The FireBot was born after the young man learned about the risks faced by firefighters and evolved through three prototypes until it was equipped with treads, a thermal camera, sensors, and communication with victims. The technology was designed to advance through dangerous locations, transmit information from inside burning buildings, and assist emergency teams in understanding the scenario before exposing a person directly to the environment.
While many 17-year-olds were starting their college careers, Siddharth Thakur was already working on a machine designed to face a much more extreme scenario. His fire robot, called FireBot, had been developed to enter burning buildings, navigate obstacles, and relay information that could help firefighters search for victims.
As of October 8, 2021, Thakur was in his first year of Electrical and Computer Engineering at the University of Texas at Austin and had already built three generations of the prototype. The Cockrell School of Engineering at UT Austin highlighted the student’s journey and detailed the evolution of the machine.
The project transitioned from a small wheeled vehicle to a tracked structure equipped with a thermal camera, video transmission, sensors, and two-way communication. The goal was simple to understand, though technically challenging to execute: send a machine into an environment where a person could be at risk of dying first.
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The Death of a Firefighter Transformed a Real Problem into an Engineering Project
The idea began years before Thakur entered college. Back in high school, he learned about the death of a firefighter from his area and started reflecting on the risks faced by professionals forced to enter burning structures to find people.
At that time, the student was working on a science project within a fabrication lab connected to Houston Community College. From there, he began to seek information directly from professionals familiar with the issue in practice.
Thakur spoke with firefighters and also reached out to other fire departments in the United States. These discussions revealed that one of the challenges was precisely entering a dangerous environment without knowing exactly what is inside, as every minute could make a difference for someone trapped inside.
Robotics then began to be utilized to address this need. Instead of envisioning a machine solely to showcase technical knowledge, the young man started developing equipment capable of entering the area, observing the environment, and returning information to the team stationed in a safer location.
Three Prototypes Took the FireBot from Small Wheels to a Tracked Platform
The first FireBot was quite different from the version Thakur would present years later. The machine started as a small four-wheeled vehicle, but the design changed as the student received feedback from emergency professionals and identified limitations.
A building affected by fire may have scattered objects and different obstacles in the way. Therefore, a machine designed only to move on a flat surface could struggle to advance.
The solution found during development was to replace the initial setup with a tracked platform. This type of structure increased the robot’s ability to navigate obstacles encountered along the way.
In total, Thakur ended up with three prototypes. The changes were not limited to the exterior. The control system also evolved to a semi-autonomous panel, allowing for the integration of various functions used to observe and control the equipment.
Thermal camera helps the robot search for victims where normal vision may not suffice
One of the most important features incorporated into the FireBot was the thermal camera. In simple terms, this technology allows observation of temperature differences in the environment and can aid in identifying people even when normal sight becomes challenging.
The robot also transmits live video to those controlling the equipment. This allows the team to gather information from inside the structure without relying solely on someone physically entering the location for an initial assessment.

Sensors complement the system and enhance the information collected during its operations. This combination of features transforms the FireBot into a kind of mobile observer, capable of advancing while sending data outward.
The proposal does not eliminate the need for firefighters. It seeks to provide more information before or during a search operation, allowing professionals to better understand the environment in which they need to work.
Firefighters could also communicate with a person found by the FireBot
Locating someone within a burning building resolves only part of the problem. If the victim is conscious, it may still be necessary to assess their condition and guide their next movements.
Therefore, the FireBot was equipped with a two-way communication system. This feature allows firefighters to speak with a person located by the robot and receive a response.
This resource adds another dimension to the project. The machine no longer functions solely as eyes inside the structure but also serves as a channel between the emergency team and those trapped in the location.
The Cockrell School of Engineering at UT Austin also noted that the project accumulated features such as thermal cameras, sensors, and more advanced control systems following the successive versions developed by Thakur.
The FireBot Impresses with Its Proposal, But There Still Remains a Gap Between the Prototype and Real-World Use
Although the idea was created to address a problem faced by firefighters, the FireBot was still presented in 2021 as a developing prototype. This point is important to avoid confusing the capabilities demonstrated by the project with those of equipment fully integrated into regular emergency operations.
Thakur intended to continue refining the technology so that, in the future, it could reach fire departments. Thus, there was no indication that the FireBot had already replaced professional equipment or had become a certified tool for routinely entering real fires.
The project also took the student to the finals of the Collegiate Inventors Competition and earned him the popular choice award from Arrow Electronics. Nevertheless, its primary differentiator lay in the journey from high school: identifying a real risk, conversing with those facing the problem, and repeatedly modifying the machine.
At just 17 years old, Thakur had already transformed a small four-wheeled vehicle into a tracked robot capable of transmitting images, detecting temperature differences, overcoming obstacles, and establishing two-way communication between firefighters and potential victims.
The FireBot still needed to progress beyond the prototype stage to become an operational tool. Even so, its three versions demonstrated how engineering and robotics can be harnessed to reduce human exposure precisely in environments where each decision involves risk.
If a robot can show where a victim is before a firefighter enters a burning building, how significantly could machines like this change the way rescues are conducted?

