Stacked Fin Heat Sink Capability
Stacked heat sinks are formed by pressing single fins, multiple fins, and single extrusions together under high pressure. This press-fit assembly method creates a cooling structure with both top and bottom base plates, ideal for mounting power devices. No interface material is required for assembly, offering low development costs, high design flexibility (adaptable to different widths and structures), and strong universality.
.
Stacked Fin Heat Sink Advantages
- Increased cooling area while forming closed passages for higher thermal efficiency
- No volume restrictions, suitable for large-scale cooling needs
- Higher structural strength for long service life
- Lower manufacturing cost compared to complex cooling solutions
- Easier installation and maintenance for reduced operational costs
High-efficiency two-phase heat spreaders with lightweight aluminum construction. Designed for GPU, CPU, IGBT & power electronics and energy storage systems. Features: ultra-thin profile, high thermal conductivity, customizable size and shape.
Pulsating Heat Pipe (PHP, or Oscillating Heat Pipe) is advanced thermal management tech for high-power electronics, delivering high-efficiency, reliable heat sinks for aerospace, satellites, military equipment and VPX cooling chassis. Different from conventional heat pipes, PHP adopts a simple closed capillary loop charged with working fluid. Driven by fluid phase change, internal oscillation transfers heat rapidly with low flow resistance, requiring no pumps or moving components. Our optimized PHP heat sinks fit compact, mission-critical systems. Lightweight and miniaturized, they run stably and prolong device service life under extreme conditions such as microgravity and severe military environments. Core merits include outstanding heat conductivity, quick thermal response, robust environmental adaptability, low upkeep and broad operating temperature range.
Liquid cold plates capture heat through the contact surface and remove heat via precision-engineered internal flow channels. Equipped with dedicated inlet and outlet ports, the liquid cold plate connects to external coolant pumps and cooling loop systems through tubing. The cooling liquid circulates continuously within the internal channel structure, rapidly and efficiently transferring heat away from heat sources.Our liquid cold plates are widely adopted for thermal management and heat dissipation in BESS energy storage systems, EV battery packs, high-power IGBT modules, industrial CPUs, GPUs and other high-power heat-generating equipment.
The 3DVC cooler is developed based on conventional copper vapor chambers and copper heat pipes. It adopts an intercommunicated layout to form an integrated 3D vacuum cavity, with cooling fins welded between individual heat pipe units.
Copper Heat Pipes & Assemblies
A copper heat pipe is a sealed enclosure maintained in a vacuum environment. It achieves two-phase cooling thermal transition through a continuous cycle of evaporation and condensation, ensuring efficient heat transfer for various thermal management scenarios.
Thermosyphon Cooler is a high-efficiency passive cooling system that achieves heat transfer entirely through natural convection, without the need for any mechanical pumps. This energy-saving and low-maintenance cooling solution enables the cooling medium to circulate independently and fully in a closed-loop system, ensuring stable and reliable heat dissipation performance for various industrial and commercial applications.
Air to air/ liquid Heat exchangers
Air-to-Air Heat Exchanger It transfers heat between two independent air streams via finned/plate core surfaces, with no air mixing required. Featuring simple structure and reliable performance, it is widely applied in HVAC, ventilation heat recovery and electronic air cooling systems. Air-to-Liquid Heat Exchanger This unit enables heat transfer between airflow and circulating liquid like water or glycol coolant. With high heat dissipation capacity and compact design, it is ideal for high-power electronics, IGBT thermal management, industrial equipment and server cooling applications.
The inside of the roll bond plate is in a vacuum state. The refrigerant as the working medium vaporizes at the heat source to absorb heat, and liquefies in the area outside the heat source to release heat。



