Energy storage fire sprinkler model specifications

In modern society, energy storage technology is increasingly becoming an important means of energy storage and utilization, and its application in the field of fire protection has gradually received widespread attention. As an innovative application of energy storage technology in the field of fire safety, energy storage fire sprinklers are leading the innovation and development of fire protection systems. This article will discuss the models and specifications of energy storage fire sprinklers and their role in fire safety.

1. Model specifications of energy storage fire sprinkler heads

The energy storage fire sprinkler nozzle is an innovative product that combines energy storage technology and fire sprinkler nozzle principles. Its main feature is that it has a certain energy storage capacity and can release the fire extinguishing agent at a higher pressure and for a longer period of time when a fire occurs. This characteristic gives energy-storage fire sprinklers significant advantages in preventing fire spread and controlling fire intensity.

The model specifications of energy storage fire sprinklers cover many aspects:

1. Energy storage capacity: Different models of energy storage fire sprinklers have different energy storage capacities, depending on their design and application scenarios. Generally speaking, the larger the energy storage capacity, the greater the amount of fire extinguishing sprayed, which can more effectively deal with large-area fires.

2. Injection pressure: Energy-storage fire sprinklers push fire extinguishing agents by releasing stored energy, so their injection pressure is one of the key parameters. The required spray pressure will be different in different scenarios, so different models of energy storage fire sprinklers may have different spray pressure ranges.

3. Spray duration: The energy release of energy storage fire sprinkler nozzles is limited, so the spray duration needs to be considered. Some models of sprinkler heads may release energy over a shorter period of time, while other models may choose to release energy steadily over a longer period of time.

4. Applicable scenarios: Different models of energy storage fire sprinklers may be suitable for different scenarios, such as indoor fires, outdoor fires or fires with specific materials. Therefore, model specifications need to be selected based on actual application requirements.

2. Conventional selection table for fire sprinklers with energy storage

1. Cabinet type perfluorohexanone fire extinguishing nozzle model

①QPT120/4.2, flow coefficient is 120, working pressure is 4.2MPa, interface thread size is Rp1 1/4, material is 6061/HPb59/304

②QPT140/4.2, flow coefficient is 140, working pressure is 4.2MPa, interface thread size is Rp1 1/4, material is 6061/HPb59/304

③QPT160/4.2, flow coefficient is 160, working pressure is 4.2MPa, interface thread size is Rp1 1/2, material is 6061/HPb59/304

④QPT180/4.2, flow coefficient is 180, working pressure is 4.2MPa, interface thread size is Rp1 1/2, material is 6061/HPb59/304

⑤QPT200/4.2, flow coefficient is 200, working pressure is 4.2MPa, interface thread size is Rp2, material is 6061/HPb59/304

⑥QPT220/4.2, flow coefficient is 220, working pressure is 4.2MPa, interface thread size is Rp2, material is 6061/HPb59/304

⑦QPT240/4.2, flow coefficient is 240, working pressure is 4.2MPa, interface thread size is Rp2, material is 6061/HPb59/304

2. Nozzle model for hanging fire extinguishing device

①QPT2/4.2, flow coefficient is 2, working pressure is 4.2MPa, interface thread size is R1/2, material is 304, closed nozzle glass ball temperature is 57℃/68℃

②QPT5/4.2, flow coefficient is 5, working pressure is 4.2MPa, interface thread size is R1/2, material is 304, closed nozzle glass ball temperature is 57℃/68℃

③QPT7/4.2, flow coefficient is 7, working pressure is 4.2MPa, interface thread size is R1/2, material is 304, closed nozzle glass ball temperature is 57℃/68℃

④QPT10/4.2, flow coefficient is 10, working pressure is 4.2MPa, interface thread size is R1/2, material is 304, closed nozzle glass ball temperature is 57℃/68℃

⑤QPT15/4.2, flow coefficient is 15, working pressure is 4.2MPa, interface thread size is R3/4, material is 304, closed nozzle glass ball temperature is 57℃/68℃

⑥QPT20/4.2, flow coefficient is 20, working pressure is 4.2MPa, interface thread size is R3/4, material is 304, closed nozzle glass ball temperature is 57℃/68℃

⑦QPT30/4.2, flow coefficient is 30, working pressure is 4.2MPa, interface thread size is R3/4, material is 304, closed nozzle glass ball temperature is 57℃/68℃

⑧QPT40/4.2, flow coefficient is 40, working pressure is 4.2MPa, interface thread size is R1, material is 304, closed nozzle glass ball temperature is 57℃/68℃

⑨QPT50/4.2, flow coefficient is 50, working pressure is 4.2MPa, interface thread size is R1, material is 304, closed nozzle glass ball temperature is 57℃/68℃

⑩QPT60/4.2, flow coefficient is 60, working pressure is 4.2MPa, interface thread size is R1, material is 304, closed nozzle glass ball temperature is 57℃/68℃

3. Nozzle model for energy storage power station

①QPT1/1.6, flow coefficient is 1, working pressure is 1.6MPa, interface thread size is M16*1.5, optional materials are 6061/HPb59/304, closed nozzle glass ball temperature is 57℃/68℃

②QPT1.4/1.6, flow coefficient is 1.4, working pressure is 1.6MPa, interface thread size is M16*1.5, optional materials are 6061/HPb59/304, closed nozzle glass ball temperature is 57℃/68℃

③QPT2/1.6, flow coefficient is 2, working pressure is 1.6MPa, interface thread size is M16*1.5, optional materials are 6061/HPb59/304, closed nozzle glass ball temperature is 57℃/68℃

④QPT2.5/1.6, flow coefficient is 2.5, working pressure is 1.6MPa, interface thread size is M16*1.5, optional materials are 6061/HPb59/304, closed nozzle glass ball temperature is 57℃/68℃

⑤QPT3.0/1.6, flow coefficient is 3.0, working pressure is 1.6MPa, interface thread size is M16*1.5, optional materials are 6061/HPb59/304, closed nozzle glass ball temperature is 57℃/68℃

⑥QPT3.5/1.6, flow coefficient is 3.5, working pressure is 1.6MPa, interface thread size is M16*1.5, optional materials are 6061/HPb59/304, closed nozzle glass ball temperature is 57℃/68℃

⑦QPT4.0/1.6, flow coefficient is 4.0, working pressure is 1.6MPa, interface thread size is M16*1.5, optional materials are 6061/HPb59/304, closed nozzle glass ball temperature is 57℃/68℃

3. The role of energy storage fire sprinklers in fire safety

The introduction of energy storage fire sprinklers brings new possibilities and advantages to fire safety:

More efficient fire extinguishing: Energy storage fire sprinklers can extinguish fires with higher pressure and larger injection volume in the early stages of a fire, effectively suppressing the spread of fire and helping to control the fire within a smaller area.

Extended duration: Because the energy-storage fire sprinkler nozzle can continue to spray for a period of time, it performs well when it takes longer to extinguish the fire source, providing firefighters with more time to take other fire-extinguishing measures.

Coping with complex situations: Some fire scenarios may be complex due to environmental conditions or characteristics of burning materials. Different models and specifications of energy storage fire sprinklers can be adjusted according to actual needs to cope with different fire situations.

Reduce manpower risks: The automation characteristics of energy storage fire sprinklers mean that they can be started automatically when a fire occurs, reducing the risk of human intervention and confirming rapid response in the early stages of a fire.

As an innovative application of energy storage technology in the field of fire protection, energy storage fire sprinklers bring important opportunities to improve fire response capabilities and fire safety levels. Through the selection of different models and specifications, it can play a role in different fire scenarios and provide more support and tools for firefighters. However, in its promotion and application, its cost, maintenance and possible technical challenges must be fully considered to confirm its long-term stable operation in the fire protection field.