Ijraset Journal For Research in Applied Science and Engineering Technology
Authors: P V N Saichandu , Dontha Karthik, Dudekula Akhil, K. Sridhar Reddy, Janipelly Vamshi
DOI Link: https://doi.org/10.22214/ijraset.2024.58968
Certificate: View Certificate
Large factories, warehouses, and industrial production facilities always run the risk of fires breaking out. Lack of appropriate firefighting measures could result in disastrous consequences and along with financial losses might even lead to massive loss of human life. In such situations, it is ideal to install a Fire Monitor also known as a deluge gun. Fire monitors are an aimable and controllable high-capacity water jet used to deal with large fires. Unlike Fire extinguishers, Fire Monitors are permanently installed and cannot be moved. Using an array of heat sensors, this fire monitor detects any changes in ambient temperature and sends the user an alert about the same. While traditional fire monitor systems need a human operator to change the direction of the water jet and aim it appropriately, this fire monitor has been equipped with RF control and an onboard camera. Thereby allowing the user to operate it from a safe distance.
I. INTRODUCTION
Fire is a rapid chemical combination of three elements; fuel, heat and oxygen resulting in the production of heat and flame. Automated fire monitor & controller systems are basically certain form of programmable electronic devices that can be used to identify threats or attacks of fire in surrounding. In other to abolish the traditional methods of preventing fire in places using human interferences, this project was implemented to design and construct a fire monitoring, prevention and control system for various places .
Any likelihoods of fire disaster in a market shop is intelligently detected using sensors, & alarm is started to give a siren about the calamity, controlled to avoid viral spread using a fire fighting mechanism.
The requirement for automated firefighting is continuously increasing. Remote-controlled monitors, especially in combination with automated fire detection, allow a targeted but flexible firefighting operation in limited areas. The technical development in drive engineering, sensor technology and control technology offer some great future potential. By giving it a span to cover an area via remote controller without and human interface. Automated firefighting systems are well known as sprinkler systems and also spray nozzles. But for several years automated firefighting systems with remote-controlled monitors are used for fire protection of tank farms, petroleum loading terminals, aircraft hangars, thermal power plants, production facilities, recycling plants, waste incineration plants
A Fire monitoring and control system is designed to detect the presence of fire by monitoring environmental changes associated with combustion with the help various sensors like heat sensor.
Along with a pump and solenoid valve attached to the system for its easy open close operations with a camera mounted on the top for the perfect view as the flow of the water output towards extinguishing fire.
A. Uses
II. LITERATURE REVIEW
III. METHODOLOGY
Fabrication is an important industry that involves cutting, manipulating and assembling materials to produce desired structures. And while different fabrication companies use different techniques, most rely on three basic processes: cutting, bending and assembling.
A. Fabrication
The first process of fabrication is cutting. During this process, the metal fabrication company cuts one or more pieces of raw metal for use in the creation of a new metal structure or product. Whether it’s steel, aluminium, iron or any other common type of metal, though, cutting metal requires special tools. After cutting raw metal, metal fabrication companies must bend it. Again, there are different ways to bend metal after cutting it. Some metal fabrication companies hammer the metal sheets or sections into the desired shape. Hammering can be done by hand, or it can be done using a machine (power hammering). The third and final process of metal fabrication is assembling. As the name suggests, this process involves assembling the metal sheet or sections into the desired finished product. Assembling is typically performed via welding, though other steps may be included in the process as well.
IV. COMPONENTS
V. EMBEDDED SYSTEM
An Embedded System is a combination of computer hardware and software, and perhaps additional mechanical or other parts, designed to perform a specific function. An embedded system is a microcontroller-based, software driven, reliable, real-time control system, autonomous, or human or network interactive, operating on diverse physical variables and in diverse environments and sold into a competitive and cost conscious market. An embedded system is not a computer system that is used primarily for processing, not a software system on PC or UNIX, not a traditional business or scientific application. High-end embedded & lower end embedded systems. High-end embedded system - Generally 32, 64 Bit Controllers used with OS. Examples Personal Digital Assistant and Mobile phones etc .Lower end embedded systems - Generally 8,16 Bit Controllers used with an minimal operating systems and hardware layout designed for the specific purpose.
VI. SOFTWARE REQUIREMENTS
A. Arduino IDE
Arduino is an open-source prototyping based on easy-to-use hardware and software. Arduino boards are able to read inputs - light on a sensor, a finger on a button, or a Twitter message - and turn it into an output - activating a motor, turning on an LED, publishing something online. You can tell your board what to do by sending a set of instructions to the microcontroller on the board. To do so you use the Arduino programming language (based on Wiring), and the Arduino Software (IDE), based on Processing.
The technical development in the field of drive engineering, sensor technology and control technology offers some great future potential to detect fires in their initial phase as well as to fight fires in a localized and resource-conserving manner by use of monitors. In addition, a focus must be placed on what firefighters around the world use to fight fires. In live operations, the extinguishing agent flow is adapted to the requirements set by the fire incident. The availability of remote-controlled monitors and nozzles where the extinguishing agent flow rate can be adjusted by remote-control without interruption of the operation makes it possible to apply this procedure also to automated firefighting systems. If it is therefore successful to apply experience and procedures from practical firefighting to automated firefighting systems, the seeming paradox of “less extinguishing agent leads to a higher level of fire protection” can become reality.
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Copyright © 2024 P V N Saichandu , Dontha Karthik, Dudekula Akhil, K. Sridhar Reddy, Janipelly Vamshi. This is an open access article distributed under the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.
Paper Id : IJRASET58968
Publish Date : 2024-03-12
ISSN : 2321-9653
Publisher Name : IJRASET
DOI Link : Click Here