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Thermosyphon System Applied in Energy Storage PCS Cabinet
Thermosyphon System for Inductors in PCS Cabinet
Project Overview

Our energy storage PCS cabinet utilizes an advanced thermosiphon cooling solution. This system employs natural circulation through working fluid phase change to efficiently and silently transfer heat away from core power components, achieving exceptional heat dissipation performance. Characterized by zero energy consumption, maintenance-free operation, and high reliability, it significantly enhances system energy density and service life, making it an ideal thermal management choice for high-end energy storage systems.

Key Parameters

Main applications:Heat dissipation for scenarios with densely arranged and structurally diverse heating components such as capacitors and inductors
System Feature:Both evaporator and condenser ends utilize microchannel heat exchangers
Heat Transfer Process:Solid component heat → surrounding air → liquid refrigerant → condenser → ambient air
Heat Exchange Capacity:Covers range from 1000W to 8000W


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Thermosyphon System with Air Heat Exchanger for PCS Cabinet
Project Overview

To address the heat dissipation requirements of PCS cabinets, we have introduced an efficient thermal exchange solution based on the thermosiphon principle. This system utilizes phase-change heat transfer, requiring no pumps or consumables, and automatically transfers internal cabinet heat to the external environment with high efficiency. It significantly reduces cooling energy consumption while offering advantages such as sealed dust-proof operation and maintenance-free functionality, making it an ideal choice for enhancing equipment operational reliability and service life.

Key Parameter

Primary ApplicationHeat dissipation for scenarios with densely arranged and structurally diverse heating components, such as cooling for capacitors and reactors installed indoors
System Feature:Both evaporator and condenser ends employ microchannel heat exchangers
Heat Transfer Process:Solid component heat → surrounding air → liquid refrigerant → condenser → ambient air
Heat Exchange Capacity:Covers a range from 1000W to 8000W


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