What Is the Difference Between Industrial Fire Trucks and Airport Fire Trucks?

Overview of Industrial Fire Trucks and Airport Fire Trucks

Industrial fire trucks and airport fire trucks are both specialized emergency vehicles, but they are designed around different operating environments and firefighting missions. Industrial fire trucks are commonly used at petrochemical plants, energy facilities, power stations, manufacturing plants, warehouses, fuel-storage facilities, and other industrial sites where fire risks are closely connected with production processes, hazardous materials, equipment, and site layout. Unlike airport fire trucks, industrial fire trucks do not have one universally applicable vehicle specification issued by a single international authority. The related regulation provides international general principles for performance-based fire safety engineering and recognizes applications including industrial installations. In practice, industrial fire truck procurement also needs to consider the applicable national or regional fire regulations, project risk assessment, site conditions, and technical specifications (International Organization for Standardization [ISO], 2018). The key is therefore to match the firefighting system, chassis, and operational capability to the actual industrial risk and mission.

Airport fire trucks are designed for emergency firefighting and rescue operations involving aircraft within airport operating areas. Their design and deployment are guided by international aviation safety requirements, particularly standards and guidance issued by the International Civil Aviation Organization (ICAO). These cover key areas such as airport rescue and firefighting capacity, response requirements, extinguishing agents, vehicle performance, and emergency operations (ICAO, 2015, 2022/2025).

The basic logic is therefore straightforward. An industrial fire truck starts with the question, “What risks exist at this industrial facility, and what firefighting tasks must the vehicle perform?” The answer should be developed from the site risk, applicable national or regional requirements, and project specifications. An airport fire truck starts with the question, “What aircraft emergencies must this airport handle, and what rescue and firefighting protection category is required?” For airports, the international framework is primarily provided by ICAO, supplemented by applicable national requirements and airport-specific operating conditions. Once this distinction is understood, the purpose of the major vehicle configurations becomes much easier to explain.

 Industrial Fire Trucks: Typical Parameters, Functions, and Applications

There is no single configuration that can represent every industrial fire truck. In practice, the main parameters should be read through two connected parts: the firefighting system and the chassis. Typical equipment includes a firefighting pump, water tank, monitor, foam system, foam tank, and hose reel; the mix depends on the fire types at the site. For example, tank farms and petrochemical units usually give priority to a foam system and a high-flow monitor. A plant-support vehicle may carry about 8,000–12,000 liters of water and use a roof monitor to cover tank shells and bund walls. At power plants or steel mills, where the main tasks are equipment cooling and initial suppression, sustained pump performance often matters more than a larger water tank, because the vehicle can connect to the plant water network. The water tank provides an onboard supply, the pump delivers water or foam to the monitor or hose lines, and the monitor is used for longer-range or wider-area discharge. Water-tank capacity alone cannot show whether a vehicle fits a given project.

The chassis must also match the industrial environment. Typical points include engine and load capacity, drivetrain, axle load, ground clearance, tires, and steering. On a large industrial park with paved roads, a conventional on-road chassis may be sufficient, with priority given to tank capacity, pump flow, and monitor reach. Where the site includes unpaved roads, slopes, narrow process units, or tank-farm bunds, all-wheel drive, a tighter turning radius, and higher mobility become more important, because the vehicle must be able to reach the fire. Each chassis parameter should therefore answer a practical question: where the vehicle must travel, what risks it will face, and what task it must complete.

Industrial fire trucks are used at petrochemical plants, fuel-storage facilities, natural-gas processing facilities, power plants, steel mills, large manufacturing plants, and industrial warehouses, but the emphasis changes with the site. At petrochemical and fuel-storage facilities, the core task is usually foam coverage of flammable-liquid fires and cooling of adjacent tanks. At power plants and large manufacturing sites, the more common tasks are cooling transformers, cable areas, or process equipment, and providing mobile support to the fixed firefighting system. At warehouses and logistics parks, the priority is often rapid water discharge, hose deployment, and control of ordinary combustible fires. At mines or energy sites with difficult roads, chassis mobility can be as important as the firefighting system. The selection logic can therefore be summarized as: industrial hazard, then fire type, then firefighting task, and only then the firefighting system and chassis.

Airport Fire Trucks: Typical Parameters, Functions, and Applications

Airport fire trucks also combine a firefighting system with a specialized chassis, but the configuration is centered on rapid firefighting and rescue in aircraft emergencies. Typical parameters are tied to the airport’s rescue and firefighting protection category, rather than to a single tank size. For example, a mid-size airport serving mainly narrow-body aircraft may specify one major vehicle with about 6,000–9,000 liters of water, matching foam concentrate, a roof monitor, and a bumper monitor. A large international airport serving wide-body aircraft may need several major airport fire trucks, each with a water tank of 10,000–12,000 liters or more, a high-capacity foam system, and complementary agents such as dry chemical. Water is used to cool the fuselage and limit reignition, foam is used to cover fuel spills, and dry chemical is more suitable for localized high-temperature fires in engines or auxiliary power units. ICAO’s Annex 14 and Airport Services Manual—Part I place protection category, extinguishing-agent quantities, and vehicle configuration in one system, so individual parameters should not be judged apart from the airport’s required protection category (ICAO, 2022/2025; ICAO, 2015).

Vehicle performance is equally specific to airport operating areas. An airport fire truck must reach the incident quickly on runways, taxiways, and aprons, then sustain stable discharge. Typical chassis parameters include acceleration, top speed, turning radius, drivetrain, and mobility on wet pavement or grass safety areas. The international framework generally requires the first rescue vehicle to reach a designated point on the runway in the shortest practicable time; many airports therefore treat a 2–3 minute response as a joint constraint on vehicle selection and fire station layout. That is why airport fire trucks commonly use a high-power chassis, a high-flow roof monitor, and the ability to discharge while moving, rather than simply enlarging the water tank and monitor of an industrial fire truck. FAA AC 150/5220-10F adds procurement guidance on vehicle selection and formal specifications. For example, a high-reach extendable turret (HRET) can reach upper-deck doors and wing-area fires on wide-body aircraft, a bumper monitor can be used for close-range discharge, and a penetrating nozzle can support initial cabin suppression (ICAO, 2022/2025; FAA, 2025). The configuration therefore has three linked functions: extinguishing-agent capacity matched to the protection category, a high-mobility chassis to shorten response time, and high- and low-level monitors to cover both the exterior of the aircraft and the cabin.

Airport fire trucks are used at civil airports, international airports, aviation bases, and other facilities that require aircraft rescue and firefighting capability, but the vehicle mix changes with the operating environment. A regional airport served mainly by regional flights may need only one or two mid-size vehicles for runway emergencies and initial apron response. An international hub that regularly handles wide-body aircraft such as the A330, B777, or A350 typically requires several major vehicles sized to a higher protection category, working with the airport fire station, emergency command, medical rescue, and airport-support resources. The task also changes with the incident: a landing-gear failure or fuel spill on the runway first requires rapid foam coverage and fuselage cooling; an engine or auxiliary power unit fire depends more on close-range monitors and dry chemical; an accident at a distant runway end makes acceleration and drivetrain decisive for arriving on time. The typical parameters of an airport fire truck therefore serve one purpose: providing vehicle and firefighting support that matches the aircraft types, airport operating conditions, and emergency system of that airport. ICAO’s Annex 14 and Airport Services Manual establish the international framework, while final vehicle specifications must still reflect applicable national or regional requirements and the airport’s own operating conditions (ICAO, 2022/2025; ICAO, 2015).

How Can You Choose the Right Fire Truck for Your Needs?

When choosing a fire truck, first define the operating environment, fire risks, and required tasks, then select the firefighting system and chassis; do not start by comparing which vehicle has the larger individual specification. An industrial fire truck and an airport fire truck differ in the source of the task: the former is matched to the facility type, hazardous materials, fire types, and plant roads through the water tank, foam system, firefighting pump, monitor, chassis, and drivetrain; the latter is matched to aircraft types, the protection category, runway and apron tasks, and extinguishing-agent demand through the water tank, foam system, monitor, and chassis performance.

The value of a specialized fire truck is therefore a workable combination of chassis, firefighting system, and site conditions: an industrial project depends on whether the vehicle can reach the fire and complete cooling, foam coverage, or plant support; an airport project depends on whether the vehicle can arrive on time and provide firefighting and rescue support in an aircraft emergency.

If you are looking for a fire truck suitable for your project, please feel free to contact us. You may provide the intended operating environment, main fire risks, required firefighting system, and applicable technical requirements, and we will confirm the vehicle configuration on that basis. If you have any questions about fire truck specifications, functions, or customized solutions, we are always available to assist.

References

International Organization for Standardization. (2018). ISO 23932-1:2018: Fire safety engineering—General principles—Part 1: General. ISO. https://www.iso.org/standard/63933.html

International Civil Aviation Organization. (2022). Annex 14—Aerodromes, Volume I: Aerodrome design and operations (9th ed., including Amendment 18, 2025). ICAO. https://store.icao.int/en/annex-14-aerodromes

International Civil Aviation Organization. (2015). Airport services manual: Part I—Rescue and firefighting (Doc 9137P1) (4th ed.; Amendment 1, 2023). ICAO. https://store.icao.int/en/airport-services-manual-part-i-rescue-and-firefighting-doc-9137p1

Federal Aviation Administration. (2025, June 26). AC 150/5220-10F: Guide specification for aircraft rescue and fire fighting (ARFF) vehicles. U.S. Department of Transportation. https://www.faa.gov/documentLibrary/media/Advisory_Circular/150-5220-10F-ARFF-Vehicles.pdf