Aluminum Flexible Connections

Aluminum battery cases are engineered with advanced precision to deliver lightweight strength, excellent heat dissipation, and reliable corrosion resistance. They help protect lithium-ion batteries

3003-H14 Aluminum Cases and EV battery modules. Featuring deep drawing forming, laser welding compatibility, dimensional tolerance control, sealing groove machining, and customized battery enclosure

In the fields of new energy, power electronics, rail transportation, and industrial automation, current transmission systems require both high conductivity and high flexibility. Flexible Copper

The Copper Flexible BusBar is a flexible conductive component designed for high-vibration and thermal expansion/contraction environments. It achieves atomic-level diffusion welding of multiple layers

The battery cover plate is the central nervous system and safety valve of the square lithium-ion battery pack. It is by no means a simple metal cover, but a precision electromechanical integrated

The Battery Aluminum Cases are precision-engineered enclosures crafted from high-strength aluminum alloys to deliver optimal structural protection, heat dissipation, and corrosion resistance for

The aluminum bus bar alloy provides reliable and efficient electrical connections for industrial and energy distribution systems. Designed for consistent current flow and stable mechanical alignment,

With the rapid development of the new energy vehicle, energy storage system, power tool, smart device, and industrial power supply markets, battery systems are facing higher demands for safety,

The Li Cell Aluminum Shell is an aluminum alloy casing component specifically designed for lithium iron phosphate (LiFePO4) battery cells. It primarily serves to encase the battery cells, providing

In the fields of new energy, power electronics, and industrial control, the requirements for the flexibility, safety, and stability of conductive connection components are increasing. Braided

As new energy vehicle power systems and novel energy storage systems continue to evolve towards higher energy density, higher safety levels, and longer lifecycles, the engineering reliability of

With the continuous development of modern power systems towards higher power density, modularity, and high reliability, traditional rigid conductors can no longer meet the demands of complex