per cent for
category 1 airports to about 190 per cent for an airport category 10.
2.4.10 The graph mentioned in the preceding paragraph gives the following approximate values for
aeroplanes representative of each airport category:
Q2 = percentage of Q1
1 0
2 27
3 30
4 58
5 75
6 100
7 129
8 152
9 170
10 190
2.5.1 The discharge rates of the foam solution should not be less than the rates shown in Table 2-3.
The recommended discharge rates are those required to obtain a one-minute control time on the practical
critical area and have therefore been determined for each category by multiplying the practical critical
area by the application rate. The discharge rate of the foam solution is thus equal to the water quantity Q1
in a control time of one minute.
2.5.2 The discharge rates of complementary agents should be no less than the rates shown in
Table 2 -3.
2.6.1 The quantities of the various extinguishing agents to be provided in the RFF vehicles should be
in accordance with the airport category and Table 2-3. A reserve supply of foam concentrate equivalent to
200 per cent of the quantities of these agents identified in Table 2-3 should be maintained on the airport
for vehicle replenishment purposes. This will permit an immediate complete recharge of the vehicles, if
necessary, subsequent to an emergency and retention of a second complete recharge should another
emergency occur before airport stocks can be replenished. For the purpose of determining quantities of
reserve supply, the quantities of foam concentrate carried on fire vehicles in excess of the quantity
identified in Table 2-3 can be considered contributing to the reserve.
2.6.2 A reserve supply of complementary agent, equivalent to 100 per cent of the quantity identified
in Table 2-3, should be maintained on the aerodrome for vehicle replenishment purposes. Sufficient
propellant gas should be included to utilize this reserve complementary agent. Additionally, category 1
and 2 aerodromes that have replaced up to 100 per cent of the water with complementary agent should
hold a reserve supply of complementary agent of 200 per cent.
2.6.3 Where a major delay in the replenishment of the supplies is anticipated, the amount of reserve
supply in 2.6.1 and 2.6.2 should be increased as determined by, among others, the following
a. location of RFF service (may be remote)
b. availability of supplies
c. delivery times
d. customs considerations
2.6.4 Vehicle foam tanks must be kept full at all times when the vehicle is in operational service
because partially filled tanks will create stability problems when the vehicle is cornering at speed.
Furthermore, serious sludging problems can occur where protein foam is carried through oxidation and
agitation if there is an air space above the surface of the foam. Where protein foam concentrates are used,
the entire contents should be periodically discharged and the entire system washed through to ensure that
the tank does not contain stale protein foam.
2.7.1 The operational objective of the RFF service should be to achieve response times of two
minutes and not exceeding three minutes to the end of each runway, as well as to any other part of the
movement area, in optimum conditions of visibility and surface conditions. Response time is considered
to be the time between the initial call to the RFF service and the time when the first responding vehicle(s)
is(are) in position to apply foam at a rate of at least 50 per cent of the discharge rate specified in Table 2-3.
Determination of realistic response times should be made by RFF vehicles operating from their normal
locations and not from positions adopted solely for test purposes.
2.7.2 Consideration of response times should also be given to landing and take-off areas for the
exclusive use of helicopters.
2.7.3 Any other vehicles required to deliver the amounts of extinguishing agents specified in Table 23 should arrive in three minutes and no more than four minutes from the initial call so as to provide
continuous agent application.
2.7.4 The requirements in 2.7.1 above may require an evaluation of the RFF vehicles at airports
where the first responding vehicle(s) is(are) not capable of applying foams at the rate of at least 50 per
cent of the recommended discharge rate for the airport category. This should be considered as an
objective to be achieved as the airport vehicle fleet is upgraded.
2.7.5 To meet the operational objective as nearly as possible in times of traffic/apron congestion or in
less than optimum conditions of visibility, it may be necessary to provide suitable guidance, equipment,
access routes and/or procedures for RFF vehicles. These may include navigation equipment installed in
the vehicles such as:
a) driver enhanced vision system (DEVS) with on-board navigation equipment utilizing global
navigation satellite system to provide the driver with the vehicle’s location thus serving as an aid in
navigating to the accident sites;
b) tracking using digital radio datalink to assist the vehicle driver in locating and navigating to the
accident site, thereby reducing driver communications workload and improving situational awareness;
c) low visibility enhanced vision using forward looking infrared (FLIR) device (or other
comparable state-of-the-art low visibility enhanced vision technology) by s ensing thermal radiation
instead of visible light to improve visual awareness in smoky, foggy or dark environment.
2.7.6 In addition, other suitable provisions such as bypass access roads as well as the provision of
ground movement guidance instructions by radiotelephone from air traffic control based on surveillance
radar, accident site location by air traffic control and a collision avoidance facility either from equipment
installed in the vehicles or provided by surveillance radar from air traffic control. For the guidance of the
RFF vehicles from their station(s) or standby position(s) to the accident site, vehicles can move in a
convoy and air traffic control can direct the leading vehicle(s).
2.8.1 All RFF vehicles should normally be housed in a f ire station. Satellite fire stations should be
provided whenever the response time cannot be achieved from a single fire station.
2.8.2 The fire station should be located so that the access for RFF vehicles into the runway area is
direct and clear, requiring a minimum number of turns. Details of characteristics of fire stations can be
found in Chapter 9.
2.9.1 A discrete communication system should be provided linking a fire station with the control
tower, any other fire station on the airport and the RFF vehicles.
2.9.2 An alerting system for RFF personnel should be provided at a fire station, capable of being
operated from that station, any other fire station on the airport and the airport control tower.
2.10.1 The minimum number and types of conventional RFF vehicles provided at an airport so as to
effectively deliver and deploy the agents specified for the airport category should be in accordance with
Table 2-5.
Table 2-5. Minimum number of vehicles
Airport category
11 1
12 1
13 1
14 1
15 1
16 2
17 2
18 3
19 3
10 3
2.10.2 Details on special vehicles to be available at airports where the area to be covered by the service
includes a difficult environment can be found in Chapter 13.
2.10.3 In addition to the above, suitable rescue equipment and services should be available at airports
where the area to be covered by the service includes water, swamp or other difficult environments that
cannot be fully served by conventional wheeled vehicles. This is particularly important where a
significant portion of approach/departure operations takes place over this area. The purpose of these
special vehicles is to rescue aircraft occupants at an aircraft accident that may occur in this area. Details
on characteristics of these types of vehicles can be found in Chapter 5.
2.10.4 A preventive maintenance plan should be derived to ensure maximum mechanical efficiency of
the RFF vehicles. In this connection, due regard should be made to the possible need to provide reserve
vehicles to take the place of those which become temporarily unserviceable. Guidance on fire vehicle
preventive maintenance are available in Chapter 17.
Chapter 3
3.1.1 Supplementary water supplies, for the expeditious replenishment of RFF vehicles, should be prearranged. The objective of providing additional water supplies at adequate pressure and flow is to ensure
rapid replenishment of aerodrome RFFS vehicles. This supports the principle of continuous application of
extinguishing media to maintain survivable conditions at the scene of an aircraft accident for far longer
than that provided for by the minimum amounts of water set out in Chapter 2.
3.1.2 Additional water to replenish vehicles may be required in as little as five minutes after an
accident, therefore an analysis should be conducted to determine the extent to which it, and its associated
storage and delivery facilities, should be provided.
3.1.3 When conducting the analysis, the following factors are amongst those items which should be
considered but not limited to:
a. Sizes and types of aircraft using the aerodrome.
b. The capacities and discharge rates of aerodrome fire vehicles.
c. The provision of strategically located hydrants.
d. The provision of strategically located static water supplies.
e. Utilisation of existing natural water supplies for firefighting purposes..
f. Vehicle response times.
g. Historical data of water used during aircraft accidents.
h. The need and availability of supplementary pumping capacity.
i. The provision of additional vehicle-borne supplies.
j. The level of support provided by Local Authority Emergency Services.
k. The Pre-determined Response of Local Authority Emergency Services.
l. Fixed pumps where these may provide a rapid and less resource-intensive method
of replenishment.
m. Additional water supplies adjacent to airport fire service training areas.
n. Overhead static water supplies.
3.2.1 Emergency access roads should be provided on an airport where terrain conditions permit their
construction so as to facilitate the achievement of minimum response times. Particular attention should be
given to the provision of ready access to approach areas up to 1000 m from the threshold, or at least from
the threshold to the airport boundary. Where the airport is fenced, access to outside areas should be
facilitated by the provision of emergency gates or frangible barriers.
3.2.2 Emergency access roads and any associated bridges should be capable of supporting the heaviest
vehicles which will use them and be constructed so as to be effectively available in all weather conditions.
Roads within 90 m of a runway should be constructed to prevent surface erosion and the transfer of debris
to the runway. Sufficient vertical clearance should be provided from overhead obstructions for the largest
vehicles. Wherever possible, roads should permit the passage of vehicles in both directions.
3.2.3 When the surface of the road is indistinguishable from the surrounding area, or in areas where
snow may obscure the location of the roads, edge markers should be placed at intervals of about 10 m.
3.2.4 Where an emergency access road, normally provided with a gate or frangible barrier, may lead
emergency vehicles on to a p ublic road the exterior face of the gate or barrier should be marked to
indicate its purpose, with a prohibition of vehicle parking in its immediate vicinity. Suitably designed
corners, with adequate radii for the maneuvering of major RFF vehicles, should be provided to facilitate
the departure of responding vehicles through the airport fence emergency gates or barriers.
3.2.5 The combined facility of emergency access road and gate or barrier should be subject to regular
inspection and physical tests where necessary to prove any mechanical element, to ensure their
availability in an emergency.
3.2.6 If any gates are non-frangible and secured by other mechanical means, access through the gate(s)
should be readily available, such as but not limited to, the provision of keys to the gates to be kept in the
RFF vehicles.
Chapter 4
4.1.1 The efficiency of a RFF service is significantly dependent on the reliability and effectiveness of
its communication and alarm system. In addition, the successful conduct of the total firefighting and
related rescue operation will be facilitated by the system for alerting and mobilizing other participating
emergency support personnel. The importance of prompt and clear communications cannot be overemphasized.
4.1.2 Consistent with the individual requirements of each airport there should be provision for:
a) direct communication between air traffic control (or other activating authority provided
by the airport authority) and the airport fire station(s) to ensure the prompt dispatch of
RFF vehicles in the event of an aircraft emergency;
b) communication between air traffic control and the RFF crews en route to, or in
attendance at, an aircraft accident/incident. To provide guidance to the RFF vehicles
during low visibility conditions, some form of navigational assistance may be required
(see 2.7.5);
c) communication between the fire station, or the main station, where more than one is
provided, and the RFF vehicles;
d) communication between the RFF vehicles, including where necessary, a sy stem to
provide inter-communication between the crew members of a RFF vehicle; and
e) emergency alarm systems to alert auxiliary personnel and appropriate organizations
located on or off the airport.
4.1.3 Additionally, a direct communication may be provided between the RFF services and the flight
crew of an aircraft in emergency on the ground.
4.2.1 In considering the scope of fire station communications two important factors need to be
considered. The first is the extent of the workload to be carried in the watchroom when an aircraft
accident or incident occurs. The range of communication facilities will naturally be related to this
workload and if some part of the emergency mobilization can be undertaken elsewhere, at the airport
telephone exchange room or emergency operations centre, for example, then the fire station watchroom
can be more effectively equipped and operated in its primary role. The second consideration relates to
those airports operating more than one fire station. Where two or more stations are provided it is usual to
designate one as the main station and its watchroom as the master watchroom, which is continuously
staffed. A satellite station may also have a w atchroom with fewer facilities commensurate with its
subordinate role and usually staffed only until the satellite’s vehicles respond to a call. In discussing fire
station communications, it is essential to differentiate between the minimum requirements in main and
satellite fire stations and to identify the systems which can serve both.
4.2.2 Calls to the airport fire station(s) for attendance at an aircraft accident/incident normally
originate from the air traffic control. The air traffic control should be linked with the main fire station by
a direct telephone line not passing through any intermediate switchboard so as to avoid delays. This line is
usually provided with a distinctive buzzer in the watchroom and is safeguarded against buzzer defects by
a warning light. This line can be linked to the alarm bells in the main and satellite fire station(s) so that
the initiation of a call by air traffic control simultaneously alerts all personnel.
The alarm system may also be used to activate RFF vehicle room doors. A separate switch for activating
the alarm bells should be provided in each fire station watchroom.
4.2.3 Fire stations should be provided with a public address system so that details of the emergency,
giving location, type of aircraft involved, preferential routing for RFF vehicles, can be conveyed to crew
members. Control of this system would normally be located in the master watchroom, which would also
have a switch for silencing the alarm bells to avoid any interference with the effective use of the broadcast
4.2.4 Some calls for emergency services may reach the main fire station from the airport telephone
switchboard and it is usual to have a special telephone circuit for these priority calls. At some of these
calls will be of lower priority than that associated with an aircraft accident/incident, e.g. response to fuel
spills, special services, etc., it is not necessary to link this circuit with the alarm bells. The alerting and
directing of these responses can be controlled from the master watchroom. A separate telephone circuit,
for calls of a non-emergency nature, should also be provided in each watchroom.
4.2.5 Where the master watchroom is required to mobilize off-airport support services for aircraftrelated or other emergency situations, direct telephone circuits with appropriate priority indications
should be provided to the appropriate control centres.
4.2.6 Satellite fire station watchrooms should be linked to the master watchroom by a direct telephone
line. The satellite fire station should be served by the public address and alarm bell system operated by
the master watchroom as well as having the ability to activate the alarm bells and make public address
broadcasts within its station. A grid reference map(s) should be displayed.
4.2.7 In many instances the master fire station watchroom tends to become overloaded with alarms,
switches, buzzers, coloured lights, radio equipment, public address system, etc. The watchroom should be
designed in such a way as to minimize the workload on the watchroom attendant during an emergency
call. The objective should be to set out the watchroom in such a manner that a call can be received and
dealt with by a minimum of movement on the part of the watchroom attendant. Grid reference maps, etc.,
should be placed directly in front of the watchroom attendant’s position. Details on de sign of the fire
station watchroom can be found in 9.3.
4.2.8 All telephone and radio equipment in each watchroom should be regularly monitored for its
service-ability and arrangements should exist for emergency repair and maintenance of this equipment.
The continuity of electrical supplies to fire stations should be ensured by connexion to secondary power
4.3.1 When RFF vehicles leave their fire stations and enter the manoeuvring area they come under the
direction of air traffic control. These vehicles must be equipped with two-way radio communications
equipment, through which their movements can at all times be subject to direction by air traffic control.
The choice of a direct air traffic control/fire service frequency, monitored in the master watchroom, or a
discrete airport fire service frequency, relaying air traffic control instructions and fresh information, will
be a matter for the airport or appropriate authority to determine, based on local operational and technical
considerations. A discrete frequency minimizes the extent to which fire service activities involve an air
traffic control channel at a busy airport. It is important to provide the fire service with the facility to
communicate with flight crew members in certain types of incidents, particularly where undercarriage
situations are involved or aircraft evacuation may be proposed. Technical solutions are available to permit
both a discrete frequency and an aircraft “talk-through” facility, subject to air traffic control approval. All
transmissions should be recorded once an emergency situation has been declared.
4.3.2 The radio equipment on RFF vehicles must accommodate communication between vehicles, en
route to, and in operation at, an aircraft accident. Within individual vehicles there should be an
intercommunication system, particularly between drivers and monitor-operators, to optimize the
deployment of the vehicles at an accident. The provision of a communication facility within an appliance
must recognize the likelihood of high noise levels and this may require the use of noise-cancelling
microphones, headsets and loudspeakers for effective intercommunication.
4.3.3 The RFF vehicles should be provided with communication equipment capable of
communicating directly with an aircraft in a situation of emergency using an aeronautical radio frequency.
The aeronautical radio frequency permits the RFF service and the aircraft to communicate with each
other directly allowing the RFF crew to issue critical information regarding the exact nature of, and the
hazards associated with, an emergency in progress along with recommendations for actions. Where
provided, the aeronautical radio frequency may be selected by air traffic control and notified to the
aircraft and the RFF service. The requirements and responsibilities for the utilization of a radio frequency
between the RFF service and the flight crew of an aircraft in a situation of emergency should be detailed
in a procedure agreed to between the air traffic services and the airport operator.
4.3.4 Communications between the flight crew, air traffic control and the RFF service should be
maintained throughout the emergency response. Due to the critical and timely nature of the information
transmitted on this frequency, transmissions should be limited to air traffic control, pilot of the aircraft
and the officer-in-charge of the RFF operations. The officer-in-charge of the RFF operations should delay
transmissions to the aircraft until cleared by the air traffic control, unless the nature of the transmission is
critical to emergency operations.
4.3.5 One of the prerequisites for effective communication between the RFF service and the flight crew
of the aircraft is language proficiency. Steps should be taken to ensure that the rescue and fire-fighting
crew, in particular the officer-in-charge of the RFF operations, demonstrates knowledge of the ICAO
language designated for use in air-ground communications and ability to speak clearly so as not to
adversely affect radio communication.
4.3.6 Standard Operating Procedures (SOP) explaining the use of the dedicated radio frequency be
developed outlining why, when and how it should be used.
4.3.7 At the accident site the officer-in-charge of RFF operations may leave the vehicle and make
observations on foot, and can then direct and inform crew members in all aspects of fire-ground
operations using a portable loudhailer. This equipment may also serve a subsidiary role in
communications with aircraft crew members, the occupants of the aircraft and other persons responding
to the accident.
4.3.8 Rescue boats or other specialized vehicles intended for use in water, swampy areas or other
difficult terrain should also be provided with two-way radio equipment. Special attention should be given
to selection of units intended for use in marine applications, with their protective containment systems.
4.4.1 The mobilization of all parties and agencies required to respond to an aircraft emergency on a
large airport will require the provision and management of a complex communications system. The
requirement is examined in the Airport Services Manual (Doc 9137), Part 7. — Airport Emergency
Planning, Chapter 12. That manual covers all aspects of airport emergency planning of which
communications is a vital element, and which must be subject to individual consideration by airport
authorities in relation to local facilities.
4.4.2 Where auxiliary personnel, not on standby duty, are required to respond to an emergency, an
audible alarm (siren or air horn) should be provided which can be clearly heard in appropriate areas above
normal noise level and all wind conditions. Personnel responding to alarm signals of this nature must
have access to a telephone number, from which more precise information as to the nature of the
emergency and their response requirement can be acquired and to appropriate transport facilities to
achieve this response.
4.4.3 Direct communication between the RFF personnel and the flight crew during an emergency
does not necessarily involve speech only and the possible use of hand signals, in particular at smaller
airports, may be considered. Annex 2 — Rules of the Air, Appendix 1 contains standard emergency hand
signals for emergency communication between the RFF personnel and the cockpit and/or cabin crews of
the incident aircraft.
Chapter 5
5.1.1 Acquisition of vehicles for RFF purposes requires a detailed study of a number of factors. In
this process the study will include consideration of the operational requirement, design and construction
aspects and the over-all compatibility of the completed vehicle fleet with the airport’s RFF support
services. Figure 5-1 provides a series of typical factors which should be included in a logical progression
towards a decision to acquire a new vehicle. The diagram anticipates that local knowledge of all operating
conditions and experience with existing RFF vehicles will be taken into account. Each of the factors in the
diagram will be examined in more detail in this chapter. The objective of every study must be to acquire
vehicles which will provide an effective and reliable service throughout their “operational lives”. This can
only be ensured by the selection of vehicles of proven performance and reliability, to be operated by
trained personnel and supported in use by programmes of preventive maintenance by qualified support
personnel. A checklist of significant design, construction and performance features which should be
considered in preparing a specification for a RFF vehicle is contained in 5.9.
5.1.2 It is not intended in this chapter to consider the specialized vehicles intended for use in difficult
environments. These vehicles are discussed in Chapter 13. Communications equipment, which is an
essential component of all RFF vehicles, is dealt within Chapter 4. The locations of the vehicles, to ensure
the most effective response capability, are considered in Chapter 9, which also includes advice on the
housing and technical support aspects which will preserve the functional and mechanical qualities of these
5.1.3 In any appraisal of design and construction there are features which must be regarded as
essential and, therefore, must be expressed in a specification as the minimum acceptable level of
provision. Other features can be specified, above the minimum level, to facilitate operational handling,
preventive maintenance or the visual appearance of a vehicle, without necessarily making a si gnificant
contribution to the effectiveness of the vehicle in its primary role. While these additional items may be
desirable they will also add to the cost of the vehicle and, in some cases, to the extent and complexity of
the maintenance programmes. Where, for example, the airport authority allocates a structural protection
role to its RFF service, the ability to deliver water jets would be desirable. Care must be taken so that in
providing this additional capability the primary role of the vehicle in aircraft firefighting is not impaired.
In the following paragraphs, where appropriate, the distinction between essential and desirable features
will be made. Such distinction is not intended to dismiss the value of refinements in systems, finishes or
instrumentation where these are specified by the airport or appropriate authority and can be maintained in
5.1.4 Where, in this chapter, reference is made to a v ehicle the material will also apply to the
acquisition of more than one vehicle of the same design and capacity. The sole difference may lie in the
procedure to be completed in the acceptance programme and in the commissioning of vehicles at the
airports to which they are assigned (see 5.8.2).
5.1.5 No attempt is made in these suggestions to detail water pump capacities, pump inlet and outlet
plumbing, power take-offs, foam proportioners and controls, the location of monitors (turrets) and their
operation, hose reel location, hose sizes and length and similar equipment details, although they are all
items requiring careful engineering and design. Basically, such equipment is related to the extinguishing
agents used, the necessary discharge rates and the manpower available and needed to place the vehicle in
full operation. The over-all aim must be to provide operational simplicity, recognizing the relatively short
period of time available for mounting a successful RFF operation. Where this entails a d egree of
engineering complexity the provision of adequate training for the staff appointed to maintain the vehicle
will be essential.
5.2.1 Role of new vehicle. In general terms the vehicles to be used for aircraft RFF have the
characteristics as expressed in table 5-1. There are other vehicle types in use at airports, such as
command vehicles, used by officers in charge of a duty watch that have virtually no rescue or firefighting
capability. Some airports provide auxiliary water tank vehicles, equipped with a pump and delivery hose,
to replenish foam-producing vehicles at an aircraft accident. While these can provide a u seful service,
particularly where there are limited installed water supplies, they cannot be described as primary vehicles.
This chapter will consider only the RFF vehicles. Minimum characteristics related to these vehicles are
expressed in Table 5-1. It is intended that these minimum characteristics be considered when upgrading
the airport RFF vehicle fleet.
5.2.2 The original concept which created the rapid intervention vehicle was based on the then current
inability of major vehicles to meet the response time specifications in 2.7.1. New technical advances in
chassis design have produced RFF vehicles with greatly improved performance considered capable of
providing an adequate rapid intervention at airports. The role of RFF vehicles is to reach the accident site
quickly, protect evacuation paths, control any outbreak of fire and to initiate rescue. Should the dual
application of principal and complementary agents be considered, the quantity of complementary agent to
be carried on a vehicle may be all, or some part of that, required to by the RFF category, the disposition to
be related to the number of vehicles deployed at the airport. The rescue equipment may be carried on one
vehicle or distributed over the vehicles making the initial attendance to an aircraft accident.
5.3.1 Where vehicles are provided, as proposed in Table 2-5, they must be capable of conveying and
delivering at least the minimum quantities of extinguishing agents specified in Table 2-3, according to the
airport category. The response time requirements specified in 2.7.1 should also be taken into account. The
vehicles may also carry some part of the rescue equipment. The selection of a vehicle of a particular
capacity will be dependent on whether it is a replacement for a vehicle which is obsolete or redundant or
whether it is a component of a fleet to be deployed at a new airport. In the latter case the consideration of
its compatibility with existing vehicles does not arise.
5.3.2 The acquisition of a new vehicle provides an opportunity to consider not only its contribution as
a replacement but also the extent to which it may be specified so as to accommodate any future RFF
categorization, as may be required by changes in the volume of traffic or the introduction of longer
aircraft. The anticipated “operational life” of a vehicle, with reasonable care and maintenance, will be at
least ten years, and an assessment of the probable growth of traffic in this period should be a factor in the
specification of a vehicle.
A comparison of the minimum quantities of water for foam production in Table 2-3 shows the
advantages to be gained by the adoption of the foam concentrates capable of performance level B or C.
Additional advantages also exist in adopting either dry chemical powders or equivalent complementary
agent. In this case the advantages lie not only in a reduction in the quantity of agent to be provided but
also in the improved fire suppression capabilities of these agents.
In acquiring a new vehicle it will be natural to seek the incorporation of all improvements
available from current technology. In securing these advantages it is essential to examine the extent to
which they may impose new problems to personnel in the RFF and support services. In most cases the
new problems are capable of resolution by additional training and the provision of appropriate support
equipment. The value of a compatibility study lies in the early recognition of problem areas and the
provision of solutions. As an example at the simplest level, the introduction of firefighting delivery hose,
with jackets composed of synthetic materials rather than natural fibres, demands specialized repair
equipment. At a more significant level, the incorporation of power-assisted control systems and electronic
devices in automotive or firefighting applications is desirable since they are compact, efficient and
reliable, increasing the contribution to be made by individual operatives at an aircraft accident. They will,
however, require particular levels of skill in their maintenance and repair. Training will be essential to
acquaint support personnel with appropriate procedures, which may include the provision of specialized
tools, instruments or maintenance facilities. Wherever power-assisted controls are provided in foam
production and delivery systems, a manual-override facility must also be provided to permit foam
production in the event of the failure of any power-assisted function. A system for monitoring the
availability of power-assisted functions, to be used as part of the vehicle’s daily inspection procedure, is
5.6.1 The most obvious consideration in this context in acquiring a new RFF vehicle is whether it can
be accommodated in the existing fire station. Other elements of airport design and some in the response
area adjacent to the airport are important. These include the dimensions of any tunnels, archways or
subways through which the vehicle may be expected to pass in responding to an emergency. Overhead
cables must also be considered. Bridges, culverts and cattle-grids must be evaluated if the weight of a new
vehicle is greater than that of previous types. The length and width of the vehicle will be of significance
in negotiating corners and in this connection it will be important to review the ability of any new vehicle
to negotiate the emergency gates provided to meet the terms of 3.2.4.
5.6.2 The design and construction of the vehicle should be suitable for carrying its full load over all
types of roads and unimproved surfaces on, and in the vicinity of, the airport in all reasonable weather
conditions. Detailed specifications on characteristics concerning vehicle traction and floatation cannot be
issued on a blanket basis because they will vary with the terrain conditions existing or liable to exist at the
individual airport at which the vehicle is in service. The off-road performance of vehicles designed for
this service should be a p rimary consideration in the selection of the vehicle. In most cases this need
makes it desirable to provide for all wheel drive with tires capable of carrying the vehicle over the
unimproved ground surfaces likely to be encountered. The importance of using tires of the proper design,
construction and size, so inflated and mounted to assure maximum traction and floatation, cannot be overemphasized. Tires should be selected to provide effective performance on the terrain to be encountered in
the intended airport service. Inflation pressure should be the lowest possible consistent with the tire
manufacturer’s recommendations for the specific loading and service speeds of the tires selected.
5.7.1 Having reached conclusions in the preliminary stage of consideration it will be possible to
produce a specification for the required vehicle. The quantities and types of extinguishing agents should
be expressed at the “useable contents” levels to ensure that the containment and delivery systems are
designed to take account of those quantities of each agent which cannot be discharged. Any monitor
designed to discharge foam must produce a foam of the specified quality, dependent on the type of
concentrate used (see Chapter 8). The output, effective range and selective patterns of discharge must be
related to the requirements of the airport RFF category and to the operational tactics to be employed by
the crew. Complementary agents, also discussed in Chapter 8, must be capable of delivery through
monitors or extended hose lines at the defined rates of discharge, with a v ariable discharge capability
where this would enhance their fire suppression properties. It is essential to consider the replenishment
processes associated with the principal and complementary agent systems as the duration and complexity
of these processes have a significant effect on vehicle availability. Where agents of all types are
discharged, at accidents or in training, it i s essential to return vehicles to complete availability in the
shortest possible time.
5.7.2 The design of the crew compartment on any RFF vehicle can contribute to the efficiency of the
vehicle in a number of ways. The first consideration is that it should be large enough to accommodate the
specified crew and certain elements of equipment. The number of crew members will be determined by
the total operational role to be fulfilled by the vehicle, which may anticipate activities external to the
vehicle simultaneously with the discharge of extinguishing agents from the vehicle. Combined activities
of this nature may be characteristic of the first responding vehicle. Other complementary agents, will
normally commence their fire attack by delivering their principal agent, retaining at this stage their ability
to adopt new positions to optimize their fire suppression capability. The ability to maintain uninterrupted
foam production while the vehicle is in motion at speeds up to 8 km/h is an essential design feature for all
vehicles. In this mode it will be impossible to deliver any complementary agent unless this is discharged
through a monitor.
5.7.3 Many current vehicles are capable of operation at full capacity with one operator although some
users prefer a two-members crew, consisting of a driver and a monitor-operator, which provides a more
effective distribution of the operational workload. In some States larger crews are provided and it is a
matter for local decision as to an appropriate crewing level, having due regard to the operational
effectiveness of additional crew members while the vehicle is in motion. In all cases the crew
compartment must provide for the safe conveyance of the crew to an aircraft accident with sufficient
space to facilitate the donning of elements of protective clothing. The driver must have all-round visibility,
effective controls and instrumentation and some form of communication with the monitor-operator during
all firefighting operations. The monitor-operator must be able to assume the operating position while the
vehicle is in motion and operate the monitor through at least 60 ̊ either side of the central axis of the
vehicle. Depression of the monitor should deliver foam at ground level not more than 12 m ahead of the
vehicle while providing an elevation of not less than 30̊. Monitors should produce foam in straight
streams and diffused patterns and have a high and low discharge capability. The output from the monitor
should be determined in relation to the minimum output specified for the airport category in Table 2-2. In
this respect it should meet or exceed the specification, if the only monitor available, or provide an
appropriate element of the total requirement when more than one monitor is in use at an aircraft accident.
At airports receiving aircraft over 28 m in length it is desirable to have more than one vehicle equipped
with a monitor to facilitate a fire attack from more than one point.
5.7.4 Other features of crew compartment design must include ease of access or egress for crew
members, adequate insulation from vibration and noise and, where appropriate, measures, including the
provision of equipment, to maintain an acceptable environment in temperature extremes. The calibration
of instruments and the labelling or marking of controls, switches, lockers or other locations shall be in the
units and in the language specified by the airport or appropriate authority. Wherever practicable, use
should be made of symbols to minimize the need for interpretation of wording or the directional
application of a control. Consideration should be given to the use of status indicators, using illuminated
devices to denote the availability of a facility or function or the operation of a control. These are simple to
maintain and interpret and reduce the workload on drivers and monitor operators when the vehicle is in
action at an accident or during training. They are preferable to analogue instrumentation unless this more
complex type of equipment is required by legislation, as would be the case with a vehicle speedometer.
5.7.5 The capacity of the foam concentrate tank should be sufficient to provide the specified solution
ratio for twice the capacity of the water tank. This level of provision is considered to be desirable at all
airports where facilities exist for the rapid replenishment of the water tank. While rapid replenishment of
the water tank may have a limited value in terms of an effective contribution at an aircraft accident it will
restore the vehicle to operational readiness, eliminating the delay entailed by the problems of refilling the
foam concentrate tank.
5.7.6 The requirement for bumper turrets and undertruck protection has been the subject of
considerable controversy. In their early forms the two types of installation were conceived as providing
protection for the vehicle during operations at an aircraft accident. Undertruck nozzles still provide this
form of protection and are specified for vehicles with over 4 500 L capacity and considered optional for
vehicles with up to 4 500 L capacity. Undertruck nozzles demand regular inspection to ensure their
freedom from obstruction and corrosion. The term “bumper turret” defines an installation which is
significantly different from the equipment fitted to earlier models of vehicles. The original forms
consisted of a horizontal pipe, mounted on t he front of the vehicle at a low level and delivering foam
through a series of perforations. Later designs substituted the perforations for one or more fixed nozzles
which delivered foam to form a protective carpet. The “bumper turret” designs, some types of which are
known as “ground sweeps”, are intended to provide a dual role, not only protecting the vehicle but also
offering a low-level foam application ability as a contribution to the total fire suppression capability of the
vehicle. The intension is to deal with fires under wings and in areas for which the main monitor may not
be entirely suitable although this task can also be undertaken with hand hose lines. Control of the
discharge and direction of the “bumper turret” is usually from within the cab. It is to be noted that the
provision of both “bumper turrets” and undertruck nozzles entails consumption of the principal agent
which may not contribute significantly to aircraft RFF operations. It may be concluded that where these
installations are specified an additional quantity of water and foam concentrate should be added to the
vehicle’s capacity. The quantities in each case might be determined by including a two-minute discharge
period of both installations, concurrent with the discharge of the monitor.
5.7.7 The equipment to be carried in a new vehicle will have been determined in the preliminary stage
and will include some items of protective clothing for crew members, stowed near their riding positions in
the crew compartment. Rescue and communications equipment must also be accommodated and the basic
requirement for both is secure stowage to preserve each item, with ready access for inspection or use. The
stowage must preclude the entry of damp or dust and the retaining devices within lockers or within the
crew compartment must combine security of retention with immediate release for access, a difficult
combination but one for which modern design can provide acceptable solutions. To establish the scope,
types and quantities of rescue equipment applicable to the range of airport categories a thorough
assessment should be conducted at each location to ensure that the equipment levels maintained are
commensurate with what is required. Table 5-2 provides guidance material only in relation to the range of
rescue equipment normally applicable to the airport categories. The option exists, where more than one
vehicle will attend an aircraft accident, to consider the disposition of the rescue equipment to several
vehicles. All RFF vehicles should be provided with searchlights or floodlights.
5.7.8 It must be appreciated that where a rescue tool requires a source of power for its operation a
decision must be made as to the means of providing this source. In some cases the source can be portable,
as is the situation with some pneumatic chisels, which utilize a co mpressed-air cylinder. Some rescue
saws are operated by a small internal combustion engine, giving complete mobility but with a minor risk
of introducing an ignition source in an area which may have fuel vapour concentrations. More complex
rescue tools, using pneumatic, hydraulic or electrical power, require the support of equipment which can
generate and maintain the power source. The two options which must then be considered are installed
equipment in a vehicle or portable equipment, carried in the vehicle. In both solutions there will be a
requirement for accommodation within the vehicle with the balance of operational advantage resting with
portable systems. With a portable system the radius of action afforded to the rescue tools is much greater,
as it is not determined by the length of the supply lines, as would be the case with equipment installed in
5.7.9 Another form of power assisted rescue and fire-fighting equipment is now being specified by
some airports. The outline of the original operational requirement is provided in 12.2.14, which identifies
the problem created by fire situations in the elevated, rear-mounted engines of certain aircraft. At heights
of up to 10.5 m access to the intakes of the centrally mounted engines is further complicated by the
configuration of the rear fuselage. Effective delivery of an extinguishing agent from ground level or from
the top of a RFF vehicle may not be achieved in all weather conditions. The technical solution may well
be to provide a mechanical device to elevate the nozzle delivering the extinguishing agent, with or
without an operator. Articulated or extensible devices, capable of delivering a complementary agent at an
acceptable rate, are available and some have been installed on RFF vehicles.
5.7.10 Preliminary studies indicate that there may be additional operational roles for such equipment,
including use as a floodlight tower to illuminate an accident site, as an observation platform, with
communications equipment to report observations and as a rescue aid, permitting the opening of aircraft
doors and the subsequent attachment of a form of escape slide. In considering the extent to which these
apparent operational advantages may be effectively realized it is necessary to assess the frequency with
which the specified situations occur. The equipment now available is effective but it imposes weight
penalties, design complexity and a significant cost element in its acquisition. Certain of the functions it
offers are achievable by other means and, above all, any system which anticipates the elevation of an
operator, in addition to the extinguishing agent, has of necessity to be designed to ensure the safety of the
operator. It is to be noted that use of these devices may pose a hazard to the vehicle. The device has to be
located close to the subject aircraft, with extremely limited opportunity for rapid removal in an emergency.
5.7.11 It is also considered that in those cases where a fire has not been extinguished by the discharge
of the installed system in the aircraft the use of foam streams, although not entirely effective in engine fire
situations, will not add materially to the damage already sustained by the engine while preventing the
development of the fire. The additional benefits, such as floodlighting and access to aircraft doors, are
available by simpler means, including the use of equipment listed in Table 5-2. Statistical evidence
derived from RFF interventions at aircraft accidents does not confirm a requirement for equipment of this
kind. This is, however, a typical case of a desirable component for those who identify a need and can
sustain the equipment in service. The training of operators, particularly drivers, will be a crucial element
in any programme before introduction to operational use. The equipment must be installed in a large
vehicle to provide the stable platform for its operation and this may suggest the duplication of the facility
at an airport to ensure that the service remains available when one of these specialized vehicles is
temporarily out of commission.
5.7.12 Automotive performance criteria for RFF vehicles are expressed at the minimum level of
acceptability in Table 5-1, with other details relating to extinguishing agents and firefighting systems. In
some cases, the minimum characteristics provided are less demanding than those now available from
vehicle manufacturers. In particular, accelerations, top speeds and static tilt angles of completed
appliances now in service exceed these specifications. In considering any proposals from manufacturers
the objective would be to obtain the maximum benefits arising from technological developments,
particularly where these make a contribution to safety. In this connexion stability, as demonstrated by tilt
angle, and crew cab integrity would be important.
5.7.13 There are additional automotive factors to those listed in Table 5-1, including those concerned
with braking performance, turning circle, tire equipment, interaxle clearance, exhaust emission and, as
discussed in 5.6, dimensions. As a basic requirement these must meet or exceed national or local
legislation, subject to such special dispensation as may be accorded to emergency vehicles. The provision
of audible and visual devices to identify an emergency vehicle should conform to national or local
legislation, in addition to any standard lighting requirement of these regulations. An additional lighting
requirement for vehicles to be operated in the aircraft manoeuvring area is defined in Annex 14, Volume I,
Chapter 6. Airport emergency vehicles should be finished in a conspicuous colour, preferably red, in
accordance with Annex 14, Volume I,
5.7.14 Local factors which may have effect on vehicular performance include:
a) the altitude at which the vehicle is to operate. The performance of normally-aspirated
engines may be affected at altitudes above 600 m and the use of turbochargers may be
necessary to achieve acceleration and cruising speed specifications;
b) any temperature extremes likely to be encountered by the vehicle. Very high
temperatures may necessitate additional capacity in the engine cooling system. Very low
temperatures may require protective equipment for the vehicle including the firefighting
pump, associated plumbing and the water tank; and
c) the presence of unusual quantities of sand or dust in the atmosphere, requiring augmented
filtration in the induction system to the engine.
5.7.15 All vehicles will require regular inspection of every aspect of their structure, systems and
operational functions. Servicing and preventive maintenance will ensure, as far as is practicable, that the
vehicle will remain effectively available. The time taken to complete these processes will be directly
related to the accessibility of all the areas to be inspected and serviced and the design of the vehicle must
provide this facility. Additionally, in anticipation of the need to remove a major component, such as the
engine, pump, tank or foam-making system, removable panels and suitable lifting connexions must
ensure that removal and replacement does not entail unacceptable extension of down-time. One design
feature, indirectly related to vehicle serviceability and the extent to which some areas will require
maintenance, is the application of protective treatments and finishes. Anti-corrosion treatments are
essential in most airport environments and these can be extended to protect areas which may be exposed
to any deposits of foam concentrate or dry chemical agents which may be spilled during replenishment
operations. The under-chassis and some elements of the superstructure can be protected against abrasion
from surface material thrown up by the tires. Any steps or walkways to be used by crew members can
combine non-slip characteristics with features which protect adjacent surfaces against damage by
footwear. The front and sides of the vehicle, which may sustain damage when the vehicle negotiates brush,
scrub or undergrowth, can be constructed of materials which can withstand this exposure, avoiding the
need to regularly repaint the coachwork. This range of protective measures can prolong the availability of
a vehicle and make a significant reduction to the cost and duration of maintenance programmes.
5.7.16 For optimum foam firefighting and burn back performance the foam-making equipment should
produce expansions and 25 per cent drainage times of acceptable levels. Generally, expansion ranges
from 6 to 10 for film-forming or fluorine free synthetic foams and from 8 to 12 for protein based foams.
Drainage time should be in excess of 3 minutes for film-forming foams and in excess of 5 minutes for
protein-based foams when tested in accordance with their respective methods.
5.8.1 There may be a need for staff training when a n ew vehicle is acquired, particularly where
innovations in firefighting systems, automotive components or other structural features are to be
incorporated. Many constructors of RFF vehicles are able to provide such facilities in the country of
construction or of use. The most valuable opportunities are those in the country of construction where
training can be given as the vehicle is assembled. This can be of special benefit to personnel who will be
involved in the development of preventive maintenance and periodic overhaul programmes. Visits to the
sub-contractors of major components, such as the engine, transmission and fire pump, will provide
invaluable professional advice, leading to a c omplete awareness of the total vehicle. Training of RFF
personnel, particularly those with instructional duties, can also be arranged but this may be most effective
in the country of use, where any special local conditions may be taken into account. This would be the
case where driver training had to be provided. All training can be provided as part of the total contract for
a new vehicle.
5.8.2 It is usual to include in a contract a series of tests to demonstrate the ability of a vehicle to meet
a specification.
These tests may be divided into two groups — those which measure aspects of the vehicle’s performance
as a rescue or firefighting unit and those which measure its vehicular performance. A typical series of
tests would consider:
a) foam output, through the monitor, any side lines and the bumper turret and undertruck
nozzles, where specified;
b) the qualities of foam produced;
c) the range and pattern of foam discharged, in both low and high levels of output, from the
d) the operation, including the extension of any hose-line, of the complementary agent
system, where specified;
e) the conduct of replenishment procedures;
f) the production of foam, while in motion, probably as part of a) above;
g) the conduct of a flushing procedure on completion of foam production;
h) acceleration and maximum speed tests;
i) braking, turning and gradient performance tests;
j) the weighing of the fully stowed vehicle, including separate axle weights; and
k) static tilt test.
5.8.3 This series of tests is additional to any visual inspection of a vehicle to appraise design features,
finishes, treatments and other aspects required by the specification. Where a number of identical vehicles
are ordered it may be necessary to perform the tests in a) to k) above for the first production vehicle only.
Acceleration and cruising speed tests should be conducted at the normal operating temperatures of the
5.8.4 Technical manuals, describing systems, operating procedures and other construction features of
the vehicle, are essential for RFF and support purposes. They can be used as instructional documents and
in programming inspection and preventive maintenance procedures. Where a manual includes a list of
components it can facilitate the acquisition of spare parts in precise terms. At least two copies of these
technical manuals should be provided, one each for the principal officers in the RFF and maintenance
services. The language in which these documents shall be presented will be for local determination.
5.8.5 Where the vehicle to be acquired has features or performance characteristics which are new to
the RFF and maintenance services it may be advantageous to the airport or appropriate authority to
specify a c ommissioning programme when the vehicle is delivered to the airport. The contractor can
provide one or more representatives to introduce the vehicle to those who will be responsible for its
operation and serviceability, with particular attention to drivers. Experience has shown that vehicle
drivers must be given training if they are to realize the full advantages of increased power and handling
qualities offered by modern vehicles. While the water and foam concentrate tanks of vehicles will
normally be kept filled to capacity, drivers should be made aware of the change in handling
characteristics created by partially filled tanks, which may be experienced when returning from an
incident or training period.
5.8.6 Although the standards of design and construction now employed will produce vehicles which
are reliable in service, subject to the introduction of reasonable handling, inspection and maintenance
procedures, some unserviceability is inevitable. The repair skills available to the airport will normally
ensure the early return of vehicles to operational use but there may be occasions where technical
assistance will be required from the vehicle constructor. Additionally, as a preventive measure, the airport
or appropriate authority may wish to secure a p eriodic examination of a v ehicle to assess its over-all
condition. To meet either of these requirements a clause can be included in the initial contract to secure
these support facilities.
5.8.7 In any vehicle there are components with relatively short service “lives”. These include
windscreen wiper blades, fan belts, some lamps used in indicators or vehicle lighting systems and oil or
air filters. These items are described as fast moving spares and a schedule of these can be discussed with
the contractor prior to the delivery of the vehicle. They are usually low cost items and provision of a
quantity of these as part of the initial contract will contribute to the availability of the vehicle.
5.8.8 During the “operational life” of a vehicle the failure of a major component or the consequences
of a traffic accident may require the earliest provision of replacement parts additional to those held at the
airport. A contract may secure an undertaking from the vehicle constructor to provide these replacements
on an emergency basis, including the use of air freight facilities in appropriate cases.
This schedule lists some of the design, construction and performance features which should be
considered in preparing a preliminary specification for a RFF vehicle. It is not intended to be fully
comprehensive and it is anticipated that a more detailed specification will be developed in the
negotiations with contractors who respond to the issue of the preliminary specification. This process
permits the airport or appropriate authority to consider the inclusion of products and materials developed
by the automotive and fire engineering industry and proposed by contractors in their submissions.
a) Role of the vehicle to be specified (5.2.1 and 5.2.2).
b) Extinguishing media to be carried (Chapters 2 and 8):
1) principal agent:
— quantity of water and preferred type of tank construction;
— quantity and type of foam concentrate and preferred tank construction (5.4, 5.7.1
and 5.7.5);
— monitor — outputs, related to dual-output monitors — ranges, patterns of
delivery, monitor and monitor control locations — static and mobile foam
production capability (5.7.2 and Table 5-1);
— sideline deliveries — specify radius of action required, using hose-reel or
delivery hose systems (5.7.1 and Table 5-1);
— bumper turret — where known, state type, output, range, discharge pattern and
location of controls (5.7.6 and Table 5-1);
— undertruck protection — where known, state number and type of outlets,
capacities, location of controls (5.7.6 and Table 5-1);
— minimum foam qualities, related to type of concentrate (8.1.3 to 8.1.5);
— replenishment facilities — water and foam concentrate (5.7.1);
— systems flushing facilities;
— specify any structural firefighting capability (5.1.3); and
2) complementary agents:
— type, quantity, containment and discharge requirements (8.2); and
— replenishment facilities (5.7.1).
c) Crew cab design requirement:
— minimum crew capacity (5.7.2);
— type of seating and seat belt requirement;
— equipment stowage — state types and quantities (5.7.7);
— access and egress considerations (5.7.4);
— driver’s visibility and control requirements (5.7.2);
— instrumentation and controls — 33abeling (5.7.4);
— communications installations — state types — specify interference suppression
standard (4.3 and 5.7.2);
— safety features — elimination of protrusions or other hazards to crew members
— noise and vibration suppression (5.7.4); and
— need for heating or air conditioning (5.7.4).
d) Equipment stowage:
— list equipment to be carried, provide dimensions and weights of items, where known
(5.2.2 and Table 5-2);
— state preferred locations and types of securing devices for each item (5.7.7);
— specify type and location of emergency lighting installation and the type and location
of the audible/visual emergency alarm system (5.7.7 and 5.7.13); and
— specify type and capacity of power-source and the associated equipment to be used
for powered rescue tools or extensible firefighting apparatus (5.7.8 to 5.7.11).
e) Vehicular performance and design features:
— acceleration;
— top speed;
— all-wheel drive capability;
— automatic/semi-automatic
transmission (5.7.12 and Table 5-1)
— minimum angles of approach
and departure;
— minimum tilt angle (static);
— single rear wheel configuration;
— braking specification (5.7.13);
— maximum permissible dimensions (5.6.1);
— altitude and temperature range for operation of completed vehicle (5.7.14);
— protective treatments or installations (5.7.14 c) and 5.7.15); and
— vehicle lighting standards (5.7.13).
f) Support features:
— access to key components for inspection and maintenance purposes (5.7.15);
— removable panels and the provision of lifting attachments for removal of major
elements (tanks, pump, engine, etc.) (5.7.15);
— requirement for engine/hours meters, automatic lubrication systems or other devices
which facilitate engineering support;
— requirement for detailed spare parts list and maintenance manuals (specify language
of presentation) (5.8.4); and
— specify types and quantities of spare parts to be included in initial purchase (5.8.7).
g) Contractual considerations:
— specify requirement for inspections, during construction and, in full detail, before
acceptance (5.8.2 and 5.8.3);
— invite proposals for staff training (5.8.1); and
— invite proposals for contractor’s in-service support (5.8.5, 5.8.6 and 5.8.8).
Figure 5-1. Typical factors for selection of rescue and fire-fighting (RFF) vehicles
Role of new vehicle
Quantities and types
of extinguishing
agents — Output
discharge patterns
and replenishment
Provision of
training for fire
service and
Conduct of a
programme at
support by
Supply of
spare parts
with new
of spare
Capacities related to
present or future
airport RFF —
Crew cab capacity,
design and safety
aspects —
accessibility for
operations, control
systems — Ease of
driving and operating
advantage of
adopting improved
Equipment —
Range and stowage
— Need for special
Compatibility of
new vehicle with
existing fleet
performance —
acceptance criteria
Dimension or
loading limitations
imposed by airport
features or local
Access for preventive
maintenance and
support — Protective
treatments and
Provision of
consideration of
Table 5-1. Suggested minimum characteristics for RFF (RFF) vehicles
RFF vehicles up to
4 500 L
RFF vehicles over
4 500 L
Monitor Optional for categories 1 and 2
Required for categories 3 to 9
Design feature High discharge capacity High and low discharge capacity
Range Appropriate to longest aeroplane Appropriate to longest aeroplane
Handlines Required Required
Under truck nozzles Optional Required
Bumper turret Optional Optional
Acceleration 80 km/h within 25 s
at the normal operating temperature
80 km/h within 40 s
at the normal operating temperature
Top speed At least 105 km/h At least 100 km/h
All-wheel drive capability Required Required
Automatic or semi-automatic
Required Required
Single rear wheel
Preferable for categories 1 and 2
Required for categories 3 to 9
Minimum angle of approach
and departure
30° 30°
Minimum angle of tilt (static) 30° 28°
Table 5-2. Guidance material related to rescue equipment carried on RFF vehicles
Equipment Scope
Equipment Item
Airport Category
Forcible entry tools
Prying Tool (Hooligan, Biel type) 1 1 1 2
Crowbar 95 cm 1 1 1 2
Crowbar 1.65 m 1 1 1 2
Axe, rescue large non wedge type 1 1 1 2
Axe, rescue small non wedge or aircraft type 1 2 2 4
Cutter Bolt 61 cm 1 1 2 2
Hammer 1.8 kg Lump or Club type 1 1 2 2
Chisel cold 2.5 cm 1 1 2 2
A suitable range of
rescue/cut in
including powered
rescue tools
Hydraulic/Electrical (or combination) portable
rescue equipment
Powered rescue saw complete with minimum
406mm diameter spare blades
1 1 1 2
Reciprocating/Oscillating saw 1 1 1 2
A range of
equipment for the
delivery of
firefighting agent
Delivery hose 30 m lengths x 50 & 64 mm
6 10 16 22
Foam Branches (Nozzles) 1 1 2 3
Water Branches (Nozzles) 1 2 4 6
Coupling adaptors 1 1 2 3
Portable fire extinguishers
1 1 2 3
1 1 2 3
Self Contained
Apparatus –
sufficient to
maintain prolonged
internal operations
Note: Ideally one
BA set per crew
Breathing Apparatus (BA) set c/w facemask
and air cylinder
BA spare air cylinder
BA spare facemask
Respirators Full faced respirators c/w filters One per responding fire fighter
A range of ladders Extension Ladder, Rescue & suitable for
critical aircraft
- 1 2 3
Ladder General Purpose – rescue capable 1 1 1 2
Protective clothing Firefighting helmet, coats, over trousers (c/w One set per operational fire
braces), boots & gloves as a minimum fighter plus a % of reserve stock
Additional items
for personal
Protective goggles 1 1 2 3
Flash hoods One per operational fire fighter
Surgical gloves 1 box 1
Blanket Fire Resisting 1 1 2 2
Rope lines Rope Line Rescue 45 m 1 1 2 2
Rope Line General Use 30 m 1 1 2 2
Rope Line Pocket 6 m One per operational fire fighter
Portable transceivers (hand held & intrinsically
1 2 2 3
Mobile transceivers (vehicle) One for each fire vehicle
A range of hand
lighting equipment
Hand held flashlight (intrinsically safe) 1 2 4 4
Portable lighting – spot or flood (intrinsically
1 1 2 3
A range of general
hand tools
Shovel overhaul 1 1 2 2
Rescue Tool Box &
1 1 2 3
Hammer, claw 0.6 kg
Cutters, cable 1.6 cm
Socket set
Hacksaw, heavy duty c/w spare blades
Wrecking bar 30 cm
Screwdriver set – Slotted & Phillips heads
Pliers, insulated
Combination 20 cm
Side Cutting 20 cm
Slip Joint – Multi Grip 25 cm
Seat Belt/Harness cutting tool
Wrench , adjustable 30cm
Spanners, combination 10mm – 21 mm
First aid equipment Medical First Aid Kit 1 1 2 3
Automated External Defibrillator (AED) 1 1 2 3
Oxygen Resuscitation Equipment (ORE) 1 1 2 3
Chocks & Wedges – various sizes
Tarpaulin - lightweight 1 1 2 3
Thermal Imaging Camera - - 1 2
Chapter 6
6.1.1 It is essential that all personnel operating at an aircraft fire be provided with protective clothing
which will ensure the wearer is able to perform the assigned duties. This clothing should be provided,
maintained and readily available for instant use. This specification must therefore have regard for three
important factors in determining the types of clothing to be provided and the conventions specified in
respect of its use during hours of duty. These are:
a) the extent to which it is necessary to wear continuously all, or some elements of, the protective
clothing so as to ensure immediate response when a call for attendance at an aircraft accident is
received. Some forms of protective clothing create dressing problems which cannot easily be solved
within the crew compartment of a moving vehicle;
b) assuming that some elements of the protective clothing must be worn at all times during a tour of
duty, there will be significant effects on the wearers in locations with high ambient temperatures.
This is due to the nature of protective clothing and its inevitable restriction on the loss of body heat
through natural ventilation processes. This suggests that there may have to be a compromise solution
between the ultimate degree of protection offered by some forms of clothing and a lesser, but
acceptable, form of protection which can be provided by clothing specifically designed for use in
areas with high ambient temperatures. This compromise does not expose operatives to unacceptable
risk but does ensure that immediate response to a call is feasible; and
c) in all protective clothing considerations it is essential to recognize the problems which will arise for
aesthetic and hygienic reasons if clothing has to be shared on an “impersonal issue” basis. The costs
of protective clothing may be regarded as reasonable grounds for requiring certain elements, e.g.
protective suits, to be used successively by a number of operatives in the course of a tour of duty.
Apart from the practical difficulties of ensuring that each wearer is provided with clothing of the
correct size in these circumstances there may well be strong personal objections to this practice. One
solution is the acquisition of relatively inexpensive uniforms, some of which require a special form
of undergarment for complete protection, which can be worn in part throughout hours of duty
without discomfort. Adequate protection can be provided and clothing issues may then be possible
on a personal basis, ensuring correct sizing and eliminating the personal difficulties described above.
6.1.2 Protective clothing is distinct from ordinary fire service uniforms and is worn during
firefighting activities, including training. It is designed to provide the fire fighter with protection from
radiated heat and from injuries arising from impact or abrasion during operational activities. A measure of
protection from the ingress of water is also desirable particularly in low temperature operations. A typical
protective uniform consists of a helmet, with visor, a suit, either in one piece or in a jacket and trousers
combinations, boots and gloves. The desirable characteristics of each component are described below.
6.1.3 Helmets. Helmets should provide adequate protection from impact, be resistant to penetration
and electrical conductivity and should not be susceptible to deformation due to heat absorption. A
movable visor, resistant to abrasion, impact, and radiant heat should offer a wide angle of vision.
Adequate protection to the neck and chest may also form part of the helmet if not otherwise provided by
the protective suit. The helmet should not give the wearer a sen se of isolation and must permit both
speech and the reception of audible signals or words of command. Ideally, the helmet should be capable
of use in conjunction with respiratory protection equipment and of incorporating radiotelephone receiver
installations. Where helmets incorporate radiotelephone receivers, the helmet should carry a distinctive
number to identify the wearer, applied in a contrasting colour and reflective medium.
6.1.4 Protective suits. Protective suits can be classified into two categories, proximity suits and
structural fire-fighting suits.
6.1.5 Proximity suits, designed to permit fire fighters to approach, and suppress, a fire situation, are
not intended to provide the level of protection necessary for entering active fire areas. Suits with
acceptable protective characteristics are provided in one piece overall designs and in two-piece jacket and
trousers combinations. Materials of construction vary widely, having regard to the climatic and other
considerations in the location of intended use. The comments in 6.1.1 are relevant in the selection of
proximity suits by the airport or appropriate authority but there are basic criteria which should be applied
before acquisition whenever proximity suits are being assessed.
a) The suit should provide thermal insulation, must resist radiant heat and occasional direct flame
contact and be water resistant. The garments should be lightweight, provide freedom of movement,
be comfortable in extended periods of wear and easy to don without assistance. The fabrics
employed should not be bulky and should be resistant to tearing and abrasion. They may be coated in
a reflective medium or lined to minimize the effects of radiated heat on the wearer.
b) Fastenings should be easily secured by the wearer, adequate to maintain their security under stress
and resistant to damage by heat or flame contact. Seams should be waterproof and any pockets
should have drainage holes in the lower corners.
c) The entire suit should be capable of being cleaned without reducing its protective qualities.
Maintenance and minor repairs should be within local capabilities and not require the return of suits
to a manufacturer or distributor.
6.1.6 Boots. Uppers should be of a tough, flexible, heat-resistant material and extend to the mid-calf
or knee level. Soles should be of a non-slip material, which may include synthetic materials, resistant to
heat, oil, aircraft fuels or acids. Toe caps and soles may be reinforced with steel. The use of rubber boots
in this application is not recommended.
6.1.7 Gloves. These should be of the gauntlet type to provide wrist protection and their construction
should permit the wearer to operate switches, fastenings and hand tools. The nature of firefighting
operations indicates that the back of the glove should have a reflective surface to minimize radiated heat
effects and that the palm and fingers should be provided in a material resistant to abrasion and penetration
by sharp objects. All seams should be resistant to penetration by liquids.
6.1.8 Protection requirements. As a g eneral guide, the protective clothing, when correctly worn,
should offer at least the same level of protection as a s tructural fire-fighting suit. The exact level of
protection should be decided with regard to operational considerations and risk assessment.
Guidance relative to fire-fighting suits is available, as some examples, in the following standards:
a) ISO 11613: Protective clothing for fire-fighters - Laboratory test methods and performance
b) EN 469: Protective clothing for fire-fighters – Requirements and test methods for protective
clothing for fire-fighting;
c) NFPA 1971 Standard on protective clothing for structural fire-fighting; and
d) ISO 15538:2001 Protective clothing for firefighters -- Laboratory test methods and
performance requirements for protective clothing with a reflective outer surface.
6.2.1 Fire fighters entering any environment in which fire is present during an aircraft incident should
be protected with self contained respiratory equipment as well as during overhaul operations. This
applies equally to aircraft that comprises aluminum and composite fibre materials.
6.2.2 The cabin interior of modern passenger aircraft in the main comprises synthetic materials which,
during fire or charring, will produce dangerous toxic gases. S uch gases include carbon monoxide,
hydrogen chloride, chlorine, hydrogen cyanide and carbonyl chloride (phosgene). Fire fighters required to
enter a smoke-filled cabin or other toxic environment will need self-contained respiratory equipment of an
approved design for the anticipated environment.
6.2.3 Increasingly, composite fibre material is being used in the construction of modern aircraft and in
particular replacing the external aluminum skin. C omposite fibre, if involved in fire, can produce
dangerous substances such as hydrogen cyanide, hydrogen chloride, hydrogen sulfide, hydrogen fluoride,
acrolein and nitrogen dioxide. Fire fighters required to enter environments involving composite fibre that
has been subject to fire will need self-contained respiratory equipment of an approved design.
6.2.4 Composite fibre, if involved in high impact such as an aircraft crash landing without the presence
of fire, may become damaged to the extent minute particles of composite fibres are released to
atmosphere. Fire fighters required to enter an area where minute particles of composite fibre are present
will need self-contained breathing apparatus or, as a minimum, full face respirators with the appropriate
filtration filters.
6.2.5 It is essential to ensure that the respiratory equipment selected is adequate in terms of its basic
function, and its operational duration for the tasks involved. Industrial smoke masks and certain types of
limited capacity compressed air equipment are unlikely to meet the stringent requirements of these
6.2.6 It is essential to develop and maintain a high level of competence in those fire fighters appointed
to wear respiratory equipment. This competence must include the most stringent procedures for the
inspection, testing and maintenance of the equipment. If the highest standards are not achieved and
maintained by regular training the equipment can become ineffective and present a serious hazard to the
6.2.7 Wherever self-contained respiratory equipment is operated, adequate arrangements must be made
for the recharging of air cylinders with pure air and a quantity of spare parts should be held to ensure the
continuous availability of the service.
Chapter 7
7.1.1 The availability of ambulance and medical services for the removal and after-care of casualties
arising from an aircraft accident/incident should receive the careful consideration of airport management
and should form part of the over-all emergency plan established to deal with such emergencies.
Ambulances carrying personnel teams qualified in basic life support are vital to the success of initial
triage in the event of an accident.
7.1.2 The extent of the facilities should have regard to the type of traffic and a reasonable estimate of
the maximum number of aircraft occupants likely to be involved. The subject of airport medical
services, including provisions of medical clinic and/or first aid room is given detailed consideration in
the Airport Services Manual (Doc 9137), Part 7 – Airport Emergency Planning.
7.1.3 Ambulances. Any decision regarding the provision of ambulances should take into consideration
the ambulance facilities available in the area of the airport and their ability to meet within a reasonable
period of time a sudden demand for assistance on the scale envisaged. Regard should also be made to the
suitability of such ambulances for movement on the terrain in the vicinity of the airport. The ambulance
service may be part of the airport RFF service. Where it is deemed that the ambulance service provider(s)
is located off the aerodrome, the aerodrome operator should promulgate in their airport emergency plan,
procedures to secure the necessary commitment from such medical facilities in the event of an aircraft
emergency. These procedures should take into account, factors such as proximity to the aerodrome;
operating hours and capacity of the medical facilities; expected traffic situations; local terrain; and
weather conditions that will affect the expeditious response and the subsequent effective delivery of
medical aid. This commitment should be formalized through mutual aid emergency agreements between
the aerodrome operator and the ambulance service provider(s). In the absence of such mutual aid
emergency agreements, commitment by the ambulance service provider(s) can also be demonstrated by
the activation, deployment and response of resources during full-scale aircraft crash exercises. On the
other hand, where it is decided that the provision of an ambulance or ambulances by the appropriate
authority is necessary, the following should be considered:
a) the vehicle to be provided should be a type suitable for movement on the terrain in which it may
reasonably be expected to operate and should provide adequate protection for the casualties;
b) as a measure of economy the vehicle may be one which is used for other purposes, provided such
uses will not interfere with its availability in the event of an aircraft accident. It must be suitably
modified to permit the carriage of stretchers and any other necessary life-saving equipment. In a
case where auxiliary personnel are relied on for firefighting and rescue purposes, the ambulance
vehicle could be used for the transport of such personnel and ancillary equipment to the scene of
the accident and then assume a role as an ambulance; and
c) ambulances used to transport casualties who may have a ser ious communicable disease or who
are contaminated with a toxic agent e.g. chemical or radioactive material, require additional
consideration. Designated equipment may be necessary, and personnel involved should receive
any necessary additional training and be provided with appropriate personal protective equipment.
Chapter 8
8.1.1 Foam. Foam used for aircraft RFF is primarily intended to provide an air-excluding blanket
which prevents volatile flammable vapours from mixing with air or oxygen. To perform this function a
foam must flow freely over the fuel surface, must resist disruption due to wind or exposure to heat or
flame and should be capable of resealing any ruptures caused by the disturbance of an established blanket.
Its water retention properties will determine its resistance to thermal exposure and will provide limited
cooling to any elements of the aircraft structure to which it adheres. The quantity of foam to be produced
in order to safeguard the integrity of an aircraft fuselage adjacent to a fire can be calculated using the
practical critical area concept. There are several types of foam concentrate from which effective
firefighting foams can be produced and these are described as follows:
a) Protein foam. This consists primarily of protein hydrolysate, plus stabilizing additives and
inhibitors to protect against freezing, to prevent corrosion of equipment and containers, to resist bacterial
decomposition, to control viscosity, and to otherwise ensure readiness for use under emergency
conditions. Current formulations are used at recommended nominal concentrations of 3, 5 and 6 per cent
by volume of the water discharge. All of these can be used to produce a suitable foam but the
manufacturer of the foam-making equipment should be consulted as to the correct concentrate to be used
in any particular system (the proportioners installed must be properly designed and/or set for the
concentrate being used). Foam liquids of different types or different manufacturers should not be mixed
unless it is established that they are completely interchangeable and compatible. Where a dry chemical
powder is to be used as the complementary agent in conjunction with protein foam it is essential to
determine the compatibility of these agents for simultaneous application. Incompatibility will result in the
destruction of the foam blanket in areas where the two agents are in contact. To ensure that the tank does
not contain stale protein foam, the entire contents should be discharged periodically and the entire system
washed through.
b) Aqueous Film Forming Foam (AFFF). There are many concentrates in this category
consisting basically of a fluorinated surfactant with foam stabilizer. The Concentrates may, according to
the specification, be used in solutions up to 6 per cent, with appropriate proportioning systems, or in premixed solutions. It is essential in selecting a concentrate to ensure that it is suitable for use in the total
system incorporated in a RFF vehicle. It is also important to discuss with the manufacturer or supplier the
use of an AFFF concentrate in extremes of temperature or where salt or brackish water may be used in the
solution, with particular regard to any possibility of interaction between the tank structure, any surface
treatment or the associated plumbing of the system. The foam produced acts to provide a barrier to
exclude air or oxygen and, by the drainage of a chemically impregnated fluid from the foam, to provide a
film on the fuel surface capable of containing fuel vapour. The foam produced does not have the density
and visual appearance of foams produced from protein or fluoroprotein concentrates and training will be
necessary to accustom fire fighters to its effectiveness as a f ire suppressant. AFFF concentrates may be
used in equipment normally used for protein or fluoroprotein foam production but conversion should not
be undertaken without consultation with the manufacturer or supplier of the AFFF concentrate or RFF
vehicle. A thorough flushing of the foam tank and the total foam-making system will be necessary before
the introduction of the AFFF concentrate. Some changes in the foam-making systems of vehicles,
particularly aspirating nozzles, where used, may be necessary to achieve the optimum properties of AFFF
foams. The AFFF foams are compatible with all currently available dry chemical powder agents. Protein
and fluoroprotein concentrates are incompatible with AFFF concentrates and they should not be mixed
although foams produced from these concentrates, separately generated, may be applied to a fire in
sequence or simultaneously.
c) Fluoroprotein foam (conventional). This foam contains a concentration of synthetic fluorinated
surfactant giving better all around performance than ordinary protein foams, as well as providing
resistance to breakdown by chemical powders. Current formulations are used at concentrations of 3 and 6
per cent by volume of the water discharge. The manufacturer of the foam making equipment should be
consulted as to the correct concentrate to be used in any particular system. (The proportioner used must be
properly designed and/or set for the concentrate being used.) Foam liquids of different types or different
manufacturer should not be mixed unless it is established that they are completely interchangeable and
compatible. Compatibility of a foam produced by any proposed agent and system with a d ry chemical
powder agent is essential and should be established by a test programme although it is known that
compatibility is a characteristic of most fluoroprotein foams.
d) Film forming fluoroprotein (FFFP) foams. Film forming fluoroprotein (FFFP) agents are
composed of protein together with film forming fluorinated surfactants, which make them capable of
forming water solution films on the surface of flammable liquids and of adding oleophobic properties to
the foam generated. This characteristic makes FFFP particularly effective where the foam may be
contaminated with fuel (such as forceful application). Expanded foams generated from FFFP solutions
have fast spreading characteristics and act as surface barriers to exclude air and prevent vapourisation,
thus suppressing combustible vapours. This film, which can spread over fuel surfaces not covered with
foam, is self-sealing following mechanical disruption and continues as long as there remains a reservoir of
foam for its production. To ensure extinction, however, an FFFP blanket should cover the fuel surface, as
is the practice with other foams. This foam is highly effective on fuel spills because it is fluid, film
forming and has oleophobic properties, Film forming fluoroprotein concentrates are available for
proportioning to a final concentration of 3 to 6 per cent by volume using either fresh or sea water. They
are compatible with dry chemical agents but this should be confirmed by a test programme.
e) Synthetic foams. This foam contains primarily petroleum products - alkylsulphates,
alkylsulphanates, alkylarylsulphanates, etc. Synthetic foam forming substances also include stabilizers,
anti-corrosives, and components to control viscosity, freezing temperature and bacteriological
decomposition. Concentrates of different types or from different manufacturers should not be mixed in
order to obtain an extinguishing foam; however, synthetic foams from different pieces of equipment are
compatible and can be used one after the other or simultaneously to extinguish a fire. The degree of
compatibility between synthetic foams and dry (powder) chemical substances should be determined prior
to their intended use. Fluorine and organohalogen free foams complying with Level A, B and C
requirements may be available under the heading of synthetic foams. These particular products are less
long term damaging to the environment and are stable against polar and non-polar hydrocarbons. Fluorine
and organohalogen free firefighting foams are pseudo plastic materials containing surface active agents,
polymer film formers, co-surfactants, stabilisers and anti-freeze compounds. Polymer film formers
prevent the destruction of finished foam. These products can be used in concentrations up to 6%, with
foam compatible dry powders and with aspirating and non-aspirating equipment.
8.1.2 Methods of foam production
Foam produced by most vehicles to be used for aircraft firefighting will utilize solutions, either in
premixed forms or by the use of a proportioning system, which are delivered at a predetermined pressure
to nozzles. The pressure can be provided by a pump or compressed gas. There are three methods of
aerating the solution:
a) Aspiration by inducted air. This is where a foam solution inducts air into the stream of foam solution
by the venture effect. As the foam solution passes air holes the negative pressure induces air into the
stream and baffles or plates may assist the process. The optimum performing foam is dependant upon the
correct ratios of foam concentrate to water and the expansion ratio achieved by the mixing action.
b) Aspiration by compressed air insertion. This is where compressed air (or other gas) is injected into
the foam solution stream by a controlling mechanism. This is usually carried out near to the pump and
proportioner and the finished foam is delivered to a branch. The optimum foam is controlled by
monitoring the water flow and matching the proportion rate and compressed air.
c) Aspiration within the jet. This is where the foam solution is delivered non aspirated from the branch
and air is entrained into the stream as it travels through the air to the fire.
In all cases the system will produce an acceptable foam only if the solution is delivered in the
appropriate concentration and in the correct pressure range to the aspirating nozzle or nozzles.
8.1.3 Quality of foams. The quality of a foam produced by a RFF vehicle using any of the concentratetypes described in 8.1.1, will significantly affect the control and extinguishment times of an aircraft fire.
Functional fire tests are required to determine the suitability of a foam concentrate in an airport
environment. Paragraph 8.1.5 below lists the minimum specifications for foams produced from protein,
synthetic, fluoroprotein, film forming fluoroprotein and aqueous film forming concentrates. The
specifications include physical properties and the performance of the foams under fire test conditions.
Any foam concentrate to be used in aircraft RFF vehicles should meet or exceed the criteria in these
specifications, so as to achieve the performance level A, B or C as appropriate.
8.1.4 Where States or individual users do not have the facilities for conducting the tests, to comply with
the specified properties and performances, certification of the qualification of a concentrate should be
obtained from a recognized, independent and accredited third party testing authority.
8.1.5 Foam specifications (See Table 8-1)
pH value. pH value is a measurement to express the acidity or alkaline properties of a liquid. Therefore,
in order to prevent the corrosion of plumbing or the foam tanks of a RFF vehicle, the foam concentrate
should be as neutral as possible and should register between the values of 6 and 8.5. A foam concentrate
not within these values may be acceptable to an airport RFF if the vehicle manufacturer confirms that
their vehicle firefighting system is designed for higher tolerances to potential corrosion.
Viscosity. The viscosity of a foam concentrate. is an indication of the resistance to flow of the liquid in
the plumbing of a RFF vehicle, and its consequential entry into the water system. The viscosity
measurement of a foam concentrate when at its lowest temperature should not exceed 200 mm/s. Any
higher registration will restrict flow and retard its adequate blending into the water stream unless special
precautions are taken. The determination of viscosity for pseudo plastic liquid type foam concentrates
may differ from this method, such concentrates may be utilized following a thorough proportioning test
aimed at the agent can effectively be proportioned within the required tolerances using a si milar RFF
vehicle system.
Sedimentation. Sediment may form in a foam which contains impurities or if it is subjected to adverse
storage, severe weather conditions and/or varying temperatures. The resultant creation of sediment may
affect the performance of a v ehicle’s foam proportioning system or negate its firefighting efficiency.
When tested by the centrifuge method, foams should contain no greater than 0.5 per cent of sediment.
8.1.6 Foam Performance Acceptance Test
It is essential that the foam produced by an RFF vehicle, or other such appliance, is of an
acceptable quality and the delivery parameters such as m onitor jet range and pattern meet and are
maintained to the appropriate operational requirement.
In order to ensure that foam production by an RFF vehicle is of an acceptable standard a Foam Production
Performance Test (i.e. an “Acceptance Test”) should be carried out:
a) When a RFF vehicle is first acquired by the licence holder for operational use at an aerodrome.
Acquisition may mean the new or second-hand purchase, leasing or hire of a RFF Vehicle.
b) When significant maintenance, refurbishment or component replacement has been undertaken
on a RFF vehicle that could affect a change in the foam quality or production performance of the
foam-making system. This includes a change of foam-making branches, nozzles or monitors.
Only those parts of the system that could have been affected by the work undertaken or the
component change need to be tested.
The Foam Production Performance Test should confirm the following:
a) The induction percentage for all foam-making devices. (If the foam production system is fitted
with an Induction Monitoring System, the test results obtained from analysis of the foam sample
should correspond with those provided with the monitoring system, i.e. check for correct
calibration and accuracy of induction monitoring system.) Induction can be checked using water
instead of foam.
b) The expansion ratio from all foam making devices.
c) The quarter drainage time from all foam making devices.
d) The jet range of the main monitor.
e) The spray pattern of the main monitor.
For vehicles equipped with foam monitors capable of producing foam whilst on the move, the tests shall
include an assessment of this capability. Where both a h igh and low discharge capability has been
provided on larger monitors, this provision should be tested in line with manufacturer’s guidance.
Induction systems should induce with a tolerance of +/- 10% of the desired induction percentage at
optimum working conditions. Pre-mixed foam systems shall have foam concentrate introduced to within
a tolerance of 1.0 to 1.1 times the manufacturer’s desired induction rate. Care should be taken in the use
of freeze point depressants where pre-mixed foam systems are exposed to low temperatures, since
excessive amounts of additives may have adverse effects on fire extinguishing performance. The foam
performance acceptance test should be carried out as described in Section 8.1.8.
8.1.7 In-Service Test
The In-Service Test should be carried out in accordance with equipment manufacturers’ instructions:
a) to ensure the on-going capability of the foam production system;
b) at least every twelve months.
Once the Foam Production System has been fully tested as described in paragraph 8.1.6 and assuming no
changes have been made, the In-Service Testing shall consist of periodic checks not exceeding twelve (12)
months to ensure induction accuracy.
The most effective method of continually assuring the induction accuracy is for the vehicle to be fitted
with a monitoring device which:
a) monitors the induction percentage;
b) records the dates and percentage inductions of foam concentrate;
c) has an alert if the induction rate goes outside set parameters.
The frequency of the In-Service Tests should be determined and conducted in conjunction with the
vehicle maintenance provider. The foam specimen for checking the induction percentage can be collected
during normal procedural “spot” tests or training. The most common method of conducting such a test is
by using a refractometer, however other methods e.g. closed loop computer controlled systems may
Pre-mixed foam units shall be maintained and hydraulically pressure tested in accordance with the
intervals set by manufacturer’s guidance. Only foam concentrates suitable for use in pre-mixed form shall
be used in these kinds of pressure vessels.
Optimum foam firefighting and burn back performance the foam-making equipment should produce
expansions and 25 per cent drainage times of acceptable levels. Generally, expansion ranges from 6 to 10
for film forming foams and from 8 to 12 for protein based foams. Drainage time should be in excess of 3
minutes for film forming foams and synthetic foams and in excess of 5 minutes for protein-based foams
when tested in accordance with their respective methods.
8.1.8 Fire test method
Objective: To evaluate the ability of a foam concentrate to:
a) extinguish a fire of: 2.8 m2, - performance Level A
4.5 m2, - performance Level B
7.3 m2, - performance Level C, as appropriate;
b) resist burn back due to exposure to fuel and heat.
a) A circular fire steel tray of: 2.8 m2 – performance Level A
4.5 m2 – performance Level B
7.32m2 – performance Level C
The vertical wall shall be 200 mm;
b) Equipment or access to facilities to enable accurate recordings of:
1) air temperature;
2) water temperature; and
3) wind velocity;
c) Fuel: 60 L of Avtur (Jet A1) for performance level A tests;
100 L of Avtur (Jet A1) for performance level B tests; and
157 L of Avtur (Jet A1) for performance level C tests
Note 1.- Avtur Jet A or kerosene with similar specifications may be used if
approved by the appropriate authority.
Note 2.- As some aviation kerosene may contain additives, it is recommended
that testing agencies utilise a pure kerosene test fuel in order to
maintain and establish repeatable test results.
d) branch pipe, straight stream, air aspirating nozzle;
e) suitable stop watch;
f) circular, burn back pot, measuring 300 mm (internal diameter), 200 mm high, 2 L of gasoline
or kerosene; and
g) protective screen between tray and equipment, for protection against radiant heat, is
Testing conditions:
a) Air temperature (EC) ≥ 15C
b) Foam solution temperature (EC) ≥ 1.5C
c) Wind velocity (m/s) ≤ 3
d) The test shall not be carried out in conditions of precipitation, if outdoors.
Table 8-1
Fire Tests Performance
Level A
Level B
Level C
Nozzle (Air Aspirated)
a) Branch pipe “Uni 86”
Foam nozzle
(See Appendix 3)
“Uni 86”
Foam nozzle
(See Appendix 3)
“Uni 86”
Foam nozzle
(See Appendix 3)
b) Nozzle pressure 700 kPa 700 kPa 700 kPa
c) Application rate 4.1 l/min/m2 2.5 l/min/m2 1.56 l/min/m2
d) Nozzle Discharge
11.4 l/min 11.4 l/min 11.4 l/min
Fire size ≈ 2.8 m2
≈ 4.5 m2
≈ 7.32 m2
Fuel (on water
Preburn time 60 s 60 s 60 s
Fire performance
a) extinguishing time ≤ 60 s ≤ 60 s ≤ 60 s
b) total application
120 s 120 s 120 s
c) 25% reignition time ≥ 5 min ≥ 5 min ≥ 5 min
Test procedure
- Position the chamber holding the premix foam upwind of the fire with the nozzle horizontal at a height
of 1 m above the upper edge of the tray and at a distance that will ensure that the foam will fall into the
centre of the tray.
- Test the foam apparatus to ensure:
a) nozzle pressure; and
b) discharge rate.
- When testing performance level A foam, place 60 L of water and 60 L of fuel into a 2.8 m2 tray.
- When testing performance level B foam, place 100 L of water and 100 L of fuel into a 4.5 m2 tray.
- When testing performance level C foam, place 157 L of water and 157 L of fuel into a 7.32 m2 tray.
- Position the protective screen, if required.
- Test the foam apparatus to ensure a nozzle pressure of approximately 7 bar and a discharge rate of 11.4
- Record the air, kerosene, water and foam premix temperature and check it is in the correct range.
- Record the wind velocity and check it is in the correct range.
- Ignite fuel and allow 60 seconds preburn from full involvement.
Note 1. - full involvement shall be obtained in less than 30 seconds after the beginning of ignition
Note 2. - ignition method shall forbid putting solid or liquid substance into the kerosene, for
example ignition with a gas burner is acceptable.
- Apply foam continuously while maintaining the nozzle pressure and an application rate of 11.4 l/min for
120 seconds.
- Record extinction time.
- Place burn back pot in centre of fire tray.
- Ignite burn back pot 120 seconds after end of application of foam.
- Record when 25 per cent of the fuel area is re-involved with fire.
Firefighting performance requirements
For each performance level, a foam concentrate is acceptable:
a) if the time to extinguish the fire from the overall surface of the tray is equal or less than 60
seconds and;
b) the re-ignition of 25% of the tray surface is equal or longer than 5 minutes.
Note for testing authorities: At the 60 seconds time, minute flames (flickers) visible between the foam
blanket and the inner edge of the tray are acceptable:
a) if they don’t spread in a cumulative length exceeding 25% of the circumference of the inner
edge of the tray and;
b) they are totally extinguished during the second minute of foam application.
8.1.9 Operational considerations. The quality of foam produced by a vehicle system may be affected
by the characteristics of the local water supply. It is important to acquire an adequate clear water supply.
No corrosion inhibitors, freezing point depressants or other additives should be used in the water supply
without prior consultation with, and the approval of, the foam concentrate manufacturer.
8.1.10 Foam can be applied to fires in two distinct forms. Solid streams are used where range of
application is essential or where the stream may be deflected from a solid object to distribute it in the fire
area. Solid streams must be employed with care at an aircraft accident where survivors are evacuating the
aircraft and escape slides may be in use. Dispersed patterns may be employed to deliver foam at shorter
ranges to a fire area, combining greater coverage with the more effective surface application of the foam.
Dispersed patterns are particularly valuable in protecting fire fighters from radiated heat. Monitors are
directional control devices which deliver larger capacity streams from nozzles. Low level application
allows the operator to see the position of his monitor, therefore minimising the waste of agents. In some
vehicles standard water nozzles are employed to produce “fog foam”, mainly from side line deliveries.
While these nozzles are effective in achieving rapid knockdown they may not be pre-calibrated to
produce foams of the specified qualities and these may not have the degree of performance associated
with fully-aspirated foams that normally provide a longer duration and re-ignition (burn back) protection.
8.1.11 Equipment such as High Reach Extendable Turrets (HRET) and low level High Performance
Monitors can provide the operator with greater flexibility in directing the foam stream. HRET can be
defined as a device, permanently mounted with a power-operated boom or booms, designed to supply a
large-capacity, mobile, elevated water stream or other fire extinguishing agents, or both. The extendable
turret places the nozzle well forward and below the operator, thus eliminating foam overspray and
providing a clearer view of the effectiveness of agent application. The ability to position the nozzle nearer
to, or in alignment with the target allows more precise aiming, reduces disruption from wind and helps to
conserve agent.
8.1.12 RFF vehicles equipped with HRET may incorporate penetrating technology that provides the
vehicle operator the ability to deliver extinguishment agent through an adjustable nozzle or rigid probe in
and around the aircraft and into the passenger or cargo compartments. Such technology provides the
ability to pierce through the fuselage or aircraft components affords the operator greater flexibility when
it comes to the strategies and tactics of aircraft interior firefighting. The piercing action of the rigid tip
allows agent application to the seat of the fire that may be inaccessible to hand line operations such as in
the case of cargo aircraft, tail-equipped aircraft engines, and auxiliary power units (APUs).
8.1.13 Other suitable manual or hand held penetrating technologies may be include the following:
a) manual piercing or hand held penetrating nozzles, given a safe working platform and proper
protection, can deliver many of the same firefighting tactics and strategies described for HRET’s;
b) hand held Skin Penetrating Agent Applicator Tool (SPAAT) is one of a v ariety of manual
penetration tools available to Firefighters; and
c) ultra-high pressure water streams have been developed using a n arrow-gauge water stream to
“cut” a small hole through the aircraft skin to apply agent into the interior of an aircraft. The
ultra-high pressure water streams pierces the outer structure with high pressure water and
aggregate enabling an exterior attack on the involved structure. Once the outer structure is
penetrated, the ultra-high pressure mist into the thermal layer which cools the interior dropping
temperature from 800C to 100C in a matter of seconds. This technology allows the operator to
attack fire from a safe exterior position without the firefighter entering the interior of a structure.
8.1.14 The use of penetrating technology to suppress aircraft interior fires should be carefully evaluated
as there are concerns regarding its efficacy and safety, in particular to passengers. Wh ere provided,
adequate training including standard operating procedures should be provided to RFF personnel involved
in the use of such equipment.
8.2.1 Complementary agents do not generally have any substantial cooling effect on l iquids or
materials involved in fire. In a major fire situation extinguishment achieved by complementary agents
may well only be transient and danger of “flashback” or re-ignition may occur when foam is not available
to secure a fire. They are particularly effective on concealed fires (e.g. engine fires) in aircraft freight
holds and beneath wings, where foams may not penetrate and on running fuel fire situations, on which
foams are ineffective. They are known as complementary agents because while they may have the
capability of rapid fire suppression (when applied at a sufficient rate), it is generally necessary to apply a
principal agent simultaneously or at least before flashback can occur in order to achieve permanent
control. Considerably improved complementary agents have become available in recent years, and
constant studies are still being made in both the dry chemical and halocarbon fields.
8.2.2 Due regard must be made to the problems which may arise when large quantities of
complementary agents are discharged rapidly. A dense cloud of the agent may impede aircraft evacuation
or rescue operations by limiting the visibility and affecting the respiration of those exposed to the effects.
8.2.3 Replacement of water for foam production by complementary agents. Paragraph 2.3.1 defines
conditions in which water for foam production may be replaced by complementary agents. Paragraph
2.3.11 provides the substitution ratios for each of the complementary agents in these calculations.
8.2.4 Dry chemical powders. These are available in a number of formulations, each consisting of
finely divided chemical products which are combined with additives to improve their performance. The
dry chemical powders normally provided for aircraft RFF applications are not specifically designed or
intended for use on flammable metal fires, which require specialized agents (see 12.2.17). In aircraft RFF
operations dry chemical powders are normally of the “BC” type, indicating their effectiveness against
fires involving flammable liquids and those of an electrical origin. In addition, dry chemical powders
should comply with the specifications of the International Organization for Standardization (ISO 7202).
Operational applications are usually in one of the following ways:
a) They are effective against fires in inaccessible locations and for running fuel fires, where foams
are largely ineffective; and
b) at a high rate of application in the role of a principal agent, which may well be an acceptable
practice at airports with extreme climatic conditions. Details of the equivalents for the substitution of dry
chemical for water for foam production may be found in 2.3.11. In addition to the problems described in
8.2.2, when large quantities of dry chemical powders are discharged rapidly limited visibility will also
reduce the effective placement of foam in a dual-agent attack to those areas where the dry chemical
powder has achieved “knockdown”.
8.2.5 It should be noted that dry chemical powder can be highly corrosive when applied to a metal
surfaces and electrical componentry.
8.2.6 Halogenated hydrocarbons In line with the 1987 Montreal Protocol on Substances that Deplete
the Ozone layer, the production of halon 1301, 1211 and 2402 has been banned since 1994. The USA Environmental Protection Agency has evaluated substitutes for the ozone-depleting
chemicals that are being phased out as part of its Significant New Alternatives Policy (SNAP). Halons are therefore, no l onger discussed in this document but may still be found in some
aircraft fixed installations.
8.2.7 Carbon dioxide (CO2). Carbon dioxide is traditionally used in aircraft RFF operations in two ways:
a) as a means of rapid knockdown for small fires or as a flooding agent in reaching concealed fires in
areas inaccessible to foam. It should not be used on fires involving flammable metals; and
b) CO2, is most effective at high rates of delivery, achieved through “low pressure’’ systems.
8.2.8 CO2 gas is only 1.5 t imes the weight of air and is therefore seriously affected in outdoor
applications by the wind and the convection currents associated with a fire.
8.2.9 Carbon dioxide should comply with the specifications of the International Organization for
Standardization (IS0 5923).
8.3.1 Paragraphs 2.6.1 and 2.6.2 propose that a reserve supply of foam concentrate and complementary
agents should be maintained on the airport, equivalent to 200 per cent and 100 per cent respectively of the
quantity identified in Table 2-3. Paragraph 9.3.1 suggests that this reserve of agents shall be stored in the
fire station(s). The conditions of storage are frequently specified by manufacturers or suppliers including
the intended shelf lives but in general terms the aim should be:
a) Foam concentrate. Avoid extremes of temperature. Use stocks in order of receipt. Keep
concentrate in manufacturers’ containers or a suitable on-site bulk storage facility until required for use
where applicable. Where either foam concentrate drums, bladders or large above ground tanks are used
they should be suitably contained in case of spill. Where more than one type of foam concentrate is in use
foam concentrate containers should be suitably marked.
b) Dry chemical powders. Use stocks in order of receipt. Replace and seal the lids of any partlyused containers ensuring the powder is kept dry and free from contaminates.
Chapter 9
In the past there has been a tendency to provide only the minimum level of accommodation for the RFF
vehicles, little more than garage space, with equally sparse facilities for their crews. Experience has
shown that these standards of provision are not conducive to operational efficiency in terms of either the
vehicles or the personnel who are to operate them. A study of the operational requirement has emphasized
the importance of correctly sited fire stations, supported by efficient communications systems, as a
prerequisite for the immediate and effective response by RFF services. Properly constructed and
appointed fire stations can make an important contribution to the morale and efficiency of these services.
Further, response times are likely to be reduced by undertaking in the planning stage a study of traffic
patterns, procedures, previous accident experience and the probable response paths of RFF vehicles. The
following paragraphs discuss some of the design and site factors, which are considered to be significant in
this context.
9.2.1 The location of the airport fire station is a primary factor in ensuring that recommended response
times can be achieved; that is, two minutes and not more than three minutes to the end of each runway in
optimum conditions of visibility and surface conditions. Other considerations, such as the need to deal
with structural fires or to undertake other duties, are of secondary importance and must be subordinated to
the primary requirement. At some airports it may be necessary to consider the provision of more than one
fire station, each located strategically in relation to the runway pattern. Aircraft accident studies have
shown that a large proportion of accidents and incidents occur on, or close to the runway/ Accidents in or
beyond runway end safety area locations often produce the more serious consequences in terms of fire
situations and casualties.
9.2.2 Where more than one fire station is provided, each may contain one or more vehicles from the
total fleet. This divides the over-all quantity of extinguishing agents available into units capable of
initiating immediate fire suppression activities on arrival at the accident site. It is usual, with more than
one fire station, to designate one as the master (or main) station, providing the master watchroom, and the
other stations as satellites.
9.2.3 RFF vehicles should have direct and safe access to the movement area that caters to the size of the
fire vehicle/s being deployed and be capable of reaching the extremities of this area within the
recommended response time. When a new station is to be provided, vehicle response trials should be run
to determine the optimum location in relation to potential accident sites. Due consideration should be
given to the future development plans of the airport as these may increase the distances over which
responses must be made.
9.2.4 All fire stations should be located so that access to the runway area is direct, requiring the RFF
vehicles to negotiate the minimum number of turns. Additionally, the location should ensure that the
vehicle running distances are as short as possible in relation to the runway(s) the fire station is intended
primarily to serve. The ability to reach standby positions without delay is important. The placement of the
watchroom, if provided, in each fire station should ensure the widest possible view of the movement area
including aircraft approaches and departures. The installation of Closed Circuit Television (CCTV)
cameras may be considered in watchrooms to enhance their view.
9.3.1 Each airport fire station should be a self-contained RFF service, with appropriate facilities for the
garaging of vehicles, accommodation of crew members and the provision of operational services that are
necessary to ensure their continuous ability for effective and immediate response in an emergency.
Facilities for the major maintenance of fire vehicles need not be included provided that these exist
elsewhere, on, or in close proximity to, the airport. The range and extent of facilities may vary between
those necessary in the main fire station and those appropriate to a satellite station, but in general should
a) adequate accommodation for the garaging of fire vehicles, which may include other specialist vehicles
such as aerial vehicles or water rescue craft and for the conduct of in-service (minor) maintenance;
b) domestic and administrative facilities for the personnel required to operate these fire vehicles;
c) communications and alarm systems which will ensure the immediate and effective deployment of fire
vehicles in any emergency; and
d) appropriate storage and technical support facilities as ar e necessary to protect and maintain the
equipment and reserves of extinguishing agents held at each fire station or nearby facility.
9.3.2 In meeting these basic requirements it is desirable to consider not only design features, but also
constructional details since experience has shown that inadequacies in either respect can add to the time
taken to receive a call and respond to an emergency, as well as introducing problems in the day-to-day
use of a fire station. Some features, which are considered to be important in ensuring the functional
efficiency of fire stations, are outlined below.
9.3.3 Vehicle housing. This is usually provided in a series of bays, providing sufficient space for each
vehicle and a surrounding area in which personnel can work conveniently. As a general rule a minimum
clearance of 1.2 m should be provided around each fire vehicle. The minimum clearance area should
consider and allow for the way in which fire vehicle cabin doors and locker doors open and rear mounted
fire vehicle engine cowlings that may open outwards for engine access. The dimensions of each bay,
including the working area, should have regard not only to the vehicles currently in service, but also to
future models which may be acquired to meet increases in the airport RFF service category. The floors of
the fire vehicle bays must provide for any increase in fire vehicle weights, lengths and or widths which
new equipment may impose. The surface finish of floors should be resistant to oil, grease, foam
concentrates, etc. and be easily cleaned. This can be achieved by having a non-slip tiled surface or a hard
top sealed concrete finish. The floors should slope down towards the doors, where a transverse drain, with
heavy gauge cover, can receive surface water from the bays and the forecourt. The doors to the bays must
be of the quick action type and of robust design, incorporating, where possible, windows to improve the
natural lighting within the bays. Bay doors may be manually operated or equipped with automatic
opening devices, which may include remote operation from the watchroom or in association with the
operation of the station alarm bells or alerts. Provision should be made for manual operation in the event
of the malfunctioning of any automatic device. The size of the door opening must allow adequate
clearance for the vehicles.
9.3.4 The forecourt should be of sufficient size to permit fire vehicles to manoeuvre and should be
provided with floodlighting for night-time activities. A slope to the bay entrance drain may accommodate
fire vehicle cleaning and other surface water. Within the bays there must be adequate lighting and, in
appropriate cases, heating, to maintain a t emperature of at least 13°C. In States where high ambient
temperatures are prevalent some form of climate control should be considered. Electrical systems of
appropriate design will also be required where fire vehicles are fitted with engine heaters, battery
charging devices or other protective equipment. In some fire stations installations have been provided to
convey exhaust fumes from each vehicle to the external atmosphere, thus avoiding contamination within
the vehicle bays during periodic engine runs or rapid deployment of fire vehicles from the bays. All
connections of services to fire vehicles must be designed to achieve immediate and safe disconnections
without delaying the response of fire vehicles to an emergency.
9.3.5 Domestic and administrative requirements. Domestic facilities should include accommodation
for personnel, consisting of a locker room, mess room, washroom, drying room, with consideration to
administrative rooms (offices), training facilities, and fitness facilities. The locker room should provide
sufficient space for the personnel to change and store their clothing as w ell as other personal items
Seating should also be provided. The mess room should be fitted with chairs and tables and provide
facilities for the preparation of meals and food storage. P ower to any cooking facilities including gas
supplies should be automatically turned off on activation of the alerting systems. A drying room should
allow personnel to dry wet clothing quickly. The extent of administrative accommodation will depend on
the range of technical control and administration duties to be performed in a particular fire station. The
lesson room should provide tables (desks) and chairs, a magnetic whiteboard (or blackboard), as well as
appropriate library facilities relevant to the functionality. Consideration may be given to electronic
resources such as data viewers, screens and computers If facilities for fitness equipment is provided the
area should be well ventilated. Consideration should be given to providing fitness equipment conducive to
the development and maintenance of anaerobic and aerobic fitness.
Note: Local Building Codes and Occupational Health & Safety Legislation, or similar, may take
9.3.6 Support requirements. These are facilities which can contribute to the efficiency of RFF services
by preserving equipment and extinguishing media, ensuring its prompt availability and in providing test,
inspection, maintenance and training opportunities. Storage space will be required for fire hoses, with
suitable racking and ventilation and may include hose repair equipment and the hose record board. Drying
facilities for fire hose will be required in certain climates and may be in the form of a drying tower or rack
or an enclosed heating installation. Storage will be required for extinguishing media, such as foam
concentrate and complimentary and particular attention must be given to ensuring that temperatures are
kept within the levels specified for each agent. Suitable facilities for containment should also be provided
for stored foam concentrates in the event of spillage or leak. Advice in respect of appropriate storage
temperatures can be obtained from suppliers. A general workshop, where maintenance and repairs can be
performed, will make a valuable contribution towards the efficient and economical operation of the
service. Ideally, a fire station should be provided with a hydrant capable of delivering water at an
appropriate rate to minimize replenishment times. Appropriate facilities for the testing of fire hose and
vehicles, for the rapid replenishment of vehicles after use and for training purposes should be readily
available. Pumping facilities for transferring foam concentrates from containers to fire vehicles
expeditiously is also desirable. Facilities for the expeditious replenishment of complimentary agent for
fire vehicles are also desirable.
9.3.7 Watchrooms. In all fire stations there must be a central point for the reception of emergency calls,
from which fire vehicles may be dispatched for responses of all kinds and resources can be mobilized and
directed. This should be in the form of a watchroom, which should be sited in a position which overlooks
as much of the movement area as possible. It may be necessary to elevate the watchroom to provide the
maximum degree of surveillance. Special provisions may be necessary to soundproof the watchroom and
to deal with the consequent ventilation and climate control problems which sound proofing may create.
Tinted windows or sunshades may be required in some locations to minimize the effects of direct or
indirect exposure to the sun and other external elements such as concrete surfaces and climatic conditions.
Provision will be necessary to vary the intensity of watchroom lighting to permit external vision when the
watchroom is in use at night. The communications facilities required in watchrooms are discussed in 4.2,
where a d istinction is made between the requirements for the master watchroom and watchrooms in
satellite fire stations.
9.3.8 General aspects. In addition to the particular requirements considered above there are a number of
general items, applicable to all fire stations, which can contribute to their efficient operation and the wellbeing of personnel. Except where it may be necessary to elevate a watchroom for operational reasons, it is
desirable to provide all accommodation on one level. It is important, in preparing the original plan, to
make some provision for expansion to correspond with the growth of the airport. If the plan meets this
situation by providing the domestic accommodation to one side of the vehicle bays, an additional benefit
will be the exclusion of exhaust fumes from this accommodation when the vehicles are run up. F ire
vehicle bays with access from the rear will aid the movement of fire vehicles by providing a drivethrough facility. The parking of fire vehicles should be such that the failure of any one should not prevent
others from making an immediate response. The high noise levels to which some fire stations may be
exposed may require some measure of sound proofing in the domestic accommodation in addition to the
watchroom. Additional attention to ventilation and climate control may also become necessary in
ensuring the comfort and efficiency of the occupants. All fire stations should be connected to a secondary
(standby) electrical power supply to ensure the continuous availability of essential equipment and
Chapter 10
10.1.1 The total number of personnel, whether regular or auxiliary, required to deploy and operate the
RFF service should be determined so as to meet the following criteria:
a) the RFF vehicles should be staffed so as to ensure their ability to discharge at their
maximum designed capability extinguishing agents, principal or complementary, both
effectively and simultaneously, at an aircraft accident/incident; and
b) any control room or communications facility operated by, and serving, the RFF service
can continue to provide this service until alternative arrangements to undertake this
function are initiated by the airport emergency plan.
10.1.2 In addition, in determining the minimum number of RFF personnel required, a task resource
analysis (see 10.5) should be completed and the level of staffing documented in the Aerodromes Manual.
During flight operations sufficient trained and competent personnel should be designated to be readily
available to ride the RFF vehicles and to operate the equipment at maximum capacity. These personnel
should be deployed in a way that ensures that minimum response times can be achieved and that
continuous agent application at the appropriate rate can be fully maintained. Consideration should also be
given for personnel to use hand lines, ladders and other RFF equipment normally associated with aircraft
RFF operations. The responding vehicles should provide at least the minimum discharge rates specified in
the tables. The remainder of the vehicles may be staffed by personnel not necessarily employed in close
proximity to their vehicles but able to respond when the alarm sounds so as to reach the scene of the
accident no more than one minute after the first responding vehicle(s) so as to provide continuous foam
10.1.3 All personnel (regular and/or auxiliary) provided for aircraft RFF duties, should be fully trained
in the performance of their duties and under the direction of a d esignated chief of emergency crew.
Selected personnel should receive special driving instruction in cross-country and soft-ground techniques.
(See also Chapter 14.) Where the response area of the RFF service includes water, swamps or other
difficult terrain and suitable rescue equipment and procedures are provided for these locations, the
personnel designated to respond should be adequately trained and exercised to provide a prompt and
effective service.
10.2.1 Personnel recruited for RFF services should be resolute, possess initiative, competent to form an
intelligent assessment of a fire situation and, above all, must be well trained and fully qualified. Ideally,
every individual should be capable of sizing up changing circumstances at an aircraft accident and taking
the necessary action without detailed supervision. Where the available staff displays limited capacity to
use initiative, the deficiency must be made good by the provision of additional supervisory staff of a
superior grade who will be responsible for exercising control of their crews. The officer responsible for
the organization and training of the RFF service should be an experienced, qualified and competent leader.
The capabilities of this officer should have been proved wherever practicable by training at a recognized
RFF service training establishment and measures should be taken to ensure the officer’s continuing
10.2.2 Due regard should be given to the arduous nature of RFF duties and personnel selected for this
work should be free from any physical disability which might limit their performance or which might be
aggravated by a high level of exertion. Particular care should be taken in selecting personnel as wearers of
respiratory protection equipment, where psychological factors are significant, in addition to physical
suitability. (See also 6.2.)
10.3.1 Full-time RFF personnel, where provided, may be assigned other duties, provided that the
performance of these duties does not impair their ability to respond immediately to an emergency, or
restrict their performance of essential training, inspections and equipment maintenance. These subsidiary
duties could include fire prevention inspections, fire guard duties or other functions for which their
equipment and training make them particularly suitable. Arrangements must exist for their immediate
mobilization in the event of an emergency and, wherever possible, a crew assigned to subsidiary duties
should travel in the RFF vehicle to which they are appointed, maintaining constant contact with the fire
station by radio.
10.3.2 The airport emergency plan should provide for the alerting of all personnel who may contribute
to the effective performance of post-accident operations in a support role to the RFF crews. (See 4.4.)
10.4.1 As the nature of RFF operations involves periods of intense physical activity, all RFF personnel
have to possess a minimum level of physical fitness and medical fitness to be able to perform the tasks
associated with these operations. Physical fitness and medical fitness is often described as the overall
physical condition of the body, which can range from peak condition for performance at one end of the
spectrum to extreme illness or injury at the other. The key fitness components for RFF are generally
aerobic fitness, anaerobic fitness, flexibility and medical fitness. Optimum physical fitness and medical
fitness for RFF personnel would mean that a fire fighter is able to carry out RFF activities safely,
successfully and without undue fatigue.
10.4.2 Aerobic fitness is the ability to continue to exercise for prolonged periods of time at low to
moderate or high intensity. This is typically what limits the ability to continue to run, cycle or swim for
more than a few minutes and is dependent upon the body’s heart, lungs and blood to get the oxygen to the
muscles (VO2) providing the sustained energy needed to maintain prolonged exercise. Typical aerobic
activities include walking, jogging, cycling, rope skipping, stair climbing, swimming, or any other
endurance activities.
10.4.3 Anaerobic fitness works differently to aerobic fitness. It is an activity that requires high levels
of energy and is done for only a few seconds or minutes at a high level of intensity. The term anaerobic
means “without oxygen”. Participation in anaerobic activities leads to anaerobic fitness, which may be
defined as higher levels of muscular strength, speed and power. Examples of anaerobic activities include
heavy weight lifting, running up several flights of stairs, sprinting, power swimming, or any other rapid
burst of hard exercises.
10.4.4 Flexibility refers to the ability to move the limbs and joints into specific positions at the end of
their normal range of movement. Flexibility is important as it will allow the body to work in cramped
positions without unduly stressing the muscles, tendons and ligaments and may reduce the risk of injury.
Flexibility is best developed using slow controlled stretching exercises.
10.4.5 Physical fitness assessment should be catered to the components mentioned above. RFF services
should develop various types of tests to ensure that these components are tested to determine if the RFF
personnel has the required physical fitness level for the job. The physical fitness assessment should also
be conducted at least once a year. The physical fitness assessments should be conducted for preemployment entry as a f ire fighter as well as ongoing physical fitness assessments for existing staff to
ensure that RFF personnel are maintaining their level of physical fitness.
10.4.6 Medical fitness assessments specific to RFF Services should be developed. The medical fitness
assessments should be conducted for pre-employment entry as a fire fighter as well as ongoing medical
fitness assessments for existing staff. The frequency of medical fitness assessments should be determined
by each agency. The medical fitness assessments should be used to identify any underlying medical
conditions, which may pose a risk to the individual fire fighter, during physically demanding activities.
10.5.1 Introduction. The following guidance describes the stages that should be considered by an airport
operator in carrying out a Task and Resource Analysis (TRA) to establish justification as to the minimum
number of qualified/competent personnel required to deliver an effective airport RFF Service RFFS to
deal with an aircraft incident/accident. If an airport operator requires the RFFS to attend structural
incidents and road traffic accidents in addition to aircraft incidents/accidents due regard must be given to
the inability of not meeting required response times and robust procedures should be introduced
10.5.2 Purpose. By using a qualitative risk based approach, which focuses upon probable and credible
worst case scenarios a task and resource analysis seeks to identify the minimum number of personnel
required to undertake identified tasks in real time before supporting external services are able to
effectively assist RFFS. Consideration should also be given to the types of aircraft using the aerodrome, vehicle(s) and
the need for personnel to use self-contained breathing apparatus, handlines, ladders and other RFF
equipment provided at the aerodrome associated with aircraft RFF operations. The importance of an
agreed framework for incident command should form a primary part of the considerations. However, it
must be achieved within the Safe Person Concept relative to each member state.
10.5.3 General Information. The airport operator should first establish the minimum requirements
including: minimum number of RFFS vehicles and equipment required for the delivery of the
extinguishing agents at the required discharge rate for the specified RFF category of the airport.
10.5.4 Task Analysis/Risk Assessment. A task analysis should primarily consist of a qualitative analysis
of the RFFS response to a realistic, worst case, aircraft accident scenario. T he purpose should be to
review the current and future staffing levels of the RFFS deployed at the aerodrome. The qualitative
analysis could be supported by a quantitative risk assessment to estimate the reduction in risk. This risk
assessment could be related to the reduction in risk to passengers and aircrew from deploying additional
personnel. One of the most important elements is to assess the impact of any critical tasks or pinch points
identified by the qualitative analysis.
10.5.5 Qualitative Approach. The task analysis including a workload assessment aims to identify the
effectiveness of the current staffing level and to identify the level of improvement resulting from
additional staffing. A credible worst-case accident scenario should be analyzed to assess the relative
effectiveness of at least two levels of RFFS staffing.
10.5.6 Quantitative Risk Assessment. This will generally be used to support the conclusions of the
qualitative analysis by examining the risks to passengers and aircrew from aircraft accidents at the airport.
This comparison of the risk allows the benefit of employing additional RFFS staff to be evaluated in
terms of the risk reduction in passengers and aircrew lives saved. This could be expressed in monetary
terms and may be compared with additional costs incurred in employing the additional personnel.
However, this is of little, if any, value in determining minimum levels of personnel.
10.5.7 Task Analysis. The following items will assist in determining the basic contents of an analysis:
a) Description of aerodrome(s) including the number of runways
b) Promulgated RFFS Categories (Aeronautical Information Publication)
c) Response Time Criteria (Area, times & number of Fire Stations)
d) Current & future types of aircraft movements
e) Operational Hours
f) Current RFFS Structure & Establishment
g) Current Level of Personnel
h) Level of Supervision for each operational crew
i) RFFS Qualifications/Competence (Training Programme & Facilities)
j) Extraneous Duties (To include Domestic & First Aid Response)
k) Communications & RFFS Alerting system including Extraneous Duties
l) Appliances & Extinguishing Agents available
m) Specialist Equipment- Fast Rescue Craft, Hovercraft, Water Carrier, Hose Layer, Extending
Boom Technology
n) First Aid- Role Responsibility
o) Medical Facilities- Role Responsibility
p) Pre-Determined Attendance: Local Authority Services- Police, Fire & Ambulance etc.
q) Incident Task Analysis. (Feasible Worst Case Scenarios) (Workload Assessment) (Human
Performance/Factors). To include: Mobilization, Deployment to Scene, Scene Management,
Firefighting, Suppression & Extinguishment, Application of Complementary Agent(s), Post Fire
Security/Control, Personnel Protective Equipment, Rescue Team(s), Aircraft Evacuation &
Extinguishing Agent Replenishment. Note: The aim is to identify any Pinch Points within the
current workload and proposed workload
r) Appraisal of existing RFFS provision
s) Future requirements. Aerodrome development & expansion
t) Enclosures could include: Airport Maps, Event Trees to explain tasks & functions conducted by
the RFFS etc.)
u) Airport Emergency Plan and Procedures
Note.- The above list is not exhaustive and should only act as a guide. Phase 1
The airport operator must be clear as to the aims and objectives for the RFF services, and the required
tasks that personnel are expected to carry out.
To maintain a dedicated RFFS of qualified and competent fire and rescue personnel equipped with
vehicles and specialist equipment to make an immediate response to an aircraft incident /accident on or in
the immediate vicinity of the airport within the specified response time criteria.
Principal Objective of the RFFS
The principal objective of an RFFS is to save lives in the event of an aircraft accident or incident. For this
reason, the provision of means of dealing with an aircraft accident or incident occurring at, or in the
immediate vicinity of, an aerodrome assumes primary importance because it is within this area that there
are the greatest opportunities of saving lives. This must assume at all times the possibility of, and need for,
extinguishing a fire that may occur either immediately following an aircraft accident or incident, or at any
time during rescue operations.
a) Meet the required response time
b) Extinguish an external fire
c) Protect escape slides and exit routes
d) Assist in the self-evacuation of the aircraft
e) Create a survivable situation
f) Rescue trapped personnel
g) Maintain post fire security/control
h) Preserve evidence
Note.- The above list is not exhaustive and all relevant tasks must be identified before moving to Phase 2.
Each task/mission may include numerous functional activities/actions. Phase 2
Identify a selection of representative realistic, feasible accidents that may occur at the airport, this can be
achieved by a statistical analysis of previous accidents on airports and by analysing data from both
International National & Local sources.
Note - All incidents should involve fire to represent a feasible worst-case scenario that would require an
RFFS response.
a) Aircraft engine failure on takeoff with a fire (aborted takeoff).
b) Aircraft aborts and overruns into the Runway End Safety Area (RESA) with fire on takeoff.
c) Aircraft into aircraft with fire (collision)
d) Aircraft into structure- terminal building(s) with a fire.
e) Aircraft leaves the runway on landing into the runway strip (full emergency evacuation).
f) Internal aircraft fire (Cabin fire, baggage hold, cargo hold, avionics bay(s) Phase 3
Identify the types of aircraft commonly in use at the airport; this is important as the type of aircraft and its
configuration has a direct bearing on t he resources required in meeting Phase 1 a bove, it may be
necessary to group the aircraft types in relation to common aircraft configurations for ease of analysis or
identify precise aircraft type that may have a unique configuration.
a) Long wide-bodied aircraft with multiple passenger decks and multiple aisles.
b) Long narrow-bodied aircraft with single aisle, high passenger density.
c) Short narrow-bodied aircraft with single aisle, high passenger density.
A representative aircraft type can then be chosen:
a) Airbus A 380
b) Airbus A 340
c) Airbus A 320
d) Boeing 747
e) Boeing 777
f) Boeing 757
g) Boeing 737 Phase 4
Every airport is unique in that the location, environment, runway and taxiway configuration, aircraft
movements, airport infrastructure and boundary etc. may present specific additional risks.
In order that the feasible accident scenario can be modeled/simulated a major factor is to consider the
probable location for the most realistic accident type that may occur.
To confirm the location of the scenario it is important that a facilitator using a team of experienced fire
service personnel, who have knowledge of the airport and the locations in which an aircraft accident is
likely to occur evaluate the scenario.
The role of the facilitator is to seek agreement in identifying the credible worst-case locations and by
using a scoring system place these locations in order of relevance & priority. The team must determine
why the locations have been identified and provide a rationale for each location. One methodology would
be to award a weighted number, to each location, the total numbers can then be added up in relation to
each identified location.
The team may have identified that the following contributed to a worst-case location:
a) Response Time
b) Route to the accident site (on or off paved surfaces)
c) Terrain
d) Crossing procedures for active runway(s)
e) Aircraft congestion on route (taxiways)
f) Surface conditions
g) Communications
h) Supplementary water supplies
i) Adverse weather conditions- Low visibility Procedures
j) Daylight or darkness
An additional time delay for any of the factors listed above should be estimated and recorded & the
location with the highest additional response time could be identified with the worst-case location.
It is important to note that the location of an accident could have an impact on the resources and tasks that
will be required to be carried out by ARFF personnel.
From the above analysis a location or a number of locations could be identified, in agreement with the
airport operator and the TRA facilitator.
1. Taxiway Bravo: Runway Holding Position Bravo 1- leading onto Runway 06L.
2. Runway 13- Runway & Service Road Crossing Point (Grid Reference A5).
3. Runway 28 Overrun RESA
4. Runway 24 Undershoot RESA
5. Aircraft Stand A33 (Alpha Apron).
6. Grid Reference A6 (Runway 06 Localiser Road)
7. Taxiway Alpha: Intermediate Taxi-Holding Position- A3
8. Aircraft Stand A5 (On taxilane). Phase 5
This Phase combines the accident types to be examined as d escribed in Phase 2, w ith the aircraft
identified in Phase 3 and the locations as described in Phase 4. The accident types should be correlated
with the possible location, in some cases this could be in more than one location on an airport, for which a
task and resource analysis needs to be carried out.
The above information is to be built into a complete accident scenario that can be analyzed by
experienced supervisors & firefighters for the task and resource analysis in Phase 6.
Scenario No 1
Accident Type: Aircraft Overrun into Runway 06 RESA- Phase 2.
Aircraft Identified: Boeing 747-400- Phase 3.
Accident Location: Runway 06 RESA- Phase 4.
The Boeing 747 400 is a wide bodied multi deck aircraft, its typical seating configuration can be 340
Economy, 23 Business, and 18 First Class passengers on the lower deck. On the upper deck provision is
made for a further 32 Business Class passengers, giving an estimated aircraft seating capacity of 413
excluding the crew. The aircraft typically has 4 exits on both sides of the lower deck and one each side of
the upper deck.
During the take-off phase the aircraft suffers a fire in the number 3 engine and the pilot decides to abort
the take-off. During this phase the fire develops rapidly and impinges on the fuselage. The aircraft
overruns the runway and comes to rest in the RESA. F light Deck Crew orders an evacuation.
The RFF services are informed by ATC and respond accordingly and the aerodrome emergency
procedures are activated. Phase 6
By using a T RA facilitator with teams of experienced airport supervisors & firefighters the accident
scenario(s) developed in Phase 5 are subject to a task and resource analysis carried out in a se ries of
tabletop exercises/simulations.
When carrying out a task and resource analysis the principal objective should be to identify in real time
and in sequential order the minimum number of RFF personnel required at any one time to achieve the
a) Receive the message and dispatch the RFF service (the dispatcher may have to respond as part of
the minimum riding strength)
b) Respond utilizing communications, taking appropriate route and achieving the defined response
c) Position appliances/vehicles in optimum positions and operate RFF appliances effectively
d) Use extinguishing agents and equipment accordingly
e) Instigate Incident Command Structure- Supervisors
f) Assist in passenger and crew self-evacuation
g) Access aircraft to carry out specific tasks if required, e.g. firefighting, rescue
h) Support and sustain the deployment of firefighting and rescue equipment
i) Support and sustain the delivery of supplementary water supplies
j) Need to replenish foam supplies
The task and resource analysis should identify the optimum time when additional resources will be
available to support/augment and/or replace resources supplied by RFF services (Aerodrome Emergency
Plan). It can also provide vital evidence to support the level of RFF vehicles and equipment.
In order to start a task and resource analysis the required category of the airport must be identified as
required by the regulatory authority, this should confirm the minimum number of vehicles, and the
minimum extinguishing agent requirements and discharge rates, this should also determine the minimum
number of personnel required to functionally operate the vehicles & equipment.
The results of the analysis should be recorded in a table or spreadsheet format and should be laid out in a
method that ensures that the following is recorded:
a) Receipt of message and dispatch of the RFF response
b) Time: This starts from the initial receipt of call and the time line continues in minutes & seconds
until additional external resources arrive or the facilitator decides an end time
c) List of assessed tasks functions and priorities are achieved
d) The resources (personnel, vehicles and equipment) required for each task is defined
e) Comments to enable team members to record their findings
f) Identified Pinch points Working Example of a Qualitative Task Resource Analysis- Scenario 1.
Key to working example:
• Major Foam Tenders are identified as MFT A, B, C & D.
• Minimum numbers of personnel riding the MFTs are identified as: A1, A2, B1, B2 etc. See Table
Major Foam Tenders:
• 4 MFTs carrying 11,00 Litres with a total water capacity of 44,000 Litres: (A, B, C & D)
• Minimum number of RFFS personnel: Total 14
• Watch Commander: 1= A1
• Crew Commanders: 3= B1, C1 & D1
• Total- 10.
• A2 & A3.
• B2 & B3.
• C2, C3, & C4.
• D2, D3, & D4.
Table 1: Minimum numbers of appliances/vehicles & personnel riding the MFTs
1. For this example the RFFS is deployed from a single fire station at an airport with a single runway,
designated 06-24.
2. The TRA should ensure that the tasks could be conducted within the Safe Person Concept relative to
each member state.
3. Time has been defined in minutes and seconds.
4. For this TRA the dispatcher is outside of the minimum number of ARFF personnel.
Stated objectives for the RFFS:
a) Instigate aerodrome emergency plan
b) Respond within the required response time
c) Select appropriate route & communications
g) Position appliances in optimum positions and operate effectively
h) Instigate Incident Command System
d) Suppress/extinguish any fires
e) Assist with self-evacuation of the aircraft
f) If appropriate extinguish any internal fire
g) If required ventilate aircraft to create survivable conditions
h) Maintain post fire control of the critical area
i) Preserve evidence
Table 2
Task and Resource Analysis
00.00 Call received from ATC as aircraft
accident runway 06 R ESA. Boeing
Dispatcher Achieved
00.00 ARFF personnel mobilized by
Dispatcher Achieved
00.15 Call made to operate the airport
emergency plan.
rations Unit.
Achieved- ATC
00.30 Personnel donning in appropriate
Minimum riding
00.40 Route selected & all appliances
mobile en route to 06 RESA.
MFTs A, B, C, & D.
AchievedSupervisors &
00.50 Supervisor(s) utilize appropriate
communications (RTF): Discreet
frequency, ATC, Local Authority
Supervisor(s) Achieved
Note: Aircraft may
have already
instigated evacuation
(Air Crew)
All appliances in position:
Priority identified by Supervisor(s)
to extinguish ground pool fire and
fire in number 3 e ngine that is
impinging on fuselage.
A1 instigates ICS
Create and maintain survivable
conditions for the passengers to
reach a place of safety.
Complementary agent required.
D1 is Supervisor.
D2 is Pump Operator
Breathing Apparatus Entry Control
Officer (BAECO).
Supervisors &
MFTs A, B, C & D.
A1 Supervisor.
B1 Supervisor.
C1 Supervisor
D1 Supervisor
A2 A3
B1 B2 B3
C1 C2
C3 D1 D2 D3
deploy, use
complementary agent
donned in RPE.
A, B & C deploy
All external fires extinguished.
Assist with self-evacuation, and
maintain survivable conditions for
the passengers to reach a place of
MFTs A, B, C, & D.
All Crewmembers.
B1 A2 A3 B2 B3
Achieved: Hand lines
deployed accordingly
03.20 Crew prepares to enter aircraft in
D1 D3 & D2 (Pump)
D1 D3 Briefed by
03.20 Crew prepares appropriate entry
point and hand line.
C1 C2 C3 C4
Achieved by use of:
Note: MFT A maintains post fire
A2 A3
03.55 Crew enters aircraft in RPE with
hand line. (BAECO).
Ladder made safe for internal crew.
Crews assist with hand line for BA
entry team
D1 D3.
B2 B3
04.15 Following self-evacuation of
aircraft provide assistance with
mustering passengers and crew to
place of safety.
C1 C2 C3. Achieved. Assistance
provided by aircraft
crew and additional
responders from
airport in accordance
with the emergency
04.15 A2 remains as Mo nitor/Turret
operator, and provides escape route
MFT A Achieved
04.30 Supervisor A1 liaises with ATC,
Rendezvous Point Officer &
arriving emergency services to
ensure appropriate resources are
brought forward to the accident
A1 Achieved
04.50 Supervisor A1 instructs Airside
Operations to assist in containing
exiting passengers and crew and
obtaining a head count of survivors.
A1 Achieved
04.55 D1 reports 20 s urvivors still on
board aircraft require medical aid
and assistance. There is no smoke in
cabin or flight deck areas and
survivors are having no di fficult
with breathing.
D1 A1 Achieved
05.05 External emergency services are
brought forward to the accident site
with additional equipment to
support the removal of the
remaining survivors and to transport
the survivors to the appropriate
safety zone.
A1 & e xternal
• Police
• Fire
• Ambulance
• Medical
• Etc
Additional Points
Note 1: At this point the airport
emergency plan is fully instigated
and the supporting services can
relieve D1 D3, provide
supplementary water if required
from the nearest hydrant or
emergency water supply, assist in
the deployment of specialist fire
ground equipment and if required
support the teams that are engaged
in removing the survivors to a place
of safety.
Note 2: The facilitator may decide
to terminate the analysis at this
point or continue with the exercise
to evaluate specific elements of the
emergency plan. e.g. Preservation of
a) It can be seen that ten firefighters and four supervisors including the officer in charge are required
to achieve the above supported by four Major Foam Tenders.
b) The time line can be further verified by the use of practical exercises & individual analysis to
establish if the times are realistic and achievable for each task and function.
c) Each of the above tasks can be sub-divided into individual functions associated with the specific
task performed at a particular time.
a) How long does it take to don protective clothing?
b) How long does it take to don self-contained breathing apparatus?
c) How long does it take to slip and pitch a ladder
d) How long does it take to open an aircraft door from the head of a ladder? (If required).
e) How long does it take to deploy one, two three (etc.) lengths of delivery hose?
f) How long does it take to carry any item of rescue equipment over a specified distance and get to
Table 3 RFFS Activities
Time Line Assessment for Personnel: Firefighters and Supervisors
This Table gives an indication of the time line from the above analysis and can be utilized to verify an
individual task, function or identify “Pinch Points” ensuring each task is achievable effectively within the
time line.
Task A1 A2 A3 B1 B2 B3 C1 C2 C3 C4 D1 D2 D3 D4
00.40 A1 A2 A3 B1 B2 B3 C1 C2 C3 C4 D1 D2 D3 D4
02.00 A1 B1 C1 D1
02.15 A2 A3 B1 B2 B3 C1 C2 C3 D1 D2 D3 D4
03.20 A2 A3 B1 B2 B3 C1 C2 C3 C4 D1 D2 D3
03.20 A2 A3
03.55 B2 B3 C4 D1 D3
04.15 C1 C2 C3
04.30 A1
04.50 A1
04.55 A1 D1
05.05 A1
From the above Table it can be seen that a potential Pinch Point exists with Firefighters A2 & A3.
However, the tasks that they are performing are achievable as A2 & A3 are already utilizing a foam hand
line to maintain the evacuation route and maintaining Post Fire Control. This is considered logical and an
achievable process for this crew. Conclusion. A task analysis can be as detailed as necessary. The aim is to itemise the
knowledge and practical skills (doing) involved in carrying out the task or function effectively and to the
correct standard of competence based on a qualitative analysis. Having gathered the appropriate data and
agreed the outcome, the TRA should enable an RFFS to confirm and subsequently provide the correct
level of vehicles, equipment and personnel. I t would also enable the RFFS to develop a training
specification and a l earning programme can then be designed around role and task. W hen planning a
Task & Resource Analysis ask the following questions:
a) What is done?
b) Why is it done?
c) When is it done?
d) Where is it done?
e) How is it done?
f) Who does it? It is often difficult to assess the overall effectiveness of a complete unit by observation only.
However, observation/demonstration does allow you to assess the effectiveness of individual units and
any element(s) of the emergency arrangements. Documentary evidence relating to previous accidents or
exercises may also assist in establishing if the current RFFS is staffed at an appropriate level. The overall
objective is to be satisfied that the RFFS is organized, equipped, staffed, trained and operated to ensure
the most rapid deployment of facilities to maximum effect in the event of an accident. The above process
can also be used to identify equipment shortages and training needs for personnel required to deal with
identified tasks.
Chapter 11
11.1.1 Every airport should establish an emergency plan to deal with aircraft emergency situations. The
following instructions are primarily for the aircraft fire accidents and incidents. The other incidents, such
as medical emergencies including pandemic and sabotage including bomb treat can be found in the
Aerodrome Service Manual Part 7 A erodrome Emergency planning. The plan should include a set of
instructions dealing with the arrangements designed to meet emergency conditions and steps should be
taken to see that the provisions of the instructions are periodically tested. Only in this way can it be
established that the organization is capable of coping with every likely contingency and that the
authorities, as well as each individual, services and agencies concerned, will be acquainted and familiar
with the action to be taken. These instructions should set out in sequence the specific duties of each
section concerned (e.g. air traffic control, RFF service, security managers, aerodrome operations
managers). They should cover the arrangements for calling the rescue and firefighting service to aircraft
accidents, both on and off the airport and for the summoning of assisting municipal services, rescue and
medical, where available. The chief link in the organization is that between RFF service and air traffic
control, and it is essential that the closest possible liaison between these two services be maintained at all
times. In the event of an emergency situation, an emergency vehicle responding to the emergency must be
given priority over all other surface movement traffic. Once an accident has occurred the direction and
control of the RFF operation must be left to the airport fire service officer-in-charge. The procedure of the
emergency organization should provide for the rendezvous point(s) and staging area(s) to be used by the
assisting services involved. A rendezvous point is a pre-arranged reference point, i.e. road junction, crossroad or other specified place, to which personnel/vehicles responding to an emergency situation initially
proceed to receive directions to staging areas and/or the accident/incident site. It is recommended that a
process be established to assist responding external agencies with directions to the designated rendezvous
point. A staging area is a pre- arranged, strategically placed area, where support response personnel,
vehicles and other equipment can be held in readiness for use during an emergency. Normally, one of the
staging areas is located in the vicinity of the fire station. The subject of airport emergency planning is
given detailed consideration in the Airport Services Manual (Doc 9137), Part 7. - Airport Emergency
11.1.2 A system for locating and reaching each accident site in minimum time, with adequate rescue,
firefighting and medical equipment, should be employed at each airport. A detailed grid map(s) (see
Figure 11-1) will be helpful in this regard. The grid maps should reflect a distance of a t least1000 m
beyond the threshold and the airport perimeter. Studies of the ICA0 Accident Incident Data Reporting
(ADREP) System show that a large (more than 25%) portion of accidents occurred on the area (1000 m
long and 60 m width) beyond the runway end.
11.1.3 It is recommended that two grid maps be provided: one map depicting confines of airport access
roads, location of water supplies, rendezvous points, staging areas, railways, highways, difficult terrain,
etc. (see Figure 11-l), and the other of surrounding communities depicting appropriate medical facilities,
access roads, rendezvous points, etc. within a d istance of approximately 8 km from the centre of the
airport (see Figure 11-2). Where more than one grid map is used, the grids should not conflict, and must
be immediately identifiable to ail participating agencies.
11.1.4 Copies of the map(s) should be maintained at the emergency operations centre, at the airport
operations office, at the air traffic control tower, at airport and local fire stations in the vicinity, at all local
hospitals, at police stations, at local telephone exchanges, and at other similar emergency and information
centres in the area. In addition, copies of the maps should be kept on all RFF vehicles and such other
supporting vehicles required to respond to an aircraft emergency. Maps of this type are ruled off in
numbered grids and marked for easy identification of any point within the map area. Instruction classes
on the use of such maps should be held periodically. When two or more airports are closely located the
preparation of the grid maps may need to be co-ordinated to avoid any confusion.
11.1.5 The responsible parties should be kept informed as to any impairment of the emergency access
roads (see 3.2), such as their being closed for repairs or unusable because of high water, snow, etc. If the
airport is fenced, keys to gate locks should be carried on each piece of emergency apparatus, by airport
police/security and other appropriate local authorities. Perimeter fences should have provision for rapid
egress to these areas by way of frangible barriers (crash gates) or similar.
11.1.6 Standby positions. One or more standby positions on the movement area should be considered.
The purpose of standby positions is to pre-position the RFF vehicles on selected locations of the
movement area so as to minimize the response time in case of full emergency, local standby (see 11.2. I)
or when the response time is seriously affected by the location of the fire station or other physical
characteristics of the airport. Location of the RFF vehicles on the standby positions should not:
a) interfere with or disrupt the operation of the electronic navigational equipment;
b) penetrate the obstacle clearance surfaces or interfere with normal aircraft taxiway routes; and
c) increase response time to any part of the movement area.
A source of electric power at standby positions may be necessary to provide heating or cooling capability
and to maintain radio communication.
11.1.7 Adverse weather or poor visibility conditions may restrict the normal movement of RFF
vehicles on the airport or its vicinity. When such conditions are likely to be found additional procedures
should be established so as to:
a) enable fire station personnel to remain informed on c urrent visibility conditions at the airport, for
instance by monitoring the control tower frequency or automatic terminal information service (ATIS)
frequency, or any other form of communication:
b) determine the response times of all mutual aid agencies which are an integral part of the airport
emergency planning process during adverse weather conditions and, where possible, seek to improve
c) encompass in the training programme a thorough knowledge of the airport and its immediate vicinity;
d) place the RFF personnel on standby alert status when the airport visibility has deteriorated below a
predetermined level established by the airport authority. The standby alert status should be continued until
visibility conditions improve or aircraft operations are terminated.
11.1.8 As indicated in 11.1.1, a mutual aid programme should be worked out with neighborhood fire
and rescue units and other appropriate local units. Some of the arrangements to be made are described
11.1.9 Local fire agencies be included in aircraft RFF training activities conducted at the airport by
participating in drills, tests, and aircraft familiarization programmes. Such activities should be specifically
pointed towards increasing the utility of local fire defence personnel in handling off-airport accidents and
assisting in a mutual aid capacity at on-airport accidents. Confidence in handling aircraft fires can only be
attained by following the requirements in accord with the principles of Chapter 14.1 Training. Some
training examples are frequent training sessions of realistically simulated accidents including ai rcraft
incident support training.
11.1.10 When local fire agency crews arrive at the scene of an aircraft fire first, they should know how
to proceed with the fire suppression work. In such situations, upon arrival of the specialized airport
equipment and personnel, the officer in charge of the airport emergency crew should consult with the
other officer-in-charge on what efforts have not been successfully completed and then identify what
assistance is required to bring the incident to a successful conclusion. The RFF crew should concentrate
on the (fire) safety at the crash scene. After evacuation is completed, all agencies should concentrate on
final extinguishment required The division of responsibilities in any given situation is a matter for
individual determination by those in charge in accordance with previous mutual aid arrangements and
with legal assignments. Where accidents occur beyond the airport perimeter it is important that external
responding agencies, such as f ire services, have as a m inimum a b ase understanding in dealing with
aviation incidents.
11.1.11 Local fire agencies should be tied in closely with airport emergency alarm services, preferably
by direct line telephone. Having been provided with grid maps, they should be able to respond quickly to
the designated staging area, rendezvous point or accident site in minimum time. They should be
encouraged to carry equipment appropriate for aircraft RFF operations.
11.1.12 Ambulance and medical services, like RFF services, are necessary to administer aid to the
injured. Response of such aid to an aircraft accident site should be automatic. Some ambulance and
medical services may be an integral part of the airport RFF organization and this is recommended where
feasible. Such services should be available during all operating periods on an identical schedule with the
companion activity. Prearrangements in the emergency plan with local, private or public ambulance and
medical services also should be arranged to assure support. Where a permanent airport-based ambulance
service is not feasible and to supplement any such services, prearrangements with local, private or public
ambulance and medical services should be arranged to assure prompt dispatch of a satisfactory
assignment of personnel, equipment, and medical supplies. It is of special importance that aircraft RFF
personnel be trained in, as a minimum, basic first-aid practices in accord with Chapter 14.1, Training.
1 1.1.13 Airport fire equipment required to maintain RFF category should not be used for fires off the
airport while flight operations are still in progress.
11.2.1 Aircraft emergencies for which services may be required can be classified as:
a) aircraft accident - an aircraft accident which has occurred on or in the vicinity of the airport;
b) full emergency - to be instituted when it is known that an aircraft approaching the airport is, or is
suspected to be, in such trouble that there is danger of an accident; and
c) local standby - to be instituted when an aircraft approaching the airport is known or is suspected to
have developed some defect but the trouble is not such as would normally involve any serious difficulty
in effecting a safe landing. This includes bomb threats and other incidents.
11.2.2 For each of these aircraft emergencies, air traffic control is expected to take action as described
below. giving where necessary rendezvous point and airport entrance to be used.
11.2.3 Aircraft accident
Notify the RFF service, providing information on the location of the accident and all other essential
details. These details should as a minimum include:
- type of aircraft;
- type of accident/incident; and
- time and (grid)location of the accident/incident.
Subsequent calls may expand this information by providing details on the number of occupants, fuel on
board, aircraft operator, if appropriate, and any dangerous goods on board, including quantity and
location, if known.
b) Initiate the calling of the police and security services and the airport authority in accordance with the
procedure in the airport emergency plan, giving grid map reference, rendezvous point and/or staging area
and, where necessary, airport entrance to be used.
11.2.4 Full emergency
a) Notify the RFF service, if applicable to stand by at the predetermined standby positions.. These details
should ideally include:
- type of accident/incident
- type of aircraft;
- fuel on board;
- number of occupants, including special occupants
handicapped, immobilized, blind, deaf;
- nature of trouble;
- runway to be used;
- estimated time of landing;
- any dangerous goods on board, including quantity
and location, if known.
b) Initiate the calling of the mutual aid fire agency/agencies and other appropriate organizations in
accordance with the procedure laid down in the airport emergency plan, giving where necessary
rendezvous point and airport entrance to be used.
11.2.5 Local standby. Call the RFF service to stand by, if applicable at the predetermined standby
positions. Provide all essential details. These details should include:
- type of accident/incident;
- type of aircraft;
- fuel on board;
- number of occupants, including special occupants - handicapped, immobilized, blind, deaf;
- runway to be used;
- estimated time of landing;
- aircraft operator, if appropriate; and
- any dangerous goods on board, including quantity; and location, if known.
11.2.6 The responsibility on the scene for dealing with the emergency rests with the RFF service
officer-in-charge who is normally responsible for assuring that there is no further need for the RFF
service before returning to the station. Should another emergency occur before the previous one is finally
dealt with, the air traffic control officer may be responsible for notifying the RFF service so that
redeployment of resources can be made, and for all other action as set out for each type of emergency.
11.2.7 Air traffic control, where available, should have facilities to maintain continuous
communication with as well as to inform the officer-in-charge of the RFF service of last minute changes
in the distressed aircraft’s flight plan or emergency conditions existing. When advised of the situation, aid
to the extent needed or judged desirable should be put into effect by the officer-in-charge of the RFF
service. Air traffic control should then notify the pilot of the aircraft in distress of the precautionary action
being taken at the airport.
Chapter 12
12.1.1 Upon notification from air traffic control announcing an aircraft emergency, the required
equipment is dispatched to the scene of the accident or to the predetermined standby positions. Once the
call has been received, all subsequent RFF action will be the responsibility of the airport RFF service
12.1.2 Runway standby positions for RFF vehicles in anticipation of an emergency may be
predetermined, and documented to provide the best possible coverage.
12.1.3 For emergencies involving gear malfunction or tire difficulty, there is always a possibility of the
aircraft veering off the runway and possibly hitting emergency equipment. In such cases, it is preferable
for the emergency equipment to be located near the point of touchdown and then to follow the aircraft
down the runway after ground contact.
12.1.4 Response by RFF equipment to off-airport accident(s) should be done in accordance with off
aerodrome response procedures and existing mutual aid agreement(s). C ommunication should be
maintained between RFF vehicles, the fire station and air traffic control. Wherever possible, mutual aid
resources should monitor predetermined frequencies.
12.1.5 Additional resources should be dispatched when the accident site is known to be beyond normal
fire-protected zones (underground water mains and hydrants) or where water relays may be required.
Prearrangements should be made to assure that additional supplies of extinguishing agents are brought to
the accident scene.
12.1.6 Pre-incident planning of off-airport conditions should be made to prevent delays at time of
emergency. Significant factors should be charted on the grid maps carried in RFF vehicles.
12.1.7 All personnel operating directly in the involved area of the crash should be provided with
adequate protective clothing. Details on protective clothing can be found in Chapter 6. The training of
rescue personnel should stress the value and the limitations of their protective equipment to avoid a false
sense of security and to recognize that they could unwittingly lead the occupants of the aircraft through a
dangerous atmosphere.
12.1.8 Lines to be used in fire attack should be charged after equipment is properly positioned. If no
fire is visible, all equipment should be staged for immediate response if necessary.
12.1.9 Should spill of an flammable liquid occur without fire breaking out, it is important to eliminate
as many ignition sources as possible while the spill is being neutralized or covered with foam. Engine
ignition sources should be made inert or cooled. There may be enough residual heat in turbine aircraft
engines to ignite fuel vapors up to 30 minutes after shutdown or 10 minutes on piston engines.
12.1.10 A continuous water supply is essential and is usually not available at all points, provisions should
be in place to ensure that the required fire flow be maintained. It is important that prearrangements also
include additional emergency resources.
12.1.11 Rescue operations should be accomplished through regular doors and hatches wherever possible
but RFF personnel must be trained in forcible entry procedures and be provided with the necessary tools.
Note. - In a n umber of cases, misuse of forcible entry tools has resulted in unnecessary fuel spills
increasing the fire hazard.
12.1.12 Rescue of aircraft occupants is a priority and should proceed with the greatest possible speed.
Evacuation of injured occupants from a dangerous environment in the fire threatened area should be done
with care so as not to aggravate their injuries.
12.1.13 Broken fuel, hydraulic fluid (flammable type), alcohol and oil lines should be plugged or
crimped when possible to reduce the amount of spill and extent of fire.
12.1.14 If the source of heat and fire cannot be controlled, fuel tanks exposed but not involved should
be protected by appropriate agents to prevent involvement or explosion.
12.1.15 Aircraft windows maybe used for rescue or for ventilation. Some are designed to be used as
emergency exits. On all aircraft these exits are identified and have latch release facilities on both the
outside and inside of the cabin. Cabin doors may be used as emergency exits except when they are not operationally available.
With some exceptions these doors open outwards. When exits are used for ventilation they should be
opened on the down-wind side.
12.1.16 The “No Smoking” rule must be rigidly enforced at the scene of the accident and in the
immediate vicinity.
12.2.1 The prime mission of the airport RFF service is to control the fire in the critical area to be
protected in any post-accident fire situation with a view to permitting the evacuation of the aircraft
occupants. Equipment and techniques recommended are generally directed toward this goal. The
recommendations in this section are for guidance of the officer-in-charge when responding to aircraft
12.2.2 Class A fires. Fires involving upholstery and similar solid combustibles are Class A materials,
which require cooling and quenching for extinguishing. The officer-in-charge may find it advantageous to
use water, preferably a water fog, on fires of this type. Experience, planning and a knowledge of how to
use available equipment and agents to best advantage are the best guide in making a decision.
12.2.3 Hot brakes and wheel fires. The heating of aircraft wheels and tires presents a potential explosion
hazard, greatly increased when fire is present. In order not to endanger the members of the airport RFF
service needlessly, it is important to distinguish between hot brakes and brake fires. Hot brakes will
normally cool by themselves without the use of an extinguishing agent. Most aircraft operating manuals
for propeller driven aircraft recommend that flight crew members keep the propeller forward of the wheel
turning fast enough to provide an ample cooling airflow. Most wheels of jet aircraft have fusible plugs,
which may melt and deflate the tire before dangerous pressures are reached. When responding to a wheel
fire, RFF members should approach the wheels with extreme caution in a fore or aft direction angle and
never from the side in line with the axle. Since the heat is transferred to the wheel from the brake it is
essential that the extinguishing agent be applied to this area.
12.2.4 Too rapid cooling of a hot wheel, especially if localized, may cause explosive failure of the
wheel. Solid streams of water may be used as a last resort. Water fog or indirect solid stream can be used
to cool hot brakes. Dry chemical is an effective extinguishing agent but is not recommended as an
effective agent on this type of fire.
12.2.5 Rocket engine fires. Some civil and military aircraft are equipped with auxiliary rocket engines
to provide standby thrust from emergency or for jet assisted take-off (JATO) use. These are usually
mounted in the nacelles, in the fuselage tail cone, in the belly of the fuselage, or on the sides or bottom of
the fuselage.
12.2.6 If a fire surrounds the rocket engines, caution should be used in approaching the area. No attempt
should be made to extinguish the engines if they should ignite. Water or foam may be used effectively to
control the fire around the rocket motors, but they cannot be extinguished because of the self-contained
oxidizer in the propellant. They burn very intensely for a short duration; however, they will normally not
contribute significantly to the damage, since their chambers are so well insulated that it takes several
minutes of very intense heat to ignite them. This heat will normally have done irreparable damage or
caused fatalities before ignition of the rocket engines occurs.
12.2.7 If fire does not occur, igniters and ignition cables should be removed from unexpended rocket
engines on the crashed aeroplanes by appropriately trained personnel as soon as possible to reduce the
possibility of inadvertent ignition from stray voltage entering the ignition wiring.
12.2.8 Confined engine fires (piston). When engine fires are confined within the nacelle, but cannot be
controlled by the aircraft extinguishing system, clean agents should be applied first as these agents are
more effective than water or foam inside the nacelle. Dry chemical may be used but may cause further
damage to the aeroplane. Foam or water spray should be used externally to keep adjacent aircraft
structures cool. The propellers should be approached with caution and never be touched, even when at
12.2.9 Confined turbine engine fires (jet). Fires confined to the combustion chambers of turbine engines
are best controlled when the flight crew is in a position to keep the engine turning over and it is safe to do
so from the viewpoint of aircraft evacuation and other safety considerations. Fire fighters will have to
stand clear of the exhaust but may have to protect combustibles from exhaust flames. Fires outside the
combustion chambers of turbine engines but confined within the nacelle are best controlled with the
aircraft built-in extinguishing system. If the fire persists after the built-in system has been expended and
the turbine shut down, clean agent may be used to attempt extinguishment. Dry chemical may be used but
may cause further damage to the aeroplane.
12.2.10 Foam or water spray should be used externally to keep adjacent aircraft structures cool. Foam
should not be used in the intake or exhaust of turbine engines unless control cannot be secured with the
other agents and the fire appears to be in danger of spreading.
12.2.11 RFF personnel should stay at least 10 m from the front and side intake of an turbine engine to
avoid being ingested.
12.2.12 Remain up to 500 m from the rear depending on the size of the aeroplane to avoid the jet blast
danger area.
12.2.13 Titanium fire control. Some engines have titanium parts which, if ignited, cannot be
extinguished with the conventional extinguishing agents available to most RFF crews. If these fires are
contained within the nacelle, it should be possible to allow them to burn out without seriously threatening
the aircraft itself as long as:
a) there are no external flammable vapour -air mixtures which could be ignited by the flames or hot
engine surfaces; and
b) foam or water spray is available to maintain the integrity of the nacelle and surrounding exposed
aircraft structures.
12.2.14 Fire situations involving rear mounted aeroplane engines. Engines mounted on t he rear
fuselage areas of aircraft or in association with the vertical stabilizer present special firefighting problems.
In some cases, where the engines are mounted on the sides of the fuselage, they may have fire access
panels which are so situated as to preclude the complete entry of the nozzles on extending applicators on
fire extinguishing apparatus.
12.2.15 Another problem arises due to the height of these engines above ground level. Heights of up to
10.5 m may be encountered and these will require the provision of ladders, elevated working platforms on
fire appliances and extensible applicators for delivering suitable extinguishing agents. One further aspect
to be considered is that personnel and vehicles operating at an engine fire, should not position themselves
immediately below the engine where they may be at risk from running fuel, melted metal or ground fire
situations. Operating positions outboard, in front, or to the rear, of engines will permit extinguishing
agents to be delivered provided that there is a suitable applicator or the range and pattern of the discharge
can deliver the chosen agent effectively.
12.2.16 The choice of the extinguishing agent to be used will be a matter for local decision but, as with
all firefighting, the operational objective must be for rapid fire control and for the minimum amount of
consequential damage as a result of firefighting activities. Some agents, notably clean agents dry chemical
powder and, to a lesser extent, CO2, can achieve fire control in the screened areas within an engine
without any contamination of the various components and ancillary systems. They are effective on fires
involving fuels and electrical equipment as well as on running fuel situations which may produce fires at
ground level. Where an engine fire situation has developed, priority will be given to exposures It is
important to inform aircraft operators of the nature of the agent used when the incident is concluded so
that they may take preventive action against corrosion or other effects as the situation may require.
12.2.17 Magnesium fire control. The presence of magnesium alloys in aircraft structures introduces an
additional problem to fire extinguishment in situations where this metal becomes involved in an aircraft
fire. The form and mass of magnesium-based components in normal airframes is such that ignition does
not occur until there has been considerable exposure to flame but exceptions occur in the thin forms of
magnesium found in some aircraft power plant and landing gear components.
12.2.18 Magnesium fires may be attacked in their incipient stages by extinguishing agents specifically
designed for combustible metal fires, but where a large mass of magnesium becomes involved the
application of large volumes of coarse water streams provides the best ultimate control method. Attack by
water streams is undesirable where the primary fire control technique is with foam as the water streams
would damage the foam blanket. Following completion of rescue and all possible salvage of effects it is
advisable to apply coarse water streams to still-burning magnesium components even if the immediate
result might be a localized intensification of flame and considerable sparking.
12.3.1 Rescue tactics. Before attempting to specify the tactics and equipment to be used in rescue
operations following an aircraft accident it will be necessary to identify the tasks to be performed. First,
the term rescue must be taken to include protection of the routes followed by occupants of the aircraft
who are able to escape from the aircraft. The activities external to the aircraft may include firefighting,
the blanketing of fuel wetted areas adjacent to the aircraft, the assistance in the effective use of the
emergency escape equipment deployed from the aircraft and the provision of lighting where this would
expedite the evacuation of the aircraft and the assembly of its occupants in a safe area. It will be obvious
that entry to the aircraft at this time should not be attempted by any of the routes which are in use by
escaping occupants. It will also be obvious that evacuation from the aircraft and any operations within the
fuselage cannot be conducted effectively if a fire situation exists which imperils the occupants or the
rescue forces. While the rescue of all occupants may be considered as the primary objective, the over-all
requirement is to create conditions in which survival is possible and in which rescue operations may be
conducted. For this reason it may be essential to commence firefighting operations before attempting to
rescue any one of the occupants, as failure to suppress the fire or render a fuel wetted area fire safe may
preclude the survival of everyone aboard.
12.3.2 Second, the saving of those occupants unable to make their escape without direct aid may be a
long and arduous task, involving the use of specialized equipment and personnel other than those
primarily provided for RFF purposes. The support for the primary rescue element may come from
medical teams, from the aircraft operator’s sources and from externally based emergency services who
respond to aircraft emergencies. During this phase it will be imperative to maintain fire security inside
and outside the aircraft and this may entail the periodic reapplication of the foam blanket. Additionally,
there may be a requirement to ventilate the fuselage to remove smoke and other toxic material providing a
more survivable atmosphere and for rescue operations. Activities in the area must be coordinated by the
on-scene commander.
12.3.3 A precautionary blanketing of the fuel covered area will be a priority task for the first
arriving RFF vehicle(s). Protection must be available when opening doors and windows of aircraft evacuation to
guard against and maintain escape paths in the event there is a sudden outbreak of fire. Consideration should be given to what tools and specialized equipment should be carried
on the RFF vehicle(s).
12.3.4 Foam provides the capability to knock down the fire and to give a measure of post-control
stability which is not provided by dry chemical powders. At category 1 and 2 airports, the foam could
be contained in a p ressure vessel as a pre-mixed solution and expelled by compressed gas which
avoids the need for a pump. The system must be capable of discharging for at least one minute. The
crew for the first vehicle of a multi-vehicle response should be pr oficient enough to ensure the
operation of the fire suppression equipment and to provide assistance with evacuation. With the arrival of additional vehicles, the crew of the first vehicle will become available to
assist in other duties. Operational experience indicates that there are three main requirements once the
major fire situation has been controlled or the critical area around the aircraft has been secured. These
a) Entry of rescue teams. Each team usually consisting of two firefighters to assist occupants
from the aircraft. As no two accidents present the same problems, members of a rescue team must be
trained to operate both singly and as a team. They should be equipped to extricate trapped persons and
to conduct all of their operations with due regard to the preservation of evidence which may be of
significance in any post-accident investigation. It may be necessary to provide respiratory protection
and communications equipment in the initial stages of the rescue operation;
b) to provide firefighting equipment within the aeroplane capable of extinguishing or cooling cabin
trim and furnishing materials which may have become involved. Water-spray equipment has been
found to be the most effective medium for this task; and
c) to provide lighting and ventilation equipment within the aircraft.
12.3.5 These three tasks are not specified in order of priority and if a fire situation exists within the
aircraft it will be essential to control this before any other operation can be commenced. Similarly, if
there is no fire but trim and upholstery materials are decomposing because of residual heat the
decomposition must be stopped by the use of water-spray and the environment made habitable by
natural or induced ventilation.
12.3.6 Post-accident ventilation. In aircraft accident situations, where a fire situation has been
controlled or extinguished, the interior of the aircraft may be filled with smoke or the bi-products
decomposing materials. It is important to create a survivable atmosphere within the aircraft as soon as
is practicable, to protect any occupants who may be unable to escape and to facilitate search and
rescue operations by RFF personnel. Smoke and fumes will impair vision, make movement difficult
and may rapidly prove fatal to all occupants. If making entry into aircraft, self-contained breathing
apparatus (SCBA) should be worn; ventilation of the aircraft is the only satisfactory means of creating
a survivable atmosphere.
12.3.7 Ventilation can be achieved by removing the smoke or fumes which are unacceptable or by
admitting fresh air which will displace the smoke or fumes to progressively improve the environment.
For either of these methods it would, in suitable circumstances, be possible to use natural ventilation,
by opening the doors and windows of the aircraft on the upwind and downwind sides, thus permitting
a flow of air through the aircraft. The movable portions of flight deck windows can also be used
provided that the door to the flight deck is kept open. The limitations of natural ventilation are that
there may be smouldering materials outside the aircraft on the upwind side which will contaminate the
airflow to the aircraft. A similar situation may arise where there are fuel-contaminated surfaces on the
upwind side or where concurrent fire suppression activities are employing dry chemical powder or
vaporizing liquid agents.
12.3.8 Mechanically-induced ventilation can overcome these problems in most cases. A suitably
designed unit can be sited at a point where it receives clean air which is then delivered to the
aircraft. Portable fans (smoke ejectors) may be carried on RFF vehicles. There are several types of
equipment which may be used for mechanically induced ventilation, including exhaust or ejector
devices, some driven by electric motors or gasoline-powered engines. Some of these have to be
suspended in doorways or at windows by means of an adjustable bar.
12.3.9 Whenever ventilation is introduced, there will be the risk of promoting fire in any
smouldering materials within the aircraft or at any point external to the aircraft where there is an
accelerated airflow. Personnel equipped with charged hose lines terminating in hand-controlled
water-spray nozzles must be available to meet any sudden outbreak of fire.
12.3.10 Rescue equipment requirements. In reviewing the equipment required for use by rescue
personnel, based on the operational duties discussed above, the following items should be available:
a) Lighting equipment, preferably operating from a portable generator and serving one or more
pieces of lighting apparatus. The requirement for illumination will include both area lighting
(flood lights) and smaller units to be employed at working locations. Caution should be used when
operating portable power sources in a fuel vapour atmosphere and when operating with electricity
in a wet environment.
b) Power-operated tools, capable of being operated from a portable power source. The form of power to
be used is a matter for local determination but ideally a common source should serve all powered
tools, including a rotary saw for major cutting and a reciprocating saw or percussion operated chisel
for more precise cuts, including those which may be made close to a trapped person. The provision of
alternative cutting devices or the use of a vehicle-mounted power source is not excluded provided any
alternative offers equivalent operational facilities; There are an array of battery powered hand tools
available today.
c) Hand tools, including wire and bolt cutters, screw-drivers of appropriate sizes and designs, crowbars,
hammers and axes. The full extent of a hand tool requirement must be related to the types of aircraft
operating and the availability of trained support personnel. Nevertheless, the hand tools have some
value in appropriate cases and should not be ignored in training period;
d) Forcing equipment, usually hydraulically operated, for bending, lifting or cutting operations. It is usual
to employ adapted industrial kits which can be assembled from a selection of components to provide a
variety of lengths of tubular shaft on which the hydraulic ram attachment may exert a force;
e) Respiratory protection, which may consist of an SCBA;
f) Communications equipment, telephone(s), radio(s) operating on the frequency allocated to the airport
RFF service. These units should provide two-way communication between:
1) All other required emergency vehicles;
2) Air traffic control;
3) The common traffic advisory frequency when air traffic control is not in operation or there is no air
traffic control;
4) Between RFF service and flight crew, where this arrangement has been established; and
5) Fire stations, where specified in the airport emergency plan (mutual aid).
Even though not a two way communication, a hand-held megaphone would also be valuable, particularly
in crowd control situations and directing personnel evacuating the aircraft:
g) miscellaneous items, including wedges, plugs for fuel lines, shovels, grab-hook or pike-pole, lines
(cordage), and ladders of appropriate type and length, related to the aircraft in use;
h) charged hand-line;
i) equipment capable of delivering a fresh air supply; and
j) medical first aid equipment, ideally consisting of prepackaged wound dressings in protective
containers, scissors, adhesive dressings and burn dressings. Included in this category may be foil
blankets and carrying sheets. Stretchers are difficult to handle in confined spaces but the provision of
spine boards may be of value in handling seriously injured persons.
12.3.11 Coordination of flight crew members and RFF personnel. The purpose of this guidance
material is to reduce confusion on the part of all personnel concerned in the handling of aircraft accidents
or incidents on o r near an airport. To this end, it is necessary to bring about a better understanding
between crew members and rescue and RFF personnel.
12.3.12 During an aircraft accident or incident the crew members’ efforts are directed towards a
common goal, i.e. safety of all occupants of the aircraft. Where an incident occurs in flight requiring the
pilot-in-command to declare an emergency, the commander will in all probability state the nature of the
incident, e.g. power plant fire, bomb threat, cabin fire, etc., and a plan for coping with the incident.
12.3.13 Normal evacuation routes may include over wing exits and available doors; The use of over
wing exits presents hazards if the aircraft is in the normal position with gear extended or collapsed. The
distance to the ground from the wing surfaces may be excessive and cause serious injury to those
evacuating from the aircraft. Leading edge wing evacuation should be considered where fire may block
the normal evacuation off the trailing edge of the wings. It is recommended that only the aircraft doors
equipped with stairs or slides be used where immediate life safety is not a factor.
12.3.14 Annex 6, Part I, requires that operators of aircraft ensure that each of their pilots is familiar with
the regulations and procedures of, among others, the airports to be used. Additionally, all crew members
are trained in and assigned specific duties to perform in cases of an aircraft accident or incident, including
emergency evacuation of aircraft occupants and directing them to a safe distance from the scene of the
accident or incident. As a result of the Annex 6 requirement, aircraft and airport operators should
endeavor to achieve the highest possible understanding on RFF capabilities and procedures. Personal
contact should be encouraged between all personnel concerned (crew members and RFF personnel) to
achieve this.
12.3.15 Crew members and RFF personnel should be aware of the dangers associated with the
indiscriminate opening of doors or emergency exits which might permit entry of flames or toxic gases
into the fuselage of the aircraft.
12.3.16 Aircraft are normally equipped with emergency exit devices (i.e. slides, rope, etc.), in addition
rescue personnel may want to include a vehicle with stairs in the event the normal evacuation devices fail
to operate or for RFF personnel to enter the aircraft.
12.3.17 Crew members are trained in the use of emergency evacuation slides provided at normal and
emergency exit doors to assist in the rapid evacuation of passengers. Where these slides are provided and
are in use when RFF personnel arrive, air crew members should not be disturbed unless the slides have
been damaged by use or fire exposure. In the latter case, ladders or emergency stairs, provided by the RFF
personnel should be placed into immediate service.
12.3.18 The use of emergency evacuation slides will usually provide a much more rapid evacuation than
conventional steps or stairs where speed of evacuation is mandatory. It is preferable to use the aircraft
equipment. RFF personnel should stand by at the foot of the slides to aid exiting persons to their feet and
direct them to a staging area a safe distance from the scene.
12.3.19 Evacuees using over wing exits for evacuation will normally slide off the rear edge of the wing
or down the wing flaps (if extended), and they should be given assistance to prevent leg injuries, then
directed to a safe distance from the scene.
12.3.20 In order to coordinate better evacuation procedures, it is often desirable to establish direct
contact with the flight crew members. Most airport emergency equipment carries two-way radios,
operating on ground control frequency. Prearrangement with the control tower will ensure that the aircraft
changes to this frequency, if time and the nature of the emergency permit.
12.3.21 The responsibilities of flight crew members and airport emergency personnel should be clearly
defined and under all conditions the prime concern must be directed to the safety of those persons aboard
the aircraft. In many cases, this will necessitate emergency evacuation procedures under various types of
conditions. Duties and responsibilities can be generally defined as follows:
a) Crew members. Since conditions and facilities differ greatly on most airports, crew members must
remain primarily responsible for the aircraft and its occupants. The final determination to evacuate
from the aircraft and the manner in which evacuation shall be carried out must be left to the discretion
of the crew, provided they are able to function in a normal manner.
a) RFF personnel. It will be their duty and responsibility to assist the air crew in any way possible. Since
air crew visibility is restricted, RFF personnel should make immediate appraisal of the external portion
of the aircraft and report unusual conditions to the air crew. Protection to the over-all operation is the
primary responsibility of the RFF personnel. In the event air crew are unable to function, the RFF
personnel will be responsible or initiating necessary action.
12.3.22 Communications. RFF personnel should take immediate steps to establish direct contact
between the pilot and on scene commander. This will ensure all factors are properly considered before
actions are initiated. Several methods of providing this direct communication are generally available:
a) Radios. The success of an effective aircraft intervention incident may depend on the transmission and
reception of clear, concise and understandable communications at all levels. Clearly communicated
information reduces confusion and helps to maximize the use of available resources. Each aerodrome
should establish a standard operating procedure (SOP) for emergency communications. These
communications should be coordinated with other mutual air partners who may provide assistance to
the aerodrome. These procedures should include defined lines of communication, and specified
frequencies. Two-way radio is an effective means for communicating with RFF personnel during an
aircraft incident/accident. Radios should have sufficient channels to allow the necessary command and
support functions to operate on separately. The Incident Commander should have the ability to
communicate with other agencies on separate frequencies during the incident/accident.
b) Aircraft intercom. Where aircraft engines are running it may be difficult to communicate with the pilot
by radio from near the aircraft. Most aircraft are equipped with “intercom” systems where “jacks” are
generally located under the forward portion of the aircraft, behind an access door. RFF personnel
should be aware of this means of communication and carry the necessary head-set and microphones to
plug into these facilities. Even with the engines running, proper direct communications with the pilot
can be established by use of this system.
c) Other communication means. Where other means of communication cannot be established, it is
advisable for the officer-in-charge of the RFF personnel report to the left side of the aircraft nose and
establish direct voice communication with the pilot or flight crew. Portable amplifiers may prove
valuable for this type of communication. It may be necessary to resort to hand and arm signals to relay
the information. Figure 12-1 shows the signal which may be used by RFF personnel to advise the pilot
to cut engines. Information on other marshalling signals is contained in Annex 2 — Rules of the Air.
12.3.23 Aircraft fire warnings. Since it is often impossible for the crew members to make an accurate
appraisal of aircraft fire warning indicators, it is advisable to bring the aircraft to a complete stop and
allow the RFF personnel to inspect the area involved, prior to parking This inspection can usually be
greatly enhanced by the use of thermal imaging equipment without having to open aircraft compartment
12.3.24 Engines running. It may be necessary to keep at least one engine operating after the aircraft has
come to a stop in order to provide lighting and communications aboard the aircraft. This will hamper
rescue operations to some extent and consideration should be given to this problem. On reciprocating and
turbo-propeller engines extreme care must be exercised by personnel on the ground to remain clear of the
propeller arc. On turbo-jet engines extreme care must be exercised in the immediate area ahead and for a
considerable distance behind the engine.
12.3.25 Equipment positioning. Wind conditions, terrain, type of aircraft, cabin configurations and
other factors dictate approaches. For this reason, it is necessary for flight crew members to inform RFF
personnel of the details regarding the particular aircraft in question. On combined cargo-passenger aircraft,
the airport emergency crews should be notified of cabin configurations, since some cargo areas extend as
far aft as the over wing exits, making them unavailable for emergency evacuation.
12.3.26 Tactical decision-making starts at the time when the alert tone is sounded and continues to be
made both while enroute and during initial approach to the scene. Size-up (what is happening / what is
about to happen / what needs to be done) and correct tactics will need to be implemented without delays.
A tactical plan for positioning RFF vehicles for various aircraft applicable to that aerodrome should be
documented, known to RFF personnel and practiced as part of an ongoing training program. As part of
the size-up process the Incident Commander would decide whether or not the tactical plan would need to
change. RFF apparatus and other responding vehicles must be positioned correctly if RFF operations are
to be successful. Because RFF apparatus often respond single file, the first fire apparatus to the accident
site often establishes the route for other vehicles and may dictate the approach into their ultimate positions.
In positioning apparatus, first-arriving crews and the incident command should follow certain guidelines:
a) Approach the scene with extreme caution. Watch for evacuating occupants, wreckage debris, fuel
ponding, and other hazards. Avoid driving through any smoke which obscures your vision and
potential evacuee’s. Avoid driving over any aircraft wreckage.
b) Terrain and slope of the ground should be considered, direction of the wind prior to entering a
crash site. You should attempt to position vehicles uphill and upwind to avoid fuel and vapors
which tend to gather in low-lying areas.
c) Do not block the entry or exit areas which emergency vehicles may need to use.
d) Initial position of vehicles should be to protect egress routes of evacuating aircraft occupants.
e) Ideally vehicles should be positioned so they can be repositioned in the event of reflash or on
direction of the incident commander.
f) Vehicles should be positioned so turrets can cover maximum amount of the aircraft fuselage.
g) The Incident Commander should consider what is happening, what is about to happen and what to
do to preserve life and property.
h) Consideration shall be given to preservation of accident site.
12.3.27 Evacuation. As previously stated, the final determination regarding evacuation from the aircraft
must be made by the pilot in command with input from the RFF incident commander.
12.3.28 An unnecessary evacuation may be prevented by RFF personnel communicating with the flight
crew on the appropriate frequency and giving the flight crew a report on exterior conditions. Remember,
once an evacuation is initiated it cannot be stopped. Most engines, wheel assembly, and other minor
exterior emergencies, can be controlled by RFF personnel, without threatening the aircraft occupants
requiring an evacuation. An unnecessary evacuation can endanger and injure the evacuees. The decision
to evacuate is always ultimately the call of the pilot in command. RFF personnel should not impede the
evacuation and should not attempt to enter the fuselage but instead provide assistance and be prepared to
assist those not capable of self-evacuation.
12.3.29 Nearly all aircraft are equipped with emergency evacuation equipment and the crew members
should be competent in the use of this equipment. Some of the RFF personnel carry emergency aircraft
evacuation stairs and in such cases, the crew members should be informed of the availability of these
stairs. Where evacuation slides are in use, they should not be disturbed unless they are damaged. If they
have not been activated, or if they have been damaged, evacuation stairs should be placed in use. These
stairs could also prove beneficial in evacuation off wing surfaces where the distance from the wing to the
ground is excessive.
12.3.30 Normal evacuation routes may include both over wing window exits and available doors. The
use of over wing exits presents hazards if the aircraft is in the normal position with gear extended or
collapsed. The distance to the ground from the wing surfaces may be excessive and cause serious injury to
those evacuating from the aircraft. Leading edge wing evacuation should be considered where fire may
block the normal evacuation off the trailing edge of the wings. It is recommended that only the aircraft
doors equipped with stairs or slides be used where immediate life safety is not a factor.
12.4.1 Dangerous goods are frequently carried in commercial transport aircraft, on both passenger and
cargo flights. The types of dangerous goods which are permitted for carriage, and the conditions under
which they may be carried, are explained in the ICAO Technical Instructions for the Safe Transport of
Dangerous Goods by Air (Doc 9284) which, pursuant to the provisions of Annex 18 — The Safe
Transport of Dangerous Goods by Air are to be applied by all Contracting States. Reference should be
made to the Technical Instructions for full details on the transport of dangerous goods by air.
12.4.2 Dangerous goods shipments by civilian aircraft are regulated by the Code of Federal
Regulations (CFR) Title 49, Part 175, Carriage by Aircraft, in the United States and by the International
Air Transport Association (IATA) regulations for international shipments. The IATA regulations are
based upon the "Technical Instructions for the Safe Transportation of Dangerous Goods by Air",
published by the International Civil Aviation Organization (ICAO). Dangerous goods may be shipped
within the United States following IATA regulations instead of Title 49.
12.4.3 While thousands of chemicals are considered to be hazardous if released from their containers,
those chemicals considered hazardous in transport are listed in Table 172.101 in Title 49. This table also
provides information concerning reportable quantities (RQ) of dangerous goods. Transportation of
dangerous goods by air is highly regulated, consult applicable regulations for a list of dangerous goods
that can be and are shipped by air.
12.4.4 Under the provisions of the Technical Instructions, certain types of dangerous goods presenting
extreme hazards are forbidden from transport by air under any circumstances. Other less dangerous
varieties, although normally forbidden for transport by air, may be transported under certain conditions
under the terms of an “exemption”, but only with the specific approval of all States concerned (i.e. States
of origin, transit, destination and over flight). Of those types of dangerous goods normally permitted to be
transported by air, only those of a relatively limited degree of hazard by air, only those of a relatively
limited degree of hazard are permitted aboard passenger aircraft with the remaining, more dangerous
goods, restricted to transport aboard cargo aircraft only.
Dangerous goods defined
12.4.5 Dangerous goods are articles or substances which are capable of posing significant risk to health,
safety or property when transported by air. For the purposes of air transport they are divided by the
Technical Instructions into nine classes reflecting the type of hazard they present to transport workers and
emergency response personnel.
12.4.6 The nine classes of dangerous goods are:
Class 1 Explosives
Class 2 Gases: compressed, liquefied, dissolved under pressure or deeply refrigerated
Class 3 Flammable liquids
Class 4 Flammable solids; substances liable to spontaneous combustion; substances
which, in contact with water, emit flammable gases
Class 5 Oxidizing substances; organic peroxides Class
Class 6 Poisonous (toxic) and infectious substances
Class 7 Radioactive materials
Class 8 Corrosives
Class 9 Miscellaneous dangerous goods: that is, articles or substances which, during air
transport, present a danger not covered by other classes. Examples: magnetized
material; acetaldehyde ammonia; expandable polystyrene beads and lithium
Note.— The order in which these classes are listed does not imply a relative degree of hazard.
12.4.7 In some classes, dangerous goods are further divided into divisions. The division is expressed
by placing a decimal point after the class number and reflecting the number of the division, i.e. Division
6.1. In these cases, reference is made only to the division and not to the class, e.g. Division 5.2, not Class
5, Division 2.
Communication of hazards presented by dangerous goods
12.4.8 As a condition for transporting dangerous goods by air, the Technical Instructions prescribe
certain actions that must be taken to advise transport workers and emergency response personnel of the
hazards presented by the dangerous goods transported. These hazards are communicated principally
through markings and labels applied to the package of dangerous goods and through the provision of
certain information in transport documents that accompany a shipment.
12.4.9 Package markings and labels. Packages of dangerous goods are required to be marked with the
“proper shipping name” of the dangerous goods, as listed in the Technical Instructions, and with the
corresponding 4-digit “United Nations (UN) number”, used to identify the substance. The package is also
required to bear one or more hazard labels. These labels are in the form of a 100 mm × 100 mm square on
point, with a distinctive symbol and colour. These package markings and labels enable emergency
response personnel to immediately recognize the nature of the hazards presented by any dangerous goods
that may be encountered.
12.4.10 Transport documentation. The Technical Instructions require that when dangerous goods are
offered for transport the shipper must provide to the operator a transport document which contains certain
information relative to the dangerous goods. The information required includes the proper shipping name,
hazard class or division number, UN number and subsidiary risk of the goods. From this document, the
operator prepares a notification to pilot-in-command that provides the information relative to the hazards
of the dangerous goods aboard the aircraft to the pilot as well as the location in the aircraft where the
dangerous goods have been loaded. The notification to pilot-in-command must be provided to the aircraft
commander as early as practicable before departure and must be readily available in flight.
12.4.11 Information by pilot-in-command in case of in-flight emergency. If an in-flight emergency
occurs, the pilot-in-command should inform the appropriate air traffic services unit, for the information of
aerodrome authorities and RFF services, of any dangerous goods on board. If the situation permits, the
information provided should include the proper shipping names, class and subsidiary risks, the
compatibility group for Class 1 and the quantity of each type of dangerous goods as well as the location
where they are stowed aboard the aircraft. If a l engthy message is impossible, the dangerous goods on
board may be identified by transmitting the UN numbers.
Emergency actions
12.4.12 General. Many types of dangerous goods (e.g. flammable liquids) would be consumed in large
aircraft fires and consideration of the possible types and amount of cargo aboard an aircraft suggests a
potential for an even greater hazard. RFF personnel should use proper procedures in response, scene sizeup/assess the situation, and operations to ensure they are protected from the effects of dangerous goods.
As with any fire, however, personal protective clothing, including breathing apparatus (as a minimum),
should always be worn. As far as possible, RFF personnel should stay position upwind and out of smoke,
fumes and dust.
12.4.13 On cargo-carrying aircraft, hazardous freight is usually placed in unit load devices; which are
aircraft containers, aircraft pallets, which may be secured with a net. These containers are then loaded
aboard the aircraft. S ome air carriers use specially modified unit load devices for transporting certain
dangerous goods on the main deck of freighter aircraft. These containers may have special colors and
include an integral fire suppression capability. (Unit load devices containing dangerous goods will have a
small tag wired to the outside or placed in a plastic window, indicating which of the nine hazard classes,
previously listed, are shipped inside. The tag will usually have a red “red striped” border. Special
discharge nozzles located inside the container are coupled to a portable extinguisher by a connection on
the exterior of the unit. Flight personnel can manually discharge extinguishing agent into the container
without having to open it. Certain dangerous goods must be accessible to the crew in flight in case of a
leak or fire. As a general rule, most dangerous goods on the main deck of cargo aircraft are loaded in the
most forward location.
12.4.14 Explosives. The types of explosives normally permitted aboard passenger or cargo aircraft
would be classified in Division 1.4. B y definition, this division is comprised of explosive articles or
substances which present no significant hazard in the event of accidental ignition or initiation during
transport. The effects are largely confined to the package (unless the package has been degraded by fire)
and no projection of fragments of appreciable size or range is to be expected. An external fire should not
result in an instantaneous explosion of virtually the entire contents of the package. The only type of explosives normally permitted aboard passenger aircraft are those classed
in Division 1.4, Compatibility Group S. These are explosives for which, even when the package is
degraded by fire, blast and projection effects are limited to the extent that they do not significantly hinder
firefighting or other emergency response efforts in the immediate vicinity of the package. Where
circumstances permit, an effort should be made to ascertain the classification of any explosives aboard an
aircraft, e.g. through information provided by the crew (see 12.4.9), since in certain cases explosives of
other than Division 1.4 which could pose a risk of mass detonation in a fire, may be carried under an
exemption issued by the States concerned. I CAO Dangerous Good Manual (Doc 9284) will identify
which dangerous goods can only be shipped on cargo aircraft & which can be shipped on both cargo &
passenger aircraft. Materials that can only be shipped on cargo aircraft will have “cargo aircraft only”
labels on the shipment. RFF personnel should be familiar with local air cargo loading procedures.
12.4.15 Gases. Cylinders of compressed or liquefied gases may present a risk of explosion if involved
in an aircraft fire. However, as these cylinders are normally constructed to standards similar to those to
which oxygen or air cylinders installed in aircraft are constructed, pose a significant risk if they rupture or
are exposed to direct fire contact.
12.4.16 Flammable Liquids. Flammable liquids include liquids or mixture of liquids, liquids containing
solids in solution or in suspension that give off a flammable vapour at temperature of not more than
60.5oC. Typically, flammable liquids will cause bigger fire than flammable gases as t hey are more
concentrated. The vapours of many flammable liquids are also usually heavier than air and most of such
liquids will float in water. Methods used to extinguish fires involving jet fuel can be similarly used for
flammable liquid.
12.4.17 Flammable Solids. Flammable solids refer to all solids and substances which are liable for
spontaneous combustion, or substances which emit flammable vapours on contact with air, moisture or
water, which may lead to fire or explosion. As most of these materials may react violently with water or
air, RFF personnel must be cautious when using water as an extinguishing agent.
12.4.18 Oxidizing Substances, Organic Peroxides. Oxidizing substances are not necessarily combustible,
but may generally cause or contribute to the combustion of other material. Organic peroxides are
thermally unstable and may undergo exothermic (and explosive), self-accelerating decomposition. They
are sensitive to heat, shock, impact or friction, and react dangerously with other substances, i.e. may cause
an explosion when mixed with jet fuel.
12.4.19 Poisonous (toxic) and Infectious Substances. Poisonous (toxic) substances are liquids or solids
which are known to be liable to cause death if swallowed, inhaled or contacted by the skin. Infectious
substances are materials that may cause disease in humans or animals, and include microorganisms and
organisms, biological products, diagnostic specimens, and medical waste. Some of these substances may
burn, but they do not ignite easily. If these substances are present at the scene of fire, it is advisable to
fight the fire from a maximum distance as it is more of a health hazard rather than a fire hazard.
12.4.20 Radioactive materials. Fires involving radioactive materials should be handled in the same
manner as fires involving toxic materials. Standard protective clothing and respiratory protection provides
some protection against radioactive contamination but not, however, from some direct radiation effects.
Fires and the air currents they create, and the use of foam, water or chemicals to suppress fire, can spread
radioactive materials about the accident site. RFF personnel entering and working in an aircraft incident
scene or impact area should be utilizing the appropriate personal protective equipment (PPE) and receive
the appropriate level of decontamination immediately after their duties are completed. In the event radioactive materials are suspected, the following general procedures should be
a) the nearest authority concerned with atomic energy or the nearest military base or civil defense
organization to the accident site should be notified immediately. They may be able to respond
to the accident with a radiological team;
b) injured persons should be wrapped in blankets or other available covering (to reduce the
possible spread of contamination) and immediately transported to medical facilities with
instruction to the drivers or attendants that the injured persons may be radioactively
contaminated and that they should so inform medical facility personnel who are to care for
c) other persons who might have had possible contact with radioactive material should be
sequestered until they have examined by radiological teams;
d) suspected material should be identified but not handled until it has been monitored and released
by radiological emergency teams. Clothing and tools used at the accident scene should be
retained in isolation until they can be checked by a radiological emergency team;
e) food or drinking water that may have been in contact with material from the accident should not
be used;
f) only properly attired RFF personnel should remain on the scene; all other persons should be
kept as far away from the scene as possible;
g) all hospitals shall be notified immediately that radioactive materials are involved so that
appropriate radioactive decontamination areas may be established; and
h) packages of radioactive material should be cordoned off; any loose materials should be covered
with plastic sheets or tarpaulins to minimize dispersion by wind or rain.
12.4.21 Corrosives. Substances that are grouped in this class may in their original state, damage living
tissues severely. These corrosives can also release vapour that may irritate the nose and eyes. A few of
these substances may produce toxic gases when decomposed by very high temperatures. Some corrosives
are also toxic and may result in poisoning if swallowed. Corrosives are usually acids or alkalis, which can
be water reactive, flammable (for organic acids), very reactive and unstable oxidizers. PPE should be
worn by all RFF personnel when these substances are present at the scene of fire.
12.4.22 Miscellaneous Dangerous Goods. This comprises substances and articles which present a
danger not covered by other classes. It includes a number of substances and articles which present a
relatively low hazard, such as environmental pollutants. Examples of these substances are dry ice, molten
sulphur, polychlorinated biphenyls, batteries containing lithium, magnets, etc.
12.4.23 Spills and leaks General. Dangerous goods packages not consumed in, or affected by an aircraft fire may be
found damaged and leaking at an accident site. Such damaged and leaking packages may pose a
significant risk of injury or adverse health effects to aircraft occupants and RFF personnel. Hazard labels
and package markings (see 12.4.7) can be of assistance in identifying the types of dangerous goods
involved as well as the nature and seriousness of the hazard they present. Once initial rescue operations
are completed, special precautions should be taken with such packages and, if necessary, pre-identified
trained personnel assembled to deal with the problems involved. Particular problems may be encountered
with radioactive materials (Class 7) and poisonous and infectious (Class 6) substances. Poisonous and infectious substances. In the event of an occurrence involving poisonous or
infectious substances, food or drinking water that may have been in contact with the material should not
be used. The public health and veterinary authorities should be informed immediately. Any person
exposed to these dangerous goods should be removed from the scene of the occurrence and transported
for decontamination as soon as possible to the appropriate medical facilities. Additional information. A number of publications are available that provide more detailed
guidance to fire departments and other interested agencies relative to actions to be taken in response to
accidents or incidents involving dangerous goods. The ICAO publication Emergency Response Guidance
for Aircraft Incidents involving Dangerous Goods (Doc 9481) provides information intended for use by
aircraft crews during in-flight dangerous goods emergencies. For accidents or incidents occurring on the
ground, the Emergency Response Guidebook published by the United States Department of
Transportation, Washington, D.C., and the Response Guide for Dangerous Goods published by Transport
Canada, Ottawa, are particularly useful.
Unlawful interference
12.4.24 An aircraft which is subjected to a threat of sabotage or unlawful seizure should be parked at an
isolated aeroplane parking position located on an area at least 100 m away from other aircraft parking
positions, buildings or public areas until the act of unlawful interference is terminated. In such cases it
may be necessary to evacuate passengers without the use of loading ramps provided at the passenger
terminal. Motorized loading ramps may be available which could be driven to the site, or emergency
evacuation stairs or the aircraft’s slides could be used. Detailed information on procedures for dealing
with unlawful interference is given in the ICAO Security Manual.
12.4.25 Chemical, biological and radioactive threats (unknown substances). Although all dangerous
goods are required to be clearly labeled and packed, there could be scenarios where substances are
unknown and that they may be unlawfully released in an aircraft or within the aerodrome premise. For
RFF personnel who may need to identify unknown substances, RFF services may want to equip
themselves with the basic equipment to detect the nature of such substances. These include any chemical,
biological or radioactive detectors.
12.5.1 Rescue units should familiarize themselves with all regulations, national and local, regarding
movements of wreckage and disposal of human remains and the preservation of evidence. It is also
important to understand the techniques and procedures used in aircraft accident investigation. After fire
suppression and survivor rescue have been completed, the following procedures should be observed.
12.5.2 Removal of bodies of fatality injured occupants remaining in wreckage after the fire has been
extinguished or controlled should be accomplished only by or under the direction of responsible medical
authorities. Premature body removal has, in many cases, interfered with identification and destroyed
pathological evidence required by the medical examiner, coroner or authority having investigational
12.5.3 If extrication of casualties from aircraft wreckage is necessary, the position and seat number in
which the survivors were located in the aircraft should be recorded at the earliest opportunity. Where
casualties are located at positions away from the wreckage, the positions should be marked by a st ake
with a label identifying the victim and the seat. In all cases the casualties should have an identifying label
attached to them stating where they were found and in which seat. Similarly, personal belongings should
remain attached. Apart from gaining information which may assist in the accident investigation, the
careful recording of all these data may assist in the identification of casualties.
12.5.4 If circumstances permit, the area should be photographed for future reference prior to any body
removal activity. Photographs are advantageous tools to aid investigators and should be given as soon as
practicable to the appropriate agency having responsibility for the accident investigation. To this end, it
may be desirable to appoint a RFF photographer so that the scene can be photographed for future accident
investigation purposes.
12.5.5 The wreckage of an aircraft involved in an accident, including controls, shall not be disturbed
(moved) until released for removal by the investigational authority having jurisdiction. If the aircraft,
parts, or controls must be moved because they directly present a hazard to human life, efforts should be
made to record their original condition, positions, and locations, and due care should be afforded to
preserve all physical evidence. If circumstances permit, photographs should be taken showing the location
and position of all major components marked on the ground. Details on removal of disabled aircraft can
be found in the Airport Services Manual (Doc 9137), Part 5. — Removal of Disabled Aircraft.
12.5.6 On completion of the initial rescue operation, it is important that the RFF personnel exercise as
much care as possible to ensure their movements do not destroy evidence which may be of value in the
investigation. For example, movement of ambulance and RFF vehicles should not be made along the
wreckage trail if alternative access is possible.
12.5.7 The location of mail sacks and pouches should be observed and this information given to postal
authorities. If necessary, the mail should be protected from further damage.
12.5.8 Aviation fuels and hydraulic fluids may cause dermatitis by contact with the skin. RFF personnel
who have had these fluids spilled on them should be washed thoroughly with soap and water as soon as
possible. Wet clothing and uniforms should be changed and decontaminated promptly.
Chapter 13
13.1.1 At airports where a significant proportion of aircraft arrivals and departures takes place over
water, swampy areas or other forms of difficult terrain in the immediate vicinity of the airport and where
conventional RFF vehicles may not be capable of an effective response. the airport or appropriate
authority should ensure the availability of special procedures and equipment to deal with accidents which
may occur in these areas. These facilities need not be located on, or be provided by, the airport if they can
be made immediately available by off-airport agencies as part of the airport emergency plan. In all cases
the airport or appropriate authority must determine and specify in advance the response area for which it
undertakes to provide a rescue service.
13.1.2 In producing its detailed plan the airport or appropriate authority should have regard to the
services and facilities already provided by the search and rescue organization in accordance with 4.2.1 of
Annex 12, to ensure that the separate responsibilities for an aircraft accident in the vicinity of the airport
are clearly delineated. All operations, and any exercises conducted to test operational efficiency, should
involve the relevant rescue co-ordination centre, to ensure the effective mobilization of all resources.
Matters dealing with services and facilities necessary to provide practical and economical search and
rescue coverage of a given area are described in the Search and Rescue Manual (Doc 7333), Part 1. —
The Search and Rescue Organization.
13.1.3 The objectives of each operation must be to create conditions in which survival is possible and
from which the total rescue operation can succeed. This concept anticipates that the initial, rapid response
attendance may have to provide a preliminary level of succour while awaiting the arrival of a larger
rescue force. The first stage would have as its objective the removal of immediate hazards to survivors,
their protection, including the first-aid treatment of injuries, and the use of communications equipment to
identify the locations to which additional rescue forces must respond. The emphasis will be on rescue and
need not include any firefighting capability.
If a fire situation has occurred in the impact stage of an accident the inevitably extended response times of
the first vehicles are likely to preclude effective firefighting operations. The scale of provision of rescue
equipment should be related to the capacities of the larger aircraft using the airport. Typical capacities of
passengers are provided in the aircraft diagrams in the websites of the various aircraft manufacturers
referred to in Appendix 1.
13.1.4 The types of difficult terrain for which special rescue facilities may be required will include:
a) the sea or other large bodies of water adjacent to the airport;
b) swamps or other similar surfaces, including the estuaries of tidal rivers;
c) mountainous areas;
d) desert areas; and
e) locations which are subject to heavy seasonal snowfalls.
13.1.5 The equipment to be deployed in effecting a rescue operation will vary with the environment in
which the operation is to be conducted. The training required by the personnel delegated to these duties
will similarly reflect the terrain conditions. In all situations the basic equipment may include:
a) communications equipment, which may include equipment for visual signals. Ideally the
use of a transmitter on the distress frequency will provide a link with air traffic control
and the emergency operations centre;
b) navigation aids;
c) medical first aid equipment;
d) life-support equipment, including life-jackets in marine situations, shelter, foil blankets
and drinking water;
e) lighting equipment; and
f) lines, boat hooks, loudhailers and tools, e.g. wire cutters and harness knives.
13.1.6 The types of vehicle available for rescue operations in difficult terrain will include:
a) helicopters;
b) hovercraft;
c) boats, of a number of types and capacities;
d) amphibious vehicles;
e) tracked vehicles; and
f) all-terrain vehicles, including those employing ground-effect to minimize wheel-loadings.
13.1.7 In most States the more complex forms of vehicles are already in service with military
formations or other forms of security organizations, from which valuable operational performance data
may be available. Some of the more obvious factors relating to each type of vehicle are discussed below.
a) Helicopters. The variety of helicopters now in general service offer a range of emergency
options, dependent on the capacity, endurance and operational limitations of each type.
The larger helicopters, with trained crews specializing in rescue operations, are most
often deployed by military agencies and may be available in emergencies to civil airports.
For successful liaison with helicopters, in operations on land or in the water, a
communications link is essential, with control of the surface facility under the direction
of a person familiar with the operational requirements of helicopters. This will reduce the
hazard to the helicopter, particularly at night, from obstructions and the movement of
vehicles and personnel at the accident site. Helicopters can be used to drop life rafts and
other flotation devices in marine situations and other forms of life-support equipment in
land-based accident situations. Where an aircraft accident has occurred in the water and a
large number of survivors maybe at risk it will be essential to have personnel, with life
rafts or dinghies, at the surface, where the survivors may require assistance to reach a
safe location before final rescue can take place. It may therefore be necessary to link any
helicopter rescue effort with a simultaneous surface operation. It should also be noted that
the downwash from helicopters can cause serious distress to survivors in the water by
creating turbulence. The use of helicopters as airborne control positions or as a source of
floodlighting can be advantageous. The cost involved in housing, operating and
maintaining a continuously-available rescue helicopter may preclude its provision as an
airport facility but arrangements with military or commercial organizations should secure
its availability in an emergency.
b) Hovercraft. These offer an adaptable form of transport with operational performance,
capacity and cost being related to size. The smaller hovercraft have a limited capability
for clearing obstructions and when operated on water may be restricted by wave height.
They also have a limited capacity for accommodating survivors but this can be offset by
their ability to deliver survival equipment to an accident site. As with helicopters, the
hovercraft will need a highly-trained operator and skilled maintenance personnel to
maximize its operational availability and deployment. The costs of housing, operating
and maintaining a hovercraft, which may need a s lipway to facilitate its deployment to
any tidal water surface, will be substantial.
c) Boats. In selecting the type of rescue boat to be operated it will first be necessary to
consider the range of water surface conditions likely to be encountered, the depth of
water in the response area, any sub-surface hazard, such as rocks and coral reefs, and then
the role to be accorded to each boat. The expertise necessary to make the appropriate
choice will be available within each State, permitting a choice to be made from the wide
range of options. These would include rigid-hulled sea-going craft, with considerable
range and capacity and smaller, inflatable craft, with outboard motors, primarily intended
for inshore operations. Some States have combined the inshore rescue and the search and
rescue roles, providing vessels with advanced navigational equipment and major medical
facilities. In other States the inshore rescue facility is provided by the airport or
appropriate authority using trained RFF personnel to crew inflatable craft. These craft,
mounted on trailers for rapid deployment and ease of launching, carry containers holding
inflatable life rafts which can be deployed at the accident site to accommodate survivors.
There are also relatively small rigid-hulled craft which achieve their propulsion by means
of sub-surface water jets, thus eliminating the hazard of propellers to survivors in the
water. These, too, can carry life rafts. The life rafts, once filled with survivors, are not
easily towed but they can be marshalled and secured against drifting by the powered
rescue craft, until additional support arrives. There will also be marine craft available
from commercial sources and from private users but their acceptability in a rescue
support role will be dependent on the speed with which they can be dispatched and the
existence of communications which will permit their control. Random interventions,
although desirable on humanitarian grounds, can create difficulties at the accident site.
d) Amphibious vehicles. These are usually wheeled vehicles, relatively small in size and
primarily in use by military and security forces. Their speed on water is slow and their
capacity is limited. One exception to this classification, already in use at an airport as a
rescue craft, is a vehicle having its propulsion provided by two longitudinal cylinders
with a raised helical section. This vehicle can operate on paved surfaces, water or mud,
having a hull which provides buoyancy. Within the hull there is accommodation for
rescue equipment, including life rafts, and some capacity for survivors once the life rafts
have been deployed. All amphibious vehicles would require a launching ramp to facilitate
their entry into water as they cannot negotiate significant obstructions. As with all
vehicles, they require effective maintenance, particularly in the design features which
provide buoyancy.
e) Tracked vehicles. These can be effective in negotiating rough ground and deep snow but
all vehicles of this type have a relatively low payload to gross weight factor. They are
usually slower then wheeled vehicles of similar capacities but are superior in their ability
to tow sledges over snow-covered surfaces. Some tracked vehicles are in use as rescue
vehicles at airports. They require skilled maintenance to preserve their availability. A
tracked vehicle can serve to convey personnel and small items of equipment to the
accident site on snow-covered surfaces but is unlikely to have any other significant role.
f) Ground-effect vehicles. The early studies of vehicles in this category, mainly in military
and agricultural applications, showed that some reduction in wheel loadings could be
achieved. The absence of production vehicles suggests that the technical problems have
proved difficult to resolve. The availability of alternative solutions for soft ground
operations may also have contributed to the lack of progress with this form of vehicle.
13.2.1 Where airports are situated adjacent to large bodies of water such as rivers or lakes, or where
they are located on coastlines, special provisions should be made to expedite rescue.
13.2.2 In such incidents the possibility of fire is appreciably reduced due to the suppression of ignition
sources. In situations where fire is present, its control and extinguishment present unusual problems
unless the proper equipment is available.
13.2.3 It can be anticipated that the impact of the aircraft into the water might rupture fuel tanks and
lines. It is reasonable to assume that quantities of fuel will be found floating on the surface of the water.
Boats having exhausts at the waterline may present an ignition hazard if operated where this condition is
present. Wind and water currents must be taken into consideration in order to prevent floating fuel from
moving into areas where it would be hazardous. Care should be taken in the use of flares, flame floats or
other pyrotechnics where fuel is present on the water. As soon as possible these pockets of fuel should
either be broken up or moved with large velocity nozzles or neutralized by covering them with foam or a
high concentration of dry chemical powders. Calm surfaces will usually present more of a problem than
choppy or rough surfaces.
13.2.4 Diving units should be dispatched to the scene. When available, helicopters can be used to
expedite the transportation of divers to the actual area of the crash. All divers who may be called for this
type of service should be highly trained in both scuba diving and underwater search and recovery
techniques. In areas where there are no operating governmental or municipal underwater search and
recovery teams, arrangements may be made with private diving clubs. The qualifications of the individual
divers should be established by training and practical examination.
13.2.5 In all operations where divers are in the water, the standard diver’s flag should be flown and
boats operating in the area should be warned to exercise extreme caution.
13.2.6 Where fire is present, approach should be made after wind direction and velocity, water current
and swiftness are taken into consideration. Fire may be moved away from the area by using a sweeping
technique with hose streams. Foam and other extinguishing agents should be used where necessary.
13.2.7 It should be anticipated that victims are more apt to be found downwind or downstream. This
should be taken into consideration in planning the attack.
13.2.8 Where the distance offshore is within range, dacron-covered, rubber-lined fire lines can be
floated into position by divers or boats and used to supplement fire boats. In an emergency, rafts can be
assembled by two persons exhaling into a section of 6 c m fire hose, coupling it to itself, folding and
binding it with hose straps.
13.2.9 Where occupied sections of aircraft are found floating, great care must be exercised to not
disturb their watertight integrity. Removal of the occupants should be accomplished as smoothly and
quickly as possible. Any shift in weight or lapse in time may result in their sinking. Rescuers should use
caution so that they are not trapped and drowned in these situations.
13.2.10 Where occupied sections of the aircraft are found submerged, there remains the possibility that
there may be enough air trapped inside to maintain life. Entry by divers should be made at the deepest
point possible.
13.2.11 Where only the approximate location of the crash is established upon arrival, divers should use
standard underwater search patterns marking the locations of the major parts of the aircraft with marker
buoys. If sufficient divers are not available, dragging operations should be conducted from surface craft.
In no instance should dragging and diving operations be conducted simultaneously.
13.2.12 A command post should be established at the most feasible location on an adjacent shore. This
should be located in a position to facilitate the in and out movement of water rescue vehicles.
An assessment of the approach and departure areas within 1000 m of the runway threshold should be
carried out to determine the options available for rescue, including suitable resources that should be
provided. In considering the need for any specialist rescue and access routes, the following should be
a) the environment, in particular the topography and composition of the surface;
b) physical hazards and associated risks that exist within the area;
c) options for access and for RFF purposes;
d) hazards, risks and control measures of the options for rescue;
e) use of external services;
f) an analysis of the advantages and disadvantages of the options;
g) policies and procedures to define and implement practices;
h) competence standards to match the above; and
i) monitoring testing and review of the capability.
Aerodrome Operators and/or RFF Service (RFFS) providers should ensure the development of special
procedures and availability of equipment to deal with accidents or incidents that may occur in these areas.
These facilities that house this equipment need not be located on, or provided by, the aerodrome if they
can be made available within reasonable time frames by off-aerodrome agencies as detailed in the
Aerodrome Emergency Plan.
Where RFFS vehicles respond to accidents or incidents using the public highway, an assessment of the
implications of such a response should be carried out. The following should be considered:
a) legal requirements for vehicles and drivers;
b) that suitable policies and procedures are in place;
c) competence and training requirements for drivers;
d) pre-planning of routes for suitability; and
e) monitoring and review of such responses.
Consideration should be given to the following:
a) provide direct access to the operational runway(s);
b) designate access routes to the response area ( consider debris and casualties);
c) maintenance of roads and access routes (including construction activities);
d) mitigate the possibility of any public and/or private non-emergency vehicle blocking the progress of
responding emergency vehicles;
e) take into account the gross weight and maximum dimensions of the RFFS vehicle(s) expected to use
them; or any other responding vehicles;
f) that roads are capable of being traversed in expected conditions;
g) exit/access gates or frangible sections in the security fence that are constructed to allow RFFS vehicles
to safely pass through with minimal delay;
h) exit/access points will need to be clearly identified. Retro-reflective tape or markers will be of
assistance where the aerodrome may need to be accessible during the hours of darkness or conditions of
low visibility;
i) the mitigation of impediments to RFF vehicle mobility; and
j) provide sufficient vertical clearance from overhead obstructions for the largest RFFS vehicle/s.
Maintaining the Response Capability in Low Visibility Conditions
To meet the operational objective as nearly as possible in less than optimum conditions of visibility,
especially during low visibility operations, suitable guidance, equipment and/or procedures for RFF
services should be provided.
RFFS vehicles should approach any aircraft accident or incident by the quickest route commensurate
with safety, although this might not necessarily be the shortest distance to the incident site. Traversing
through unimproved areas can take longer than travelling a greater distance on paved surfaces, therefore a
thorough knowledge by RFFS personnel of the topography of the aerodrome and its immediate vicinity
for all weather conditions is paramount. The use of grid maps and careful selection of routes is essential
for success in meeting the response objectives.
RFFS vehicles should be equipped with an airfield chart clearly showing all taxiways, runways,
holding points and vehicle routes marked with their appropriate designation. The chart(s) should be
accompanied by written instructions clearly detailing the action that the driver should take in the event of
vehicle break down or that the driver should become unsure of the vehicle’s position on the aerodrome.
Consideration should be given to the provision and use of technical equipment, e.g. surface
movement radar, infrared vision systems, taxiway centreline lighting, vehicle positioning equipment and
other navigation aids that could enhance RFFS response to the location of an accident or incident site in
low visibility conditions.
Once low visibility operations have been initiated it may be necessary to restrict the operation of
vehicles in the aircraft manoeuvring area. Procedures developed for ATC to assist the RFFS in case of an
accident or incident should be put in place.
RFFS and associated external emergency response personnel should be made aware of the existence
of any areas that may, from time to time, become impassable because of weather or other conditions, and
of the location of obstacles both permanent and temporary.
Operational procedures should be developed through which Air Traffic Control (ATC) stop or divert
all aircraft and non-essential traffic that conflicts with responding RFFS vehicles. RFFS personnel should
continuously monitor the minimum visibility operating conditions in order to maintain response
capability under such conditions.
The training to be undertaken by personnel appointed to specialized rescue vehicles and their associated
equipment will not present significant problems. Where there are particular forms of hazard, such as the
sea, mountains or desert areas, there will be individuals who have experience in operating and surviving
in these environments. These experts could provide the basic instruction required by crew members,
adapting as n ecessary to accommodate new types of equipment. The manufacturers of specialized
equipment can also provide expertise. The principal aim of training will be to instill confidence in
equipment of all types, to establish the operating limits of vehicles and equipment and to develop the
teamwork which converts individuals into an effective crew. In this process it is essential to create team
leaders who will have the absolute authority to determine when to mount a rescue operation. There may
well be occasions when prudence will decree that operations in intolerable conditions would merely add
to the casualties without any reasonable expectation of success.
13.5.1 While the airport or appropriate authority may initiate the call for a rescue operation and
dispatch a unit from within the airport there will be supporting forces from off-airport agencies. These
may include, in appropriate circumstances, military units, medical services, mountain rescue teams, divers
and civil defence contingents of various types. The co-ordination of these services will require the same
degree of effort as is necessary in developing the airport emergency plan (see Airport Services Manual
(Doc 9137), Part 7. — Airport Emergency Planning).
13.5.2 In particular, the need for effective communications will be paramount. Survivors of an aircraft
accident, recovered from a difficult location, must be brought to one or more assembly points at which
conventional ambulances and medical assistance will be waiting. Prior notification of injuries by radio
can ensure that appropriate treatment is available and that specialized hospitals prepare reception facilities.
Realistic simulations of incidents will contribute to inter-service liaison and identify areas in which
improvements in facilities or procedures can provide a more effective service.
Chapter 14
14.1.1 Personnel whose duties consist solely of the provision of RFF services for aircraft operations
are infrequently called upon to face a serious situation involving life-saving at a major aircraft fire. They
will experience a few incidents and a larger number of standbys to cover movements of aircraft in
circumstances where the possibility of an accident may reasonably be anticipated but will seldom called
upon to put their knowledge and experience to the test. It follows, therefore, that only by means of a most
carefully planned and rigorously followed programme of training can there be any assurance that both
personnel and equipment will be capable in dealing with a major aircraft fire should the necessity arise.
The core training programme can be organized into nine faculties as follows:
a) fire dynamics, toxicity and basic first aid;
b) extinguishing agents and firefighting techniques;
c) handling of vehicles, vessels and equipment;
d) airfield layout and aircraft construction;
e) operational tactics and manoeuvres;
f) emergency communication;
g) leadership performance;
h) physical fitness; and
i) auxiliary modules (e.g. rescue in difficult terrain, response to biological/chemical
threats etc.)
14.1.2 The core training curriculum should include initial and recurrent instruction. The scope of
instruction should vary with the degree of intelligence of the trainees. In most cases the simpler this form
of instruction is kept, the more successful it is likely to be. In no case should enthusiasm engendered by
the interest value of the subject be allowed to carry the instruction beyond its practical application.
Nevertheless, the officer responsible for the training programme must endeavour to maintain the interest
and enthusiasm of the crew at all times. In certain respect this will not be too difficult. There are many
factors affecting RFF procedures at an aircraft accident which may be anticipated, staged, and practised
so that the officer has an opportunity of sustaining the interest indefinitely. Each new type of aircraft
brings with it new problems which must be assessed and incorporated in the training programme. As
certain routine aspects of training may become less interesting over a long period it is therefore essential
that the officer ensure each crew member realizes the need for such training. For example, it is a
fundamental practice in the RFF service that each crew member, when on duty, be satisfied that the
equipment which may be used is serviceable. T his particular aspect of a crew member’s duty could
deteriorate after a long period of comparative inaction unless that person is really convinced of the
importance of this task.
14.1.3 The entire training programme must be designed to ensure that both personnel and equipment
are at all times fully efficient. This represents a very high standard of achievement but anything less than
full efficiency is unacceptable and may be dangerous both to those in need of aid and also to those who
are seeking to give such aid. In addition, the training programme must also be designed to build
cohesiveness between key functional units of a RFF team in order to deliver a consistent level of
proficiency during emergencies. To ensure a high standard of operational readiness, RFF services should
develop a competency audit framework to assess the effectiveness of RFF training at both individual and
team levels.
14.2.1 All RFF personnel should have a general knowledge of the cause of fire, the factors contributing
to the spread of fire and the principles of fire extinction. Only when armed with this knowledge can they
be expected to react effectively when confronted with a serious fire situation. It must be known, for
instance, that certain types of fire require a cooling agent while others need a blanketing or smothering
action. R FF training should also touch on the toxicity of thermal decomposition products. This will
enable fire fighters to better understand the importance and limitations of their protective equipment. In
doing so, fire fighters will avoid a f alse sense of security and take extra precautions when leading the
occupants of the aircraft through a dangerous atmosphere. In addition, every member of the rescue team
should, if at all possible, be trained and periodically recertified in basic medical first aid, as a minimum.
The prime reason for this qualification is to ensure that casualties are well handled so as to avoid the
infliction of additional suffering and/or injury in the removal of the occupants from a crashed aircraft.
14.3.1 It is essential that a thorough knowledge should be acquired of the agents employed. In
particular, every opportunity should be taken to practice the application of agents on fires in order to
understand by experience not only the virtues but also the limitations of each agent. Each occasion of a
routine equipment test should be used for a training exercise in the proper handling of equipment and the
correct application of the particular agent involved. The combination of routine test procedures with
training periods will minimize the costs involved in the discharge of extinguishing agents.
14.3.2 To carry out fire suppression at different phases of combustion, RFF personnel should be well
versed in three types of extinguishment. 1) Direct straight stream firefighting method using a straight
stream or solid hose stream to deliver water directly onto the base of the fire. 2) Indirect firefighting
method; used in situations where the temperature is increasing and it appears that the cabin or fire area is
ready to flash over. Attack is made from a s mall fuselage openings such as slightly opened exits or
openings made in cabin windows. Indirect method is based on the conversion of water spray into steam as
it contacts the super-heated atmosphere. Firefighters direct the stream in short bursts of water at the
ceiling to cool super-heated gases in the upper levels of the cabin or compartment. This method can
prevent or delay flashover and allow the firefighters time to apply a direct stream to the base or seat of the
fire. 3) 3-dimensional method is deployed in the event that the fire is fuel fed, as in the case of an engine
fire. Firefighter one directs semi-fog at the fire while firefighter two discharges dry chemical or clean
agent into the semi-fog stream starting at ground level and moving upward to the source of the fire. In
cases of deep seated aircraft fires, penetrating nozzles could be used. Penetrating nozzles could be in the
form of vehicle turrets (monitors) or handlines capable of injecting extinguishing agents that provide wide
angle coverage.
14.4.1 All RFF personnel must be capable of handling their vehicles, vessels, and equipment, not only
under drill-ground conditions, but also in rapidly changing circumstances. The aim must always be to
ensure that every individual is so well versed in the handling of all types of vehicles, vessels, and
equipment that, under emergency conditions, operation of these mission-critical resources will be
automatic, leaving capacity to deal with unexpected scenarios. This can be accomplished in the initial
stage of training by employing the snap “change-round” technique during standard drills, and later by
training involving the use of two or more fire vehicles simultaneously. Particular attention should be paid
to pump operations, high-reach extendable turrets, and other specialized rescue equipment. RFF crew
should also be adequately trained in handling complex instrumental panels onboard vehicles and vessels.
This form of training is, of course, a continuing commitment.
14.4.2 Possessing in-depth knowledge of all vehicles, vessels, and equipment is essential in order to
ensure thorough maintenance which is essential to guarantee operational efficiency under all
circumstances. It is important that every fire fighter be satisfied that any piece of equipment which may
be used will work satisfactorily and, in the case of ancillary equipment, it is in its correct stowage position.
The importance of correct stowage of small equipment to ensure that it can be instantly located cannot be
over-stressed. Officers responsible for training are advised to hold periodic locker drills where individual
crew members are required to produce a particular item immediately. All vehicles, vessels, and equipment
must be regularly tested or inspected and records must be maintained of the circumstances and results of
each test.
14.5.1 A thorough knowledge of the airport and its immediate vicinity is essential. To counter the
effects of complacency, it is recommended that vehicle operators practice mental mapping techniques to
supplement routine on-site familiarization. The training programme should encompass those areas of
operations dealing with:
a) thorough familiarization of the movement area so vehicle drivers can
demonstrate their ability to:
1) select alternative routes to any point on the movement area when normal
routes are blocked;
2) know the existence of ground which may become from time to time
impassable in any part of the area to be covered by the service;
3) recognize landmarks which may be indistinctly seen;
4) operate vehicles over all types of terrain during all kinds of weather. The
training programme may be conducted using vehicles other than the RFF
vehicles provided they are radio controlled and have similar operating
5) select the best routes to any point on the airport; and
6) use detailed grid maps as an aid in responding to an aircraft accident or
incident; and
b) the use of guidance equipment when it is available. Normally air traffic control
may be assistance in providing information on the location of the accident site
and position of other aircraft or vehicles on the airport which may obstruct or
impair vehicle movement.
14.5.2 The importance of this aspect of training cannot be over-emphasized. RFF personnel may be
call upon to effect a rescue from an aircraft cabin in conditions of great stress working in an atmosphere
heavily laden with smoke and fumes. If self-contained breathing apparatus is supplied, careful training in
its use is essential. It is essential that every person have an intimate knowledge of all types of aircraft
normally using the airport. Appendix 1 provides an electronic link to the websites of the various aircraft
manufacturers. The websites contain diagrams that provide, inter alia, general information on principles
of rescue and firefighting procedures as well as detailed information of concern to rescue and firefighting
personnel on representative aircraft commonly used in the market. The knowledge cannot be acquired
solely on a study of the diagrams. There is no substitute for a periodic inspection of the aircraft. Due to
the complexity of modern aircraft and the variety of types in service, it is virtually impossible to train
RFF personnel on all the important design features of each aircraft although they should become familiar
with the types normally used at the airport. Priority training should be given to the largest passenger
aircraft as it is likely to carry the highest number of occupants and incorporate unique features such as
upper deck seating capacity. Information about the following design features is of special importance to
RFF personnel to ensure effective use of their equipment:
a) location and operation of normal and emergency exits;
b) seating configuration;
c) type of fuel and location(s) of fuel tank(s);
d) location of batteries and isolation switches; and
e) position of break-in points on the aircraft.
14.5.3 As far as is practicable, RFF personnel should be allowed to operate the emergency exits and
should certainly be fully conversant with the method of opening all the main doors. Generally speaking,
the majority of the doors open forward. Some containing stairs will swing downwards and, on some widebodied aircraft, the doors retract into the ceiling area. Most large aircraft are fitted with inflatable
emergency evacuation slides affixed to cabin doors and large emergency exit windows. If the emergency
evacuation slides are not automatically disengaged, or if the system equipment malfunctions, the slides
may become inflated when the exit is opened. The doors of large aircraft are normally operated from the
inside. There are occasions, however, when responding RFF personnel may have to open doors from the
outside of the aircraft to gain access to the cabin interior. In view of the variables noted above, the
opening of the normal and emergency exits may be hazardous for the airport fire fighter if the appropriate
cautionary measures are not taken. For example, it is hazardous to open armed aircraft doors if the fire
fighter is standing on a ladder or to rest the ladder against the door to be opened.
14.5.4 Aircraft operators and flight crew members should be requested to co-operate to the fullest
extent in arranging inspection by RFF personnel the different types of aircraft using the airport. An
elementary knowledge of aircraft construction is highly desirable since such knowledge is invaluable if,
as a last resort, forcible entry is necessary. The co-operation of the appropriate staff of the airline
operators should be sought on this aspect of training.
14.5.5 All aircraft carry small portable fire extinguishers that could be of use to rescuers. Extinguishers
containing carbon dioxide, a halon agent or water are usually located on the flight deck, in galleys and at
other points within the cabin. All extinguisher positions are indicated and the extinguisher body normally
carries a label stating the type of fire for which its contents are suitable. Water and other beverages found
in the buffet compartment provide an additional source of water for extinguishment purposes. It should be
emphasized that these extinguishing agents are of secondary value and should not be relied on.
14.6.1 When personnel are well versed in the handling of firefighting equipment they should receive
training in operational tactics to be adopted at aircraft fires. This training is a continuing commitment and
must be absorbed to the point where compliance with the initial action called for is instinctive, in the
same sense that hose-running to a well-trained regular fire fighter is automatic and will therefore, follow
even when working under stress. Only when this is achieved will the officer-in-charge be in a position to
assume complete control of the situation. Operational tactics training is designed to deploy personnel and
equipment to advantage in order to establish conditions in which aircraft occupants may be rescued from
an aircraft which is involved in, or liable to become involved in, fire. The objective is to isolate the
fuselage from the fire, cool the fuselage, establish and maintain an escape route and achieve the degree of
fire control necessary to permit rescue operations to proceed. This is fundamental and must be stressed in
the training programme. The service to be provided is primarily a life saving organization, one, however,
that must be trained in firefighting because aircraft involved in a serious accident are frequently involved
in fire. The firefighting operations must be directed to those measures which are necessary to permit
rescue to be carried out until all the occupants of the aircraft are accounted for. This includes
precautionary measures at those incidents where no fire has broken out. When the life saving
commitment has been met it is necessary, of course, to utilize all available resources to secure protection
of property.
14.6.2 The main attack on t he fire should usually be by means of mass application of foam in an
endeavour to achieve maximum cooling and the rapid suppression of the fire. Since, however, foam, like
every other agent, has limitations, a suitable back-up agent must be available to deal with those pockets of
fire which are inaccessible to direct foam application. This will generally be provided in the form of dry
chemical powder. The use of these should be confined to running liquid fuel fires, fires in enclosed spaces
such as wing voids, or for dealing with a special fire such as a fire in an engine nacelle or undercarriage
14.6.3 Points which should be covered in the operational tactics training programme are described
14.6.4 The approach. Equipment should approach the accident site by way of the fastest route in order
to reach the site in the shortest possible time. This is quite frequently not the shortest route because
generally speaking it is preferable where possible to travel on a made-up surface than to approach over
rough ground or grassland. The essence is to ensure that RFF vehicles get there and are not subjected to
unnecessary hazards en route. When nearing the scene of the accident a careful watch must be maintained
for occupants who may be dashing away from the aircraft or who may have been flung clear and are lying
injured in the approaches. This applies particularly at night and calls for competent use of spot or search
14.6.5 Positioning of equipment. The positioning of equipment both from the airport and from any
supporting local fire department is important in many respects and regard should be given to several
factors. Correct positioning of equipment must permit the equipment operator an over-all view of the fire
area. The equipment must not be placed in a position of hazard due to fuel spills or ground slope or wind
direction. It must not be positioned too close to the fire or to other equipment and thus restrict working
space (this applies particularly to foam tenders and their attendant auxiliary water tenders). Other factors
which should be taken into account are the location of aircraft occupants relative to the fire, impact of
wind, fire, personnel and fuel tanks and location of emergency exits.
14.6.6 In certain circumstances it may be advantageous to leave the equipment on hard standing,
though this may mean an additional length of fire hose. More time can be lost attempting to reach a closer
position to the fire by negotiating rough ground than would be taken to run an additional length of fire
hose. M oreover, if parked on ha rd standing the equipment is capable of being moved rapidly if
conditions demand. Aircraft accidents frequently occur in circumstances where equipment cannot be
positioned in the immediate vicinity. Consequently it is recommended that all firefighting and rescue
equipment should be designed so that it can be brought to bear at some distance from the parent
equipment. Operational tactics training can do much to reduce the problems of positioning equipment,
can be conducted at very little cost and should be performed frequently to develop acceptable practices.
For this particular phase of operational tactics training it is not always necessary to produce water of foam;
it is an example of how “dry drills” can help to raise efficiency standards.
14.6.7 In order to achieve the main initial objective of isolating and cooling the fuselage and to
safeguard the escape route it is evident that the positioning of foam streams is of the utmost importance.
The number of streams available will vary with the type and the scope of the equipment provided.
14.6.8 Foam streams should be positioned as close as possible to the fuselage, the initial discharge
being directed along the line of the fuselage and then directed to drive the fire outwards. When selecting
the ideal position for the stream it should always be remembered that the wind has considerable influence
upon the rate of fire and heat travel. The position should be chosen with this in mind, thus utilizing the
wind, wherever possible, to assist in the main objective. Except in exceptional circumstances, foam
streams should not be directed long the line of the wind towards the fuselage as this may tend to flush free
fuel into the danger area. Similarly, care must be exercised to avoid the possibility of one stream
disturbing the foam blanket laid down by another stream.
14.6.9 There are two basic methods of applying foam. One is to use a long straight stream to allow fall
on the desired area. The other is to apply a diffused stream at close range. Often foam can be applied to a
fire area by deflecting it from another surface such as t he contour of the fuselage or main plane.
Whenever foam, dry chemical powder, or other complimentary agent equipment is being subjected to a
periodic routine check the opportunity should be taken to train emergency crew members in the methods
of application. It is important that this be carried out on a fire so that each person will obtain an
assessment of the value as well as the limitations, of each agent so applied, and be familiar with the heat
conditions that will be experienced. These drills should be carried out at intervals of not more than one
month. Increasingly, firefighting equipment is designed to provide high output through monitor/turrets to
deal with accidents involving the largest aircraft currently in service. Monitor/turret operators must be
highly skilled in the application of foam to be able to avoid wastage, through misdirection of aim, to
know when to change from straight stream to diffused stream, and to readily appreciate how to avoid
damage or injury to others by the potential force of the foam stream.
14.6.10 It is vital that the RFF fleet manoeuvres in a coordinated formation and concentrate foam
streams at areas where large numbers of passengers may be trapped. With precision manoeuvres,
continuous mass application of foam will be met with least wastage. For this reason, officers responsible
for training should decide which particular pattern of equipment positioning is best suited to their
available resources and then take steps to train crew members in its positioning and layout. At a fire there
is little time for individual briefing of crew members and the initial layout may well be adjusted to cope
with the existing circumstances, but it is necessary for the crew members to know exactly what their first
action should be well in advance through a predetermined tactical plan as dictated by the circumstances. It
should always be remembered that this layout of equipment should be standard practice at an aircraft
accident even when fire has not broken out and that at least one monitor/turret should be staffed and in
readiness to go into instant action should the occasion arise.
14.6.11 The main objective of the firefighting activity must be to extinguish the fire and secure it against
reignition in the shortest possible time. It is also pertinent that RFF crew maintain a g ood sense of
situational awareness at all times during an emergency. This demands skill, teamwork and understanding
by all those involved. The first responding fire vehicle may carry agents which can achieve some rapid
knockdown of an area of the fire, but this will in most cases require the early support of any other vehicle
to continue the effort and secure the entire area against reignition and to promote the necessary cooling
effect in the vicinity of the passenger compartment. The entire effort must be concentrated on this area
since the misapplication of foam or other agents is wasteful and could mean the difference between the
success or failure of the operation. Where foam production through a monitor/turret is undertaken with
the vehicle in motion (i.e. pump and roll mode), considerable skill is required to achieve maximum effect.
14.6.12 Great care must be exercised by monitor operators in the application of foam in straight streams
in the vicinity of escape slides deployed from the aircraft. RFF personnel must also anticipate that
evacuating occupants may become distressed and disoriented by the presence of dry chemical powder
clouds or by the impact of foam streams and should therefore conduct their operations so as to minimize
these effects.
14.6.13 The training programme should provide instruction in search procedures, not only in enclosed
spaces of an aircraft, but also for procedures for systematic searching of the area in the immediate vicinity
of an aircraft accident and also in the path of the aircraft. As a broad principle, it should be taught that the
persons involved in a fire are most frequently found near an exit, i.e. doors and windows, or will have
sought shelter, however inadequate in lavatories and lockers, etc. Rescue is always best effected by way
of a normal channel, if available. For example, it is easier to carry a person through a doorway than to
manipulate that person through a window. The main cabin door of an aircraft should always be attempted
first. Should the door be jammed, it will usually be found quicker to force it by applying leverage at the
right spot than to achieve entry and rescue through another form of opening. Success in this form of
operation requires a full knowledge of the locking mechanism and direction of travel of the door
concerned. Only when everything else has failed should forcible entry be attempted. External markings
are now provided on many aircraft showing suitable points at which entry can be made.
14.6.14 Pressurized cabins will offer tough resistance to penetration by forcible entry tools, although
entry can be made by a person well trained in the use of such tools and possessing a working knowledge
of aircraft construction. The practice of providing power-operated saws and other similar forms of
forcible entry tools on all airports normally handling this type of traffic has increased. All operational
staff should be trained in rescue procedures. The working space inside a cabin is somewhat restricted and
it will generally be found advisable to limit the number of rescuers working inside the aircraft and to work
on a chain principle. Where possible, the airport emergency plan should provide for the availability to
staff other than RFF personnel, for the handling of casualties from the moment they are removed from the
aircraft. All rescue staff should be trained in lifting and carrying casualties, and other forms of rescue.
14.7.1 Emergency communication refers to the information flow between various responding agencies
during an emergency. Accurate and relevant information provides the RFF crew with shared real-time
knowledge. This in turn empowers RFF teams to plan or initiate rescue efforts in an integrated manner.
To ensure swift and accurate transmission of information, it is stressed that RFF staff be adequately
trained in operating the primary and secondary communication systems installed at the fire stations and
fire vehicles / vessels. Equally important, RFF personnel should learn to converse succinctly using
appropriate telephony language. RFF personnel should also be trained to communicate with the flight
crew through internationally accepted ground-to-aircraft hand signals.
14.8.1 The leadership qualities exhibited by an RFF team commander often determines the outcome in
an emergency response. The commander leads and motivates his staff in achieving peak performance
under challenging operating environment. In this regard, a robust leadership training program should be
instituted to better prepare RFF leaders in assuming command during crises.
14.9.1 During protracted rescue operations, the ability of RFF personnel to perform strenuous activities
over an extended period of time influences the overall operational effectiveness. Therefore fire fighters
must be aerobically and anaerobically fit to withstand the rigours of a variety of operations. Clearly,
physical fitness training requirements should be designed to commensurate with the equivalent fitness
intensity generated in the performance of RFF operations which include the use of breathing apparatus,
hand lines, ladders, heavy equipment and other associated rescue operations such as casualty handling.
14.10.1 Depending on the aerodrome operating environment, it may be necessary for RFF crew to be
trained in dealing with difficult environments such as water rescue and handling biological / chemical
threats. While RFF services should continue to strengthen their core capabilities, it is worthwhile to
explore and train beyond the immediate operational responsibilities to deal with unexpected contingencies
at or in the vicinity of the airport.
Chapter 15
15.1.1 The airport authority, the aircraft operator and the fuel supplier each has responsibilities in respect
of the safety measures to be taken during fuelling operations. Some guidance on these safety measures is
given below. It is important to note that this material is not intended to replace fuel supplier operator
procedures which are usually developed to meet requirements imposed by special equipment, national
regulations, etc. The material includes the following subjects:
a) general precautionary measures to be taken during fuelling operations; and
b) additional precautionary measures to be taken when passengers remain on board or embark/disembark
during refuelling operations.
Note.- Further information on internationally accepted petroleum and aviation industry fuel practices,
including fuel quality control and operations, can be found in Doc 9977, Manual on Civil Aviation Jet
Fuel Supply.
The following general precautionary measures should be taken during aircraft fuelling operations:
a) aircraft fuelling operations should be done outdoors; and
b) bonding and/or grounding, as appropriate, should be done in accordance with 16.4;
c) aircraft fuelling vehicles should be positioned so that:
1) accessibility to aircraft by RFF vehicles is not interrupted;
2) a cleared path is maintained to permit rapid removal of fuelling vehicles from an aircraft in an
3) they do not obstruct evacuation from occupied portions of the aircraft in the event of a fire; and
4) the vehicle engines are not under the wing;
d) all vehicles performing aircraft servicing functions other than fuel servicing (e.g. baggage trucks, etc.)
should not be driven or be parked under aircraft wings while fuelling is in progress;
1 Throughout this chapter the term fuelling requirements encompasses refueling and defueling.
e) open flames and lighted open flame devices should be prohibited on the apron and in other locations
within 15 m of any aircraft fuelling operation. Included in the category of open flames and lighted
open flame devices are the following:
1) lighted cigarettes, cigars, pipes;
2) exposed flame heaters;
3) welding or cutting torches, etc.; and
4) flare pots or other open flame lights;
f) cigarette lighters or matches should not be carried or used by anyone while engaged in aircraft fuelling
g) extreme caution should be used when fuelling during lightning and electrical storms. The fuelling
operations should be suspended during severe lightning disturbances in the immediate vicinity of the
h) when any part of an aircraft undercarriage is abnormally heated, the airport RFF service should be
called and fuelling should not take place until the heat has dissipated; and
i) portable fire extinguishing equipment suitable for at least initial intervention in the event of a fuel fire
and personnel trained in its use shall be readily available and there shall be a means of quickly
summoning the rescue and fire-fighting service in the event of a fire or major fuel spill. It should be
ensured by regular inspection and maintenance that this equipment is maintained in a fully serviceable
15.3.1 Because of the importance of reducing transit times and for security reasons, some States allow
passengers to remain on board during refuelling operations while others allow passengers to embark and
disembark. However, an aircraft shall not be refuelled when passengers are embarking, on board or
disembarking unless it is properly staffed by qualified personnel ready to initiate and direct an evacuation
of the aeroplane by the most practical and expeditious means available.
15.3.2 When aircraft refueling operations take place while passengers are embarking, on board of
disembarking, ground equipment shall be positioned so as to allow:
a) the use of a sufficient number of exits for expeditious evacuation; and
b) a ready escape route from each of the exits to be used in an emergency.
15.3.2 The following additional precautions must be observed during refuelling operations while
passengers remain on board or embark/disembark.
a) passengers should be warned that refuelling will take place and that they must not smoke, operate
switches or otherwise produce sources of ignition;
b) the illuminated “No smoking” signs and exit lighting should be switched on;
c) aircraft equipped with integral stairs should have them deployed, or if aircraft stairways are used, these
should be positioned at each of the main doors normally used for passenger embarkation or
disembarkation which should be open or ajar and free from obstruction.
d) if, during refuelling, the presence of fuel vapour is detected in the aircraft interior, or any other hazard
arises, refuelling and all cleaning activities using electrical equipment within the aircraft should be
stopped until conditions permit resumption; and
e) where passengers are embarking or disembarking during refuelling their route should avoid areas
where fuel vapours are likely to be present and this movement should be under the supervision of a
responsible person.
Chapter 16
16.1.1 In accordance with Annex 14 Volume 1, 2.11 there is a need for the airport or appropriate
authorities responsible for RFF services to make available to the appropriate air traffic services units and
aeronautical information services units information concerning the level of protection normally provided
at the airport for aircraft RFF purposes. Changes in the level of protection should also be reported.
16.1.2 The level of protection normally available at an airport should be expressed in terms of the
category of the RFF services as described in Table 2-3 of this manual, in accordance with the types and
amounts of extinguishing agents normally available at the airport.
16.1.3 Changes in the level of protection normally available at the airport for RFF (RFF category)
should be notified to the appropriate air traffic services units and aeronautical information units to enable
those units to provide the necessary information to aircraft using that particular airport. When such a
change has been identified the above units should be advised accordingly and as soon as practical to do so.
A change in RFF category may be the result of, inter alia, unavailability of extinguishing agents,
unavailability of equipment to deliver the agents or unavailability of enough personnel to operate the
16.1.4 Notification of changes to RFF category should be initiated even for short durations if it is known
or likely to affect aircraft movements at the aerodrome.
16.1.5 Notification to industry should also include the hours of operations for a RFF service as well as
any special services or resources, such as the availability of a water rescue service, a dedicated emergency
radio frequency or similar.
Chapter 17
17.1 General
17.2.1 The principle objective of an airport RFF service (RFFS) is to “save lives in the event of an
aircraft accident or incident”. The most important aspects bearing on effective rescue in a
survivable aircraft accident or incident is the training received and the effectiveness of the fire
vehicles and associated rescue equipment and the speed in which personnel and equipment can be
17.2.2 Annex 14, Volume I requires that a maintenance programme, including preventive maintenance
where appropriate, shall be established to maintain facilities in a condition which does not impair
the safety, regularity or efficiency of air navigation.
17.2.3 Due to the ever increasing complexity of specialized aviation fire vehicles and their associated
rescue equipment a program of regular and on-going preventive maintenance is paramount to
ensure availability and reliability. A robust maintenance program would also maximize the
lifecycle of both fire vehicles and rescue equipment.
17.2 Preventive Maintenance
17.2.1 To ensure on-going reliability and peak performance of any fire vehicle or item of
rescue equipment is maintained, and to ensure that Rescue Firefighting (RFF) services are
provided at the required levels, all RFF vehicles and rescue equipment need to have regular
preventive maintenance conducted on them.
17.2.2 To ensure that the maintenance can be conducted correctly, provision of the following is a
a) maintenance personnel;
b) maintenance procedures;
c) defect reporting system;
d) designated maintenance work areas;
e) tools;
f) spare parts; and
g) storage of maintenance records.
17.2.3 A maintenance programme should take into account the following activities:
a) original equipment manufacturer (OEM) maintenance recommendations;
b) local environmental conditions, for example tropical heat versus cold winters;
c) national or local regulatory requirements – for example certification of pressure vessels,
hoses, road worthiness certificates; and
d) regular performance testing.
17.3 Personnel
17.3.3 All personnel conducting maintenance activities should be appropriately skilled, trained and
equipped to undertake the designated and required maintenance activities they are tasked with in
accordance with their organisational Safety Management Systems.
17.3.2 Working on modern day RFF fire vehicles and rescue equipment requires the following skill set
or, as a minimum, a good practical working knowledge of:
a) heavy vehicle mechanical trade qualifications;
b) fire pumps and foam systems;
c) complementary agent systems;
d) hydraulics / pneumatics;
e) automotive electrical training;
f) Self-Contained Breathing Apparatus (SCBA) systems / breathing air compressors;
g) knowledge of regulatory requirements pertaining to provision of RFF; and
h) knowledge of national or local regulations pertaining to maintenance activities.
17.3.3 Specialist training should be initially provided by the OEM with the delivery of the first of type
fire vehicle or item/s of rescue equipment.
17.3.4 National or local regulatory requirements my require personnel working on t his type of
equipment to be licenced.
17.4 Maintenance Procedures
17.4.1 Maintenance procedures should be implemented to ensure a standardized manner in which fire
vehicles are maintained. Maintenance procedures should cover:
a) activities to be undertaken to ensure that disruption to RFF services are minimized. For
example; bringing reserve fire vehicles into operational service to maintain category levels, or
conducting maintenance during breaks in aircraft movements where a vehicle may be taken
out of service without affecting category levels;
b) the frequency of maintenance services;
c) activities to be undertaken at each type of maintenance service as recommended by the
original equipment manufacturer (OEM). For example, visual check, inspections &
d) activities to be undertaken at each type of maintenance service as recommended by national
or local regulations;
e) arrangements for technical support from the OEM or the OEM’s local agent;
f) spare parts that should be held on site to enable regular maintenance to be conducted for
example; filters, belts, drier cartridges, lubricants, coolants, wiper blades;
g) generically common spare parts should be held on site to minimise downtime. Such as
switches, light globes, relays, circuit breakers, bolts, nuts, washers, O-rings and seals;
h) arrangements with OEM and local suppliers for all other parts to ensure downtime is kept to a
i) tyre replacement requirements;
j) environmental procedures including appropriate disposal procedures for old parts as well as
used lubricants and coolants;
k) any special measures to ensure safety of maintenance personnel such as procedures for
working at heights, confined space entry and working with high pressure liquids / gasses; and
l) the method of reporting and documenting any defects that have been identified with the fire
vehicles or rescue equipment by operational and maintenance personnel.
17.5: Maintenance Work Areas / Special Tools
17.5.1 Provision of a work area for maintaining RFF fire vehicles should have due consideration to the
a) a sufficiently large enough area to work on and around the vehicle;
b) environmental protection such as trade waste interceptor pits or bunding;
c) lifting / jacking equipment;
d) wheel lifters / tyre changing cages;
e) storage areas for lubricants, spare parts and tools;
f) storage of technical documentation; and
g) storage of maintenance records.
17.5.2 Provision of a work area for maintaining rescue equipment should have due consideration to the
a) a clean area to work on breathing apparatus (BA) sets / face masks;
b) testing capability for fire hoses;
c) ventilated area for operation of engine powered tools, for example, portable saws or hydraulic
rescue units; and
d) ventilation for charging batteries.
17.5.3 Modern day RFF fire vehicles / rescue equipment have the need for specialist diagnostic and test
equipment. It should be noted that some tools require regular calibration to ensure that they are
measuring correctly. Some examples are:
a) multimeters;
b) liquid flow meters;
c) tension wrenches;
d) pressure gauges; and
e) air quality testing for BA.
17.5.4 To comply with national or local regulations, some workshop equipment used by maintenance
personnel may require regular safety certification by an accredited certifying body. Some
examples are:
a) lifting / jacking equipment such as cranes, pulleys, slings, chains, shackles
b) workshop air receivers;
c) pressure test equipment, such as hoses and fittings; and
d) electrical test and tagging of Alternating Current (AC) equipment, such as power tools,
electrical cables, and workshop machines.
17.6 Performance Testing – Fire Vehicles
17.6.1 Whilst a R FFS fire vehicle may pass its initial acceptance test for compliance against its
specification, there is no guarantee that it will continue to do so throughout its service life. All
RFFS fire vehicles have parts that wear with time and as a result performance is lost. To ensure
that the fire vehicle continues to have the ability to respond, and discharge firefighting agents at
the required amounts, regular performance testing should be undertaken including quantitative
checks of:
a) 0-80 km/h acceleration;
b) braking;
c) flow rate from high and low flow deliveries;
d) foam admixing percentages;
e) monitor throw; and
f) compressed air foam systems.
17.6.2 Records of any performance tests undertaken should be retained, as it is a record of the fire
vehicle continuing to meet the specifications, and allows future review if performance starts to
deteriorate. Where multiple fire vehicles of the same type are stationed at the same location or
operated by the same organisation, it allows prediction of when the same performance
deterioration may occur on other fire vehicles.
17.7 Rescue Equipment Requirements
17.7.1 The maintenance requirements for rescue equipment should be in accordance to original
equipment manufacturer (OEM) requirements. However, due to the nature of firefighting
equipment can sometimes unknowingly become damaged. Consequently it can also be beneficial
to check the following:
a) all items – regular daily or weekly checks to ensure functionality;
b) BA sets – maintained after every use and checked regularly when not used for safe operation;
c) BA air quality – regularly checked (there may be national or local standards that the air
quality must meet);
d) short lines / long lines (rescue lines) – not frayed and are in good repair;
e) portable fire extinguishers – full and charged with pressure;
f) fire hoses – inspected and pressure checked on an annual or 6 monthly basis to ensure that the
hoses don’t leak and the couplings are functioning and securely fitted;
g) nozzles / foam branches – inspected for damage;
h) rescue tools – inspected to ensure that there is no damage to components. Under high forcing
loads, damaged components can be very dangerous if they fail;
i) general tools – inspected to ensure handles are not broken or damaged;
j) first aid kits – inspected at least weekly to ensure that items are maintained at the correct
stock levels; and
k) rescue tool box – checked to ensure all tools are present
17.8 Maintenance Documentation
17.8.1A complete set of maintenance documentation should be requested to be delivered with
the fire vehicle and rescue equipment during the procurement process. As a minimum this should
a) operating procedures;
b) maintenance procedures;
c) fault diagnosis and troubleshooting;
d) adjustment procedures;
e) removal / replacement of parts and repairable assemblies;
f) instructions for disassembly and reassembly of repairable components;
g) tolerances, specifications and capacities;
h) illustrations and exploded views;
i) schematic drawings. For example; electrical wiring circuits, pneumatic circuits, chassis air
circuits or hydraulic circuits;
j) special tools needed for repairing and adjusting; and
k) spare parts catalogue providing exploded views of the entire fire vehicle.
17.8.2 It is important that the technical documentation is in a format the can be easily read, understood
and followed.
17.8.3 Any schematic drawings should be a sufficiently large enough size to enable them to be easily
read. This is very important for fault diagnosis whereby any circuits can be traced. As a
minimum, all drawings should be of A1 size or similar. It is a good idea to laminate these so that
they can be kept clean of grease and still be read at a later time.
17.9 Maintenance Record Keeping
17.9.1 A comprehensive set of maintenance records should be kept for each fire vehicle.
17.9.2 Keeping individual sets of maintenance records is also beneficial for each of the larger and more
complex items of rescue equipment. Like items of rescue equipment, for example hoses, can be
grouped together, however each item of equipment should be readily identifiable via a unique
numbering system.
17.9.3 Keeping such documentation has several benefits:
• provides a historical record of the maintenance of the fire vehicle / equipment – which may
be an organizational requirement for legal or compliance reasons;
• provides evidence for any warranty claim that may be made against the OEM;
• can be referred to in the future (if a similar fault occurs); and
• provides evidence for any surveillance audit that may be undertaken for regulatory
17.9.4 Maintenance and calibration certificates should be maintained in a register for all special tools
and test equipment.
17.10 Protective Clothing
17.10.1 Protective Clothing normally includes, but is not limited to, Turnout Suits (Jacket – Overtrousers
c/w braces), fire fighting boots, gloves and helmet as a minimum. The proper care and preventive
maintenance is normally the responsibility of the fire fighter and the RFFS.
17.10.2 Protective clothing needs to be inspected for serviceability on a regular basis:
a) by the wearer prior to commencing duty;
b) after use; and
c) as required.
17.10.3 There are three levels of cleaning defined in NFPA 1851 – routine, advanced and specialized:
• routine cleaning is performed after any fire ground use where soiling has occurred
and may involve brushing debris from the clothing, rinsing it with water and/or applying
spot cleaning as required;
• advanced cleaning is more thorough with a frequency dependent on the use and condition
of the clothing;
• specialized cleaning may need to be conducted by an external agency; and
• any cleaning should consider and comply with manufacturer instructions.
Note:- See NFPA 1851, Chapters 6 to 9 on provisions concerning inspection, cleaning and
decontamination, repair and storage of protective clothing.
17.10.4 Minor repairs may be conducted at a local level, however, major repairs may need to be
conducted by an external agency so that repair activities and/or materials do not compromise the
protection standards of any protective clothing.
17.10.5 Storage of protective clothing is also a factor to be considered:
a) storage should be away from direct light, especially sunlight;
b) avoid contact with contaminants; and
c) avoid storing near objects that could physically damage the protective clothing.
Chapter 18
18.1.1 The subject of human factors is about people. It is about people in their working and living
environments. It is about their relationship with equipment, procedures and the environment. Just as
importantly, it is about their relationships with other people. Human Factors involve the overall
performance of human beings within the aviation system; it seeks to optimize people’s performance
through the systematic application of the human sciences, often integrated within the framework of
system engineering. Its twin objectives can be seen as safety and efficiency.
18.1.2 Human Factors is essentially a multidisciplinary field, including but not limited to; psychology;
engineering; physiology; sociology; and anthropometry. Indeed, it is this multidisciplinary nature and the
overlapping of the constituent disciplines that make a co mprehensive definition of Human Factors
18.2.1 Human factors specific to ARFF services pervade a wide spectrum of activities, ranging from
training and operations to station routine and audits. The study of human factors principles can be
described as both an art and a science and must be associated with the entire range of RFF activities in
order to achieve a higher level of professionalism, a higher state of operational effectiveness and a higher
standard for safety.
18.2.2 The SHEL model provides a conceptual framework to help understand Human Factors. It
illustrates the various constituents and the interfaces – or points of interaction – which comprise the
subject. Human Factors elements can be divided into four basic conceptual categories:
a) Software: plans, procedures, documentation etc.
b) Hardware: machine, equipment, etc.
c) Environment: internal (e.g. workplace), external (e.g. surroundings) etc.
d) Liveware: the human factor
18.2.3 Interactions between people and the other elements of the SHEL model are at the heart of
Human Factors, which involves the interfaces between:
a) People and machines – “Liveware vs. Hardware”
b) People and procedures – “Liveware vs. Software”
c) People and colleagues – “Liveware vs. Liveware”
d) People and workplace – “Liveware vs. Environment”
18.3.1 A competent and professional RFF service must rely on a comprehensive and relevant set of
training modules, coupled with an internal audit framework to regularly check the effectiveness and
efficacy of these programmes. However, in the process of promulgating the training framework, one must
not be overly fixated with the ‘hard’ skills component of the training outcomes. Thought must be given to
the ‘soft’ human factor components during the promulgation and execution of the training programmes.
Similarly, any assessment of the operational effectiveness of RFF personnel must take into account
human factor principles such as team coordination.
18.3.2 Human factors principles are not only confined to the development of RFF training
programmes. Consideration must also be given to the formulation of drawer plans such as the aerodrome
emergency plan and the unit tactical plans of the RFF service.
18.3.3 The application of human factor principles to RFF services can therefore be classified into two
broad pillars as follow: a) Operational effectiveness and standards; and
b) Safety and well-being of RFF personnel
18.4.1 As the success of any RFF operations rely very much on teamwork, the importance of building
mutual trust and team coordination amongst staff during training cannot be overstressed (Liveware vs.
Liveware). Training must therefore be designed to guide RFF personnel towards achieving these
18.4.2 In order for RFF training to be as realistic as possible, live fire training is crucial in helping RFF
personnel acclimatize to a heat and smoke filled environment (Liveware vs. Environment), so that in the
event of an actual emergency, RFF personnel will be able to execute their tasks more confidently and
effectively. Where possible, simulators replicating different facades of RFF operations (e.g. vehicle
driving and operations; command and control etc.) should be made available for RFF personnel to be
trained in a controlled, safe and realistic environment.
18.4.3 RFF operations require firefighting personnel to be proficient in the operation of fire vehicles
and other rescue equipment (Liveware vs. Hardware). This is crucial as it would enable the RFF service
to control any aircraft fires swiftly and effectively, in order to facilitate the evacuation and rescue of
survivors. The airport fire vehicle is therefore an extremely vital asset that must be designed to take into
account the human instinct and intuition of the vehicle operator. Therefore, RFF services must place
sufficient emphasis on the design ergonomics of fire vehicles during the pre-fabrication stage in order to
optimize human performance during training and operations.
18.4.4 The design of fire stations is another important factor that could affect the human performance
of RFF personnel when responding to aircraft accidents or incidents (Liveware vs. Environment). This is
especially relevant for large aerodromes which provide a high category of runway fire protection. Fire
stations in such aerodromes are typically larger, thus requiring RFF personnel to travel a longer distance
before reaching their fire vehicles. Such considerations must therefore be taken into account during the
design phase of a fire station so that the RFF service is able to meet the stipulated response time in the
event of an aircraft emergency.
18.4.5 Communication is possibly the most important human factor in RFF operations. Operational
readiness and safety standards will be compromised without effective communication amongst RFF
personnel, air traffic control and pilots. Therefore, the type of communications equipment and the
transmission of messages must allow critical information to be conveyed, assimilated, processed and
executed (Liveware vs. Hardware and Liveware vs. Liveware). Therefore, RFF training programmes must
incorporate components to ensure the accurate and timely transmission of information to avoid
miscommunication which could result in serious consequences.
18.4.6 It is obvious that any RFF service will need to be kept up-to-date with the constant development
and innovation of more sophisticated rescue equipment and fire vehicles (Liveware vs. Hardware). It is
equally important for RFF personnel to be well acquainted with the different configurations of various
aircraft types operating at the particular aerodrome. Boosting the knowledge of RFF personnel in these
areas would indirectly enhance human performance during a response to any aircraft emergency.
18.4.7 The RFF industry is a highly specialised one which compels the management and leadership
team of RFF services to promulgate a system of self-audit. Such systems must not only include the ratings
and revalidation of individual standards. More importantly, as we recognise the importance of teamwork
and team coordination in RFF operations, RFF services should place heavy emphasis on the collective
performance of an RFF outfit during such an audit (Liveware vs. Liveware). The audit can then reveal
observations and findings about the effects of human behaviour on pre-stipulated procedures. Similarly,
such audits can also highlight human reaction to any unforeseen circumstances in the form of injects
during a unit proficiency test. Results from the audits can then be used to modify, tweak and improve
training programmes in order to enhance human performance during RFF operations.
18.5.1 In the aftermath of an aircraft accident, it is often necessary to provide psychological treatment
for the survivors. H owever, airport operators and RFF services must also not neglect the mental and
psychological well-being of emergency responders such as R FF personnel who may suffer from post
traumatic stress disorders. Appropriate counseling of psychological therapy may need to be provided to
RFF personnel who responded to such emergencies and who subsequently not able to cope with the stress
they face thereafter. Such situations may arise from the gruesome sight of a crash scene that made them
not being able to carry on with their normal lives. I t will therefore be essential to also provide
psychological treatment for RFF personnel after a major crisis (Liveware vs. Liveware) both from a
welfare perspective and also from a business continuity stand point. Such treatment and counselling can
be provided by other RFF or airport personnel who had undergone the proper training or more likely to be
provided by external medical institutions. Arrangements for the latter should then be formalized in the
form of mutual aid agreements or can be incorporated into the airport emergency plan (Liveware vs..
18.5.2 The job nature of RFF personnel poses numerous potential hazards (Liveware vs. Environment).
The risk of inhalation of carbon or smoke particles when extinguishing a fire, either during an incident or
during training, is very high. Therefore, RFF services must provide all fire fighters with the appropriate
personal protective equipment (PPE) such as self-containing breathing apparatus (SCBA), helmets, boots,
protective clothing etc. In relation to day-to-day operations, the uniform worn by RFF personnel should
also be of a suitable material depending on the local climate and conditions.
18.5.3 To ensure that RFF personnel are able to perform their roles effectively, thought needs to be put
into designing an appropriate physical fitness programme to condition them for the physical rigours of the
job (Liveware vs. Environment). In the process of designing any physical fitness programmes, due
considerations must be given to individual human limitations. RFF management must also accept that not
all personnel can perform at the same level of physical fitness standard. The key is to establish the
minimum physical fitness requirements of a fire fighter and design a programme that can best replicate
these demands.
18.5.4 Noise is an important human factor (Liveware vs. Environment) that is omnipresent in an
airport environment and cannot be ignored. Most fire stations are located within close proximity of the
runway and aircraft movement areas, thus exposing RFF personnel to constant loud noises. Besides
posing as disruptive interferences during the transmission of messages, long term and regular exposure to
noise can have serious implications on one’s health (e.g. temporary, partial or permanent hearing loss). To
address this issue, RFF services should issue and mandate the use of suitable hearing protection devices.
In addition, personnel who are subjected to constant exposure to noise should be sent for regular noise
induced deafness (NID) hearing tests.
18.5.5 Fatigue is one important factor that directly affects human performance and is greatly
influenced by the shift system of RFF services (Liveware vs. Software). Besides the need to conform to
local labour rules and regulations of individual States, there must be considerations to ensure that RFF
personnel can have sufficient rest despite the need to be on 24-hour operational readiness at most airports.
18.5.6 A leader is an individual whose ideas and actions influence the thought and behaviour of others
(Liveware vs. Liveware). Through the use of motivation and persuasion, and an understanding of the
goals and desires of the team, the leader becomes an agent of change and influence. Skilled leadership
may be needed to understand and handle various operational, training and administrative situations. For
instance, personality clashes within a team complicate the task of a leader and can affect both safety and
— — — — — — — —
Appendix 1
This Appendix provides the following general information:
a) principles of rescue and fire fighting procedures
The purpose is to give rescue and fire fighting personnel some of the essential information needed
to permit them to assess the true nature of the specialized problems involved in performing
effective aircraft rescue and fire fighting operations. However, as the quantity of flammable
liquids and combustible materials aboard an aircraft varies according to the aircraft model and the
operations in which it is engaged, this material can provide only representative information.
Personal inspections are necessary to appreciate the variations likely to be encountered in aircraft
operations at a particular airport.
b) principal fire hazard zones in aircraft
This include simplified drawing of the principal fire hazard zones on aircraft
c) detailed information of concern to fire fighting and rescue personnel on representative aircraft.
Information on the characteristics of commonly used aircraft and other relevant information can
be found in the link below:
The table in the link above contains useful information for rescue and firefighting such as
wingspan, fuselage length and width, overall length and maximum passenger capacity. To obtain
further information about each aircraft model, including the crash charts, from their respective
manufacturer, click on the corresponding hyperlink under the column “Aircraft Model”.
The websites of the various aircraft manufacturers contain diagrams that provide, inter alia,
general information on principles of rescue and firefighting procedures as well as detailed
information of concern to rescue and firefighting personnel on representative aircraft commonly
used in the market. The purpose is to give rescue and firefighting personnel some of the essential
information needed to permit them to assess the true nature of the specialized problems involved
in performing effective aircraft rescue and firefighting operations. However, as the quantity of
flammable liquids and combustible materials aboard an aircraft varies according to the aircraft
model and the operations in which it is engaged, this material can provide only representative
information. Personal inspections are necessary to appreciate the variations likely to be
encountered in aircraft operations at a particular airport.
Appendix 2
Aeroplane Classification by Airport Category
Non exhaustive list, based on aeroplanes (type, series) using aerodromes in 2013.
Fuselage length and width are given for information. These dimensions may vary depending on models.
Please refer to type-certificate data-sheet or official manufacturer documentation for exact dimensions if necessary.
Aeroplane Over-all length (m)
Maximum fuselage
width (m)
Airport Category 10 76 ≤ L < 90 w ≤ 8
Airbus A380-800 72.7 7.1
Antonov AN-225 84.0 6.4
Boeing 747-8 76.3 6.5
Airport Category 9 61 ≤ L < 76 w ≤ 7
Airbus A330-300 63.7 5.6
Airbus A340-300 63.7 5.6
Airbus A340-500 67.9 5.6
Airbus A340-600 75.4 5.6
Airbus A350-900 66.8 6.0
Antonov AN-124 69.1 6.4
Boeing 747-100, -200, -300 70.4 6.5
Boeing 747-400 70.7 6.5
Boeing 767-400ER 61.4 5.0
Boeing 777-200 63.7 6.2
Boeing 777-300ER 73.9 6.2
Boeing 787-9 62.8 5.8
Ilyushin IL-96-400, M, T 63.9 6.1
McDonnell Douglas MD 11 61.6 6.0
Airport Category 8 49 ≤ L < 61 w ≤ 7
Airbus A300 B2, B4 53.6 5.6
Airbus A300 B4-600, F4-600 54.1 5.6
Airbus A310 46.7 5.6
Airbus A330-200 59.0 5.6
Airbus A340-200 59.4 5.6
Boeing 747 SP 56.3 6.5
Boeing 757-300 54.4 3.8
Boeing 767-200 48.5 5.0
Boeing 767-300 54.9 5.0
Boeing 787-8 56.7 5.8
Ilyushin IL-62 53.1 3.8
Ilyushin IL-96-300 55.4 6.1
Lockheed L-1011 Tristar 54.4 6.0
McDonnell Douglas DC8 -61, 61F, 63, 63F 57.1 3.7
McDonnell Douglas DC10 Series 10 / Series 40 (MD 10) 55.6 6.0
McDonnell Douglas DC10 Series 30 (MD 10) 55.4 6.0
Aeroplane Over-all length (m)
Maximum fuselage
width (m)
Airport Category 7 39 ≤ L < 49 w ≤ 5
Airbus A321 44.5 4.0
Boeing 707-320, 320B, 320C, 420 46.6 3.8
Boeing 720 41.5 3.8
Boeing 720B 41.7 3.8
Boeing 727-100, 100C 40.6 3.8
Boeing 727-200 46.7 3.8
Boeing 737-800 39.5 3.8
Boeing 737-900ER 42.1 3.8
Boeing 757-200 47.3 3.8
Bombardier CRJ 1000 39.1 2.7
McDonnell Douglas DC8-62, 62F, 72, 72F 48.0 3.8
McDonnell Douglas DC9-50 40.7 3.4
McDonnell Douglas MD 81, 82, 83, 88 45.0 3.4
McDonnell Douglas MD 87 39.8 3.4
McDonnell Douglas MD 90-30 46.5 3.4
Tupolev TU 154 47.9 3.8
Tupolev TU 204-300 40.2 3.8
Tupolev TU 204-100, -120, -214 46.1 3.8
Aeroplane Over-all length (m)
Maximum fuselage
width (m)
Airport Category 6 28 ≤ L < 39 w ≤ 5
Airbus A318 31.5 4.0
Airbus A319 33.8 4.0
Airbus A320 37.6 4.0
Antonov AN-148 29.1 3.4
Antonov AN-158 34.4 3.4
BAe System BAe 146 -300 / AVRO RJ 100 and RJ 115 31.0 3.6
BAe System BAe 146-200 / AVRO RJ 85 28.6 3.6
Boeing 717 37.8 3.4
Boeing 737-100 28.7 3.8
Boeing 737-200 30.5 3.8
Boeing 737-300 33.4 3.8
Boeing 737-400 36.4 3.8
Boeing 737-500 31.0 3.8
Boeing 737-600 31.2 3.8
Boeing 737-700 33.6 3.8
Bombardier CRJ 700 32.5 2.7
Bombardier CRJ 705, 900 36.4 2.7
Bombardier CS 100 35.0 3.7
Bombardier Q400 / DHC 8-400 (Dash 8-400) 32.8 2.7
Bombardier Global 5000 29.5 2.7
Bombardier Global Express / Global 6000 30.3 2.7
Embraer 170 29.9 3.0
Embraer 175 31.7 3.0
Embraer 190 / Lineage 1000 36.2 3.0
Embraer 195 38.7 3.0
Embraer ERJ 140 28.5 2.3
Embraer ERJ 145 / Legacy 600, 650 29.9 2.3
Fokker Fellowship F-28, MK 2000, 4000 29.6 3.3
Fokker F100 35.5 3.3
Fokker F70 30.9 3.3
Gulfstream Aerospace Gulfstream VI, G650 30.4 2.7
Gulfstream Aerospace Gulfstream V, G500, G550 29.4 2.4
Ilyushin IL-18 35.9 3.2
Lockheed L 100-20 Hercules 32.3 4.3
Lockheed Electra L-188 31.9 3.5
McDonnell Douglas DC9-10, -20 31.8 3.4
McDonnell Douglas DC9-30 36.4 3.4
Sukhoi Superjet 100-95 29.9 3.4
Tupolev TU-134A 37.1 2.7
Yakovlev Yak-42D 36.4 3.8
Aeroplane Over-all length (m)
Maximum fuselage
width (m)
Airport Category 5 24 ≤ L < 28 w ≤ 4
ATR 72 27.2 2.8
BAe System BAe ATP 26.0 2.5
BAe System BAe 146 -100 / AVRO RJ 70 26.2 3.6
Bombardier CRJ -100, -200 / Challenger 800, 850 26.7 2.7
Bombardier Q300 / DHC 8-300 (Dash 8-300) 25.7 2.7
Convair 440 – 640 24.8 2.5
De Havilland Canada DHC-7 (Dash 7) 24.6 2.8
Embraer ERJ 135 / Legacy 600 26.3 2.3
Fokker F 27 Friendship MK -500 / -600 25.1 2.7
Fokker Fellowship F 28, MK -1000 / -3000 27.4 3.3
Fokker F50 25.3 2.7
Gulfstream Aerospace Gulfstream II 24.4 2.4
Gulfstream Aerospace Gulfstream IV / IV SP 26.9 2.4
Gulfstream Aerospace Gulfstream 350 / 450 27.2 2.4
NAMC YS- 11 26.3 2.7
Saab 2000 27.3 2.9
Xi'an AIC MA60 24.7 2.8
Airport Category 4 18 ≤ L < 24 w ≤ 4
Antonov AN-140 22.6 2.5
Antonov AN-24V, Srs II 23.5 2.8
ATR 42 22.7 2.8
BAe System Jetstream 41 19.3 2.0
Bombardier 415 / Canadair CL-415 19.8 2.6
Bombardier Challenger 300 20.9 2.2
Bombardier Challenger 600 / Canadair CL 600/601 20.9 2.5
Bombardier Q200 / DHC 8-100,-200 (Dash 8) 22.3 2.7
Cessna Citation X (Model 750) 22.0 2.0
Cessna Sovereign (Model 680) 19.4 2.0
Dassault Aviation Falcon 2000 20.2 2.4
Dassault Aviation Falcon 50 18.5 1.9
Dassault Aviation Falcon 7X 23.4 2.4
Dassault Aviation Falcon 900 20.2 2.4
Dornier Fairchild 328 / 328 JET 21.3 2.2
Embraer EMB-120 Brasilia 20.0 2.3
Fokker and Fairchild Friendship F-27 23.6 2.7
Grumman Gulfstream I 19.4 1.9
Gulfstream Aerospace Gulfstream G200 19.0 2.3
Gulfstream Aerospace Gulfstream G250 20.3 2.3
Hawker Siddeley HS-748/AVRO 748 20.4 2.7
Raytheon Hawker 4000 21.2 2.2
Saab 340 19.7 2.3
Yakovlev Yak 40 20.4 2.3
Aeroplane Over-all length (m)
Maximum fuselage
width (m)
Airport Category 3 12 ≤ L < 18 w ≤ 3
BAe System Jetstream 31 14.4 2.0
Beechcraft Super King Air (Series 200, 300) 13.3 to 14.2 1.5
Beechcraft 1900 D 17.6 1.5
Beechcraft 99 Airliner 13.6 1.4
Beechcraft King Air (Series 100) 12.2 1.5
Bombardier Learjet Series (23…/…75) 13.2 to 17.9 1.6
Britten-Norman Trislander 15.0 1.2
Cessna 208B Grand Caravan / Super Cargomaster 12.7 1.6
Cessna Citation (except Citation X and Sovereign) 12.3 to 17.0 2.0
Cessna CitationJet (525 Series) 13 to 16.3 1.6
Dassault Aviation Falcon 20 17.2 1.9
De Havilland Canada DHC 3 (Otter) 12.8 1.6
De Havilland Canada DHC-6 (Twin Otter) 15.8 1.6
Dornier Do 228-200 16.6 1.5
Embraer EMB 110 P2 Bandeirante 15.1 1.7
Hawker 1000 (BAe 125 Series 1000) 16.4 1.9
Hawker 400 (Beechcraft 400) 14.8 1.7
Hawker 800 / 750 / 900 (BAe 125 Series 800) 15.6 1.9
Hawker HS125 Series 3 14.5 1.8
Let Kunovice Let L-410 Turbolet / L-420 14.4 2.1
Piaggio P.180 Avanti 14.4 2.0
Pilatus PC-12 14.4 1.6
Piper PA-42 Cheyenne 13.2 1.3
Short Brothers Short Skyvan SC.7, Srs 3 12.2 2.0
Airport Category 2 9 ≤ L < 12 w ≤ 2
Aero Commander 500A 10.7 1.3
Beechcraft Duke B60 10.3 1.3
Beechcraft Baron G58 9.1 1.1
Beechcraft King Air 90 10.8 1.4
Britten Norman Islander BN2 10.9 1.2
Cessna 208A Caravan I / Caravan 675 / Cargomaster 11.5 1.6
Cessna 310, 320 9.7 1.3
De Havilland Canada DHC-2 (Beaver) 9.2 1.3
De Havilland Dove DH 104 11.9 1.6
Piper Navajo PA-31 9.9 1.3
Airport Category 1 0 ≤ L < 9 w ≤ 2
Beechcraft Baron Model 55 8.8 1.1
Beechcraft Bonanza 35 7.7 1.1
Beechcraft Bonanza G36 8.4 1.1
Cessna 150 7.0 1.1
Cessna 172 Skyhawk 8.3 1.1
Cessna 182 Skylane 8.9 1.1
Cessna 206 / 206H 8.6 1.1
Cessna 210H Centurion 8.6 1.1
Piper PA-18 150 Super cub 6.9 1.1
Piper PA-28 Cherokee 7.2 1.1
Piper PA-32 Cherokee Six 8.4 1.1
Robin DR 400 7.0 1.1

PDF Document reader online

This website is focused on providing document in readable format, online without need to install any type of software on your computer. If you are using thin client, or are not allowed to install document reader of particular type, this application may come in hand for you. Simply upload your document, and will transform it into readable format in a few seconds. Why choose

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