T本产品是一种高效的 矩形显热换热芯 专为电动汽车充电站、电气柜和储能外壳的通风与冷却而设计。采用 逆流式空气-空气热交换结构,它能在内外气流之间实现有效的热传递,同时保持两者完全分离,防止灰尘、湿气及污染物进入柜体。
换热芯采用高导热材料制造,例如 铝箔或不锈钢,确保优异的传热性能、耐腐蚀性和结构耐久性。与交叉流设计相比, 逆流式配置提供更髙的换热效率,在低风量条件下实现更好的冷却性能,并降低风扇能耗。
具有 矩形模块化设计,该单元易于集成到各种设备机箱中,包括电动汽车充电桩、配电柜、电池储能系统和通信机柜。它支持在风量、尺寸、通道间距和耐温性方面全面定制,以满足不同的应用需求。
在实际应用中,该显热换热芯可有效降低机柜内部温度,部分替代传统空调系统,并显著降低整体能耗。它还提高了系统可靠性,延长了电气部件的使用寿命,是节能热管理的理想解决方案。
Fast EV chargers, power-distribution cabinets, and battery-energy-storage enclosures concentrate a lot of power electronics in a small, often outdoor, space. IGBTs, rectifiers, and battery racks all generate heat, and once internal temperature rises the equipment derates or shuts down to protect itself. Moving that heat out with outside air is the simplest cooling path, but the cabinet must stay sealed against dust, rain, salt, and insects. A counterflow air-to-air core solves this by passing the hot internal air and the cool external air through adjacent, separately sealed channels so heat crosses the plate wall while the airstreams never mix.
Counterflow geometry keeps the two streams flowing in opposite directions, which sustains a larger average temperature difference than a crossflow layout and therefore delivers more cooling for the same core size. The rectangular, modular core drops into the cabinet wall, and the sealed plates keep IP-rated separation between inside and outside. Specifiers can tune channel spacing to balance heat transfer against pressure drop, choose aluminium foil for light weight or stainless for harsh sites, and size the core to the cabinet heat rejection so the fan energy stays low. In moderate climates the core can carry much of the cooling load and reduce reliance on active air conditioning.
常见问题
Why choose a counterflow core over a crossflow one for cabinet cooling?
Counterflow keeps the two airstreams moving in opposite directions, preserving a larger average temperature difference along the whole plate. For the same footprint this extracts more heat than a crossflow core, which matters when cabinet space is tight.
How are the internal and external air kept separate?
The core is built from sealed plate channels. Hot internal air and cool outside air travel in adjacent passages that never open into each other, so dust, moisture, and salt stay out of the electronics while heat still transfers across the wall.
Can this replace the air conditioner in an EV charger?
In moderate climates the core can handle much of the cooling load and reduce air-conditioning runtime. In hot environments it is usually applied as pre-cooling to lower the load on the active cooling system rather than replace it entirely.
What can be customized?
Dimensions, airflow capacity, channel spacing, and temperature resistance can all be tailored to the enclosure, whether that is an EV charger, a power cabinet, a battery-storage system, or a telecom cabinet.
常见问题
Why choose a counterflow core over a crossflow one for cabinet cooling?
Counterflow keeps the two airstreams moving in opposite directions, preserving a larger average temperature difference along the whole plate. For the same footprint this extracts more heat than a crossflow core, which matters when cabinet space is tight.
How are the internal and external air kept separate?
The core is built from sealed plate channels. Hot internal air and cool outside air travel in adjacent passages that never open into each other, so dust, moisture, and salt stay out of the electronics while heat still transfers across the wall.
Can this replace the air conditioner in an EV charger?
In moderate climates the core can handle much of the cooling load and reduce air-conditioning runtime. In hot environments it is usually applied as pre-cooling to lower the load on the active cooling system rather than replace it entirely.
What can be customized?
Dimensions, airflow capacity, channel spacing, and temperature resistance can all be tailored to the enclosure, whether that is an EV charger, a power cabinet, a battery-storage system, or a telecom cabinet.
相关产品
面向暖通空调与通风的板式、旋转式或热管回收。
空气与液体用大表面积固定芯体。
大风量用高效能量回收。
用于洁净场合的被动、完全分离气流。