GET A QUOTE
GET A QUOTE
Fire - Linear Heat Detection System
Our Linear Heat Detection System, enhance the fire safety of critical infrastructure and personnel. Our solutions enhances the fire safety of critical infrastructure and personnel . We offer fire detection solutions utilizing Fiber Optic technology Our system can identify a fire at any point along the linear heat sensor cable's length, spanning a distance of several kilometres. Linear Heat Detection is the terminology used for fire detection systems which are used to monitor environments over a long range distance (linear assets), typically in a special hazard environment.
The variety of fibre optic monitoring systems offered by Power International are created specifically to increase the fire safety of employees and important infrastructure.
In order to monitor surroundings over a long distance (linear assets), generally in special danger conditions, we offer systems for fire detection using linear heat detection technology.
Across a distance of many kilometres, LHD systems are capable of finding a fire anywhere along the length of the linear heat sensor wire. One of the most important technologies in this area, fibre optic distributed temperature sensing, is used by Bandweaver.
This solution gives operators the appropriate information at the appropriate moment when used in conjunction with our clever software and services.
Bandweaver's solutions enable quick decision making and help to limit risk whether the asset is in a remote region or a crowded inner metropolis.
Some of the conventional linear heat detection systems that have typically been used include, digital cable based, analog cable, pressurized tube and multi-point detection. There are some significant advantages of utilizing fiber optic sensors over conventional technologies, these include
There are a wide variety of industrial applications which benefit from using linear heat fire detection systems these include -
Monitoring of commercial buildings, factories, warehouses, refrigerators, parking lots, hangars, and other major structures.
Monitoring electrical equipment in industrial buildings and spotting temperature hot spots before they develop into a potential fire event is made very easy by fibre optic linear heat detection systems.
In addition to or as a substitute for other technologies like beam detectors, aspiration systems, and point smoke sensors, fibre optic linear heat detection is an excellent choice.
• Fiber optic linear heat detection systems have shown to be the most reliable method for monitoring road and rail tunnels safely and effectively.
• This technique for fire detection and prevention in tunnels is very dependable and affordable, with a range of up to 10 km per system.
• Absolute temperature values can be provided along the whole length of the asset using fibre optic-based linear heat detection. This information can be included into the operator's ventilation control system, enabling them to use it both during regular operations and in the event of a fire.
Fiber optic DTS can be used as a linear heat detection device in addition to condition monitoring.
They are either mounted on the cables or at the tunnel's apex, and they offer advance notice of any potential hot spots in the electrical wires.
In order to monitor surroundings over a long distance (linear assets), usually in a unique hazard setting, fire detection devices are referred to as Linear Heat Detectors.
Anywhere along the length of the linear heat sensing cable, which can reach lengths of several kilometres, a fire can be detected by linear heat detection devices.
One of the primary technologies used in this area is distributed fibre optic temperature sensing.
The use of linear heat fire detection systems is advantageous in a wide range of industrial applications, including -
It is essential to have a reliable fire detection system for early detection in order to enable fire control and prevent loss of life because road and rail tunnels tend to have restrictive escape routes and ventilation :
Motor vehicle collisions, tunnel-based material combustion (including debris and oil spills), and electrical problems are some of the things that start fires.
Field testing and fires have demonstrated that burning vehicles in tunnels heat up significantly more fast than would be predicted in a typical fire.
Smoke and gases flow in different ways depending on a number of variables, including :
Cable trays and cable tunnels have been substantially protected using DTS technology.
These two apps in this setting are different from one another.
Notwithstanding the rarity of cable tunnel fires, these occurrences can have a substantial financial impact on the owner corporations due to the crucial business information and services that these important "arteries" may offer. If fires in these settings are not soon discovered, the owner companies' ability to protect their employees and their assets could be seriously jeopardised.
Significant amounts of hazardous smoke and gases may be produced by high intensity fires, making it difficult for trapped people to escape and for fire and rescue crews to reach the scene to put out the fire .
So, it is crucial.
For easy access into and out of large, complicated structures, escalators are essential.
As a result, escalators can be a crucial component of an emergency escape plan for a structure.
The choice of whether to utilise an escalator to evacuate personnel from a building in an emergency situation is a difficult one, and there are many things to take into account before starting the process of considering the adoption of escalators for emergency evacuation.
This method may account for incidents other than fires, such as Imminent Catastrophic Events (ICE).
The safe operation of the escalators depends on the continuous availability of the emergency exits connected to them.
In belt type conveyors, moving and static fires, respectively, are the two main types of fires that need to be quickly identified.
Most frequently, infrared type equipment is used to detect moving fires along with CO2 detection occasionally, at predetermined strategic points along the conveyor system.
It is usual to use a linear heat detection system to detect both static flames and potentially big moving fires since this strategy by itself cannot offer detection coverage throughout the whole length of the belt.
The electrical drive machinery used to supply energy to the belt conveyor system might also catch on fire in close proximity to the belt.
