Bonded insulator layers with annular protrusions create a tortuous creepage path that prevents sparks and voltage jumps in compact high-voltage bus connectors.
Skived copper fins formed directly on a circuit breaker busbar improve cooling without added volume or stepped regions that raise current density.
An over-molded thermal component cools high-current busbars while maintaining electrical isolation, enabling lighter power distribution hardware.
A preloaded support and thermally conductive insulating layer let a bus bar stay electrically isolated while dissipating heat to a metallic housing.
Side-contact cooling fins dissipate busbar heat in tight vehicle layouts while insulators and fixing elements help prevent short circuits.
Heat-actuated clasps let a conductive busbar bracket transfer heat to a cold plate, then open at high temperature to prevent arcing.
Transfers heat from high-voltage hotspots to earth-potential sinks while preserving insulation and absorbing thermal expansion and vibration.
Cooling channels between segmented busbar electrodes dissipate heat, improving current handling and reliability in hot electronic assemblies.
A thermally conductive sheet links low-resistance ends to the central conductor section to limit temperature rise while avoiding wasteful punching.
Shielding between high-current conductor groups cuts EMI, improves thermal efficiency, and simplifies rigid bus duct installation and upkeep.
Crossing insulated conductors in an added busbar cover damp circulation currents, limiting temperature rise and grounding-related safety risks.
An integrated heat transfer portion and protruding support cool connected and adjacent bus bars without adding separate cooling hardware.