Actuating Device Thermal Management via Composite Housing

The housing is designed as a composite structure combining plastic and metal materials. The plastic housing parts provide cost-effective manufacturing and corrosion resistance, while integrated metal inserts or coatings provide high thermal conductivity pathways. This composite approach allows the housing to simultaneously achieve ease of manufacture, low cost, and effective heat dissipation to protect electronics from thermal load.

Instead of using metal for the entire housing, the invention applies metal thermal management components only in specific locations where heat dissipation is critical. Metal inserts, thermal conductive coatings, or heat sinks are integrated at strategic positions near heat-generating components, while the remainder of the housing uses lightweight plastic material. This local application of metal provides effective heat dissipation without significantly increasing overall weight.

The invention introduces thermal management intermediaries between the electric motor and the housing environment. These intermediaries include heat sinks, thermal conductive pathways, cooling channels, or thermal interface materials that facilitate heat transfer from the motor to the surrounding environment. This allows the motor to remain integrated in the housing while effectively managing its heat generation to protect nearby electronics from excessive thermal load.

The housing is segmented into functional zones with cooling channels integrated into specific sections rather than the entire structure. Cooling channels are strategically placed in areas requiring heat dissipation, such as near the electric motor or electronics compartments, while other housing sections maintain simple solid construction. This segmented approach provides effective cooling where needed without significantly increasing overall device complexity or manufacturing difficulty.