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Which Technologies will we see in firefighting in the Future?

The most useful firefighting technologies extend human perception and reach. Thermal and optical drones provide an aerial view; compact indoor aircraft and ground robots enter spaces that may be too unstable, hot or contaminated for immediate crew entry; connected sensors and building data improve situational awareness; and positioning systems help command track teams. Artificial intelligence may help interpret this information, but safety-critical decisions still require validated systems, trained operators and accountable incident command.

TopicDisaster Preparedness · Fire SafetyUpdated2026-08-31
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The guide

Which Technologies will we see in firefighting in the Future?

Which Technologies will we see in firefighting in the Future?

What needs attention

  • Thermal drones can locate heat, monitor spread and survey areas unsafe or slow to access on foot
  • Indoor drones can add reconnaissance in structures, vehicles and confined spaces but communications and collision tolerance are critical
  • Ground robots can carry cameras, gas sensors, hose streams or tools into hazardous areas
  • Indoor positioning addresses a persistent command problem: knowing where crews are when GPS is unavailable
  • Connected building systems can provide alarms, layouts and hazard information, but stale or incompatible data can mislead
  • AI is most defensible as decision support with transparent limits, not as an unaccountable incident commander

Controls that reduce risk

  1. Start with a documented operational gap rather than a preferred product
  2. Use recognised test methods and realistic heat, water, smoke, darkness, debris and communications conditions
  3. Train multiple operators and measure proficiency, not just course attendance
  4. Define who owns the aircraft, robot, data feed and tactical decision at an incident
  5. Plan battery management, maintenance, software updates, cybersecurity and spare parts
  6. Protect privacy and evidence integrity when recording people or private property
  7. Exercise communications failure, sensor error and loss-of-control scenarios
  8. Review outcomes after deployments and publish lessons that other services can evaluate

Understand and apply the guidance

Since the beginning, technology has been used to fight fires. In fact, portable water pumps were found in the ruins of ancient Egypt. Bucket brigades gave way to electric pumps, and horse-drawn fire engines were replaced by ones with internal combustion engines. At each step along the way, firefighting got better and more lives were saved. Drones, robots, and other high-tech innovations can help firefighters do their jobs better.

More and more, firefighters will use new tools to help them, such as drones. Their long-range control systems, lightweight, and ability to fly on their own make them perfect for surveying harsh landscapes and dangerous places, like forest fires. They can give real-time information about high-risk fires that are changing, which helps fire departments send out tactical units successfully. The West Midlands Fire Service is already using drones with thermal imaging cameras to make their fire crews more aware of what’s going on, improve their safety, and cut down on wasted time.

I think drones will also be used to stop and put out fires, as well as find them. The Windracers’ SWARM project, which is part of the UKRI’s Future Flight Challenge, is already coordinating the use of multiple drones to drop water and chemicals on forest fires. Drones could also be used to help fight fires in skyscrapers by giving firefighters access to floors that may not have been safe to reach before. The technological revolution has opened the door to new safety options that give you the peace of mind that your whole crew is safe, that everyone on the scene is immediately notified and can respond, and that you are getting real-time information to help you make the right decisions. Safety isn’t just about the parts; it’s about how sure and ready the whole system is. MSA is the first company to improve firefighter safety by giving every firefighter on-the-scene F.A.S.T Technology, connectivity, and Edge Detection enhanced thermal imaging. Only with the MSA LUNAR and Fire Grid can you experience a safety network that gives you real-time visibility on the scene, making everyone safer and lowering the risk for everyone on and off the scene. With better ways to connect, know what’s going on, and keep an eye on things, the possibilities for firefighter safety are huge. In the end, not only will your investment be safe, but so will your firefighters’ safety and the safety of everyone else at a fire scene.

Technology for fighting fires is always getting better. When you already have strong, cutting-edge technologies in place, you can change quickly to meet new challenges. Our Thermite line of firefighting robots is still useful to firefighters all over the world because we keep pushing the limits of innovation, especially when there is a need to help people. The Thermite RS1, the first firefighting robot in the United States, was made because firefighters and first responders had to deal with so many problems on 9/11. This technology grew into the Thermite RS3, which has more modular parts and can be used for more than one mission. Then, we made the Thermite EV2, an all-electric firefighting robot, and its handheld controller. An electric-powered robot can move farther into dangerous, high-temperature environments than one with a gas-powered engine. There are no limits to the kinds of technology we’ll see in firefighting in the future, and I can say with certainty that the future is electric.

Common unsafe practices

  • Buying impressive equipment before defining the mission, performance threshold and trained operators
  • Assuming a successful demonstration proves reliability in smoke, water, heat, debris and radio-shadowed buildings
  • Sending a drone into shared airspace without coordination or legal authority
  • Streaming more video and sensor data than commanders can interpret during a fast-moving incident
  • Relying on connectivity without a degraded-mode plan
  • Treating vendor specifications as independent operational evidence
  • Allowing technology to delay evacuation, defensive tactics or established firefighter safety procedures
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Watch & learn

Related Videos

Captions
Indian deployment report

Noida's first firefighting robots

News report · English (India) · Verified

Report on indigenous firefighting robots planned for service in Noida

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Facts & action

Evidence, Cases & Next Steps

18Small robotsDelhi Fire Service official appliance inventory
2Big robotsDelhi Fire Service official appliance inventory
265Total listed appliancesDelhi Fire Service published inventory across all appliance categories
18Small robotsDelhi Fire Service appliance inventory
2Big robotsDelhi Fire Service appliance inventory; same agency and unit

What the evidence supports

  • Delhi Fire Service robot inventory | 18 small robots and 2 big robots listed in its official appliance inventory
  • Delhi Fire Service total appliance inventory | 265 appliances across the published categories
  • Indian firefighting-drone R&D example | A government science portal documents a 150-litre quick-response Drone Hopper project
  • Indian high-rise drone requirement example | iDEX describes foam delivery up to 150 m, at least 60 litres per minute and at least 45 minutes flight endurance
  • Primary benefit | Better information, reach and safer standoff from inaccessible or hazardous areas
  • Human responsibility | Incident command, trained operators and tested procedures remain essential

Immediate prevention actions

  1. Fire services can inventory where poor visibility, access or communications currently expose crews
  2. Building owners can maintain accurate digital plans, hazard inventories and responder access information
  3. Procurement teams can require independent performance evidence and lifecycle-cost information
  4. Training teams can add technology failure and data-overload scenarios to command exercises
  5. The public should never fly personal drones near an emergency scene because they can obstruct authorised aircraft and responders

Emergency survival steps

  1. Do not wait for a drone, robot or app before raising the alarm and evacuating
  2. Follow official warnings and firefighter instructions even when online video or sensor apps appear to show something different
  3. Keep clear of robots, aircraft, hose lines and command areas at an incident
  4. Never enter or re-enter a hazard zone to retrieve technology or capture footage
  5. Tell responders about trapped people, batteries, chemicals, gas cylinders and building hazards
  6. Use 112 in India and give the exact location, access point and visible conditions

Limitations

  • India has no single open national dataset counting firefighting drones and robots across every state and municipal fire service
  • Delhi Fire Service inventory cannot be extrapolated to all of India
  • Research targets, procurement specifications and challenge requirements do not prove deployment or field performance
  • Equipment counts do not measure availability, maintenance status, operator competence or incident outcomes
  • Payload, flow, reach and endurance use different units and must not be combined in one comparison chart
  • New AI and autonomy claims require independent testing, human oversight and monitoring for unsafe failure modes
Sources and further readingDelhi Fire Service: Appliances and Specifications ↗India Science, Technology & Innovation: Fire Fighting Hopper ↗iDEX: Fire Fighting Drone for High-Rise Buildings challenge ↗Press Information Bureau: iDEX challenges including Fire Fighting BOT and caged drone with thermal imaging ↗Directorate General Fire Services: Role of Fire Services in India ↗NIST Fire Fighting Technology Group — supplementary international technical context ↗NIST Response Robots programme — supplementary international test context ↗LAFD RS3 official announcement — supplementary international system example ↗Last reviewed 2026-08-31