Automatic Firefighting Vehicle
Keywords:
Automation, Extinguishing fires, Firefighting robot, Flame sensor, Human interruption, QRob, ThermostatAbstract
As mechanical technology has progressed, human interruption has diminished, and robots are now utilized for a range of duties and for human well-being. Fire incidents are growing more common these days, posing a threat to human life and property while also complicating firefighters’ efforts to save lives. A firefighting robot is employed in such scenarios to preserve human lives, property, and the environment from fire disasters. Automation is an arrangement of different elements that regulates, directs, senses, and commands itself to achieve a desired result in today’s commercial, industrial, and home worlds; it is actually an arrangement of different elements that regulates, directs, senses, and commands itself to achieve a desired result. The “automatic firefighting vehicle” concept utilizes electrical thermostat technology to monitor and control fire hazards continuously, 24 hours a day, seven days a week. This system offers a cost-effective solution with broad applicability and the potential to deliver efficient and reliable results. It is particularly suitable for environments that require automated operations, including industrial, commercial, and residential settings. A fire is a devastating event that can lead to loss of life, destruction of property, and long-term disabilities for those affected. Survivors may also suffer from lasting psychological trauma. While firefighters are primarily responsible for extinguishing fires, they often face significant risks, especially in high-hazard environments such as nuclear power plants, petroleum refineries, and gas storage facilities. Their challenges intensify when fires occur in confined spaces, where they must navigate through structural debris and obstacles to extinguish the flames and rescue victims. Due to the significant challenges and risks associated with firefighting operations, technological advancements can be utilized to assist. This paper presents the development of QRob, a fire-fighting robot designed to extinguish fires without putting firefighters at unnecessary risk. Unlike conventional fire-fighting robots, QRob features a compact design, enabling it to access confined areas and effectively reach fires in tight spaces.
To detect fires, QRob is equipped with a flame sensor, allowing it to automatically locate fire sources and extinguish them remotely from a safe distance. The robot is programmed to navigate toward the fire and halt at a maximum distance of 40 cm before initiating the extinguishing process.
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