Conversion Constructional Details TRIZ Cases

Molded conductive pins with closed ends prevent cable exit during wiring, reducing electrical discharge risks in transformer switches.

Interconnected semiconductor module cases create internal coolant flow paths to reduce device volume while maintaining thermal management.

A cooled power conversion assembly uses segmented cooling elements to manage heat transfer across distinct device chambers.

A semiconductor device positions a second switching element further from terminals to increase inductive reactance.

Vertical current paths through stacked substrates reduce wiring inductance while increasing current-carrying capacity in three-level inverter modules.

Segmented capacitors with dynamic switching reduce physical size while minimizing voltage ripple in AC to DC adapters.

Stacked bus bars with parallel positive connections reduce wiring inductances in power conversion circuits.

A stacked power module inverts current direction through facing conductive traces to cancel magnetic fields and reduce internal inductance.

Sealed protective case prevents air ingress through empty openings, stopping secondary fire spread from broken power semiconductors.

Stacked electronic component bodies interpose a circuit board to minimize wire lengths and reduce electromagnetic noise.

Segmenting the upper busbar resolves accessibility issues while maintaining stacked geometry to minimize leakage inductance.

Intersecting electrode terminal arrangements reduce bus bar inductance and voltage surges while enhancing arrangement flexibility.

Segmented sintered layers buffer thermal expansion differences to prevent cracks in IGBT gate wiring.

A positioning pin aligns the circuit board and electrical connection module within an electronic control unit housing.

A semiconductor device uses a magnetic plate to reduce mutual inductance between series-connected switching elements.

Position-adjustment structures using intermediary pins decouple circuit board alignment from case mounting, resolving assembly tolerance contradictions.

An integrated power module embeds coolant passageways in an over-molded casing, eliminating stacked heat sink assemblies and reducing vertical profile.

A multi-layer power module packaging structure arranges conducting layers to form current loops with opposite directions.

Embedding a connecting coolant passage in the housing inner wall links coolers while enhancing side wall strength and eliminating external passage volume.

A DC-DC converter module routes connection wiring through a magnetic substrate to minimize impedance and suppress electromagnetic noise leakage.

Bundling positive, negative, and ground wirings in a multi-core cable reduces wiring inductance, allowing flexible Y capacitor placement away from bus bars.

Far busbar bypasses near terminals to increase conductive area, reducing parasitic inductance that inflates converter size.

Cooling block merges with capacitor housing to reduce inverter volume while maintaining thermal reliability.

Opposing semiconductor modules reduce mutual inductance through counter-flowing currents in intermediate bus bars.

Nested inner and outer DC terminals reduce commutation loop inductance for higher switching frequencies.

Auxiliary capacitors establish low impedance paths for noise currents, reducing radiation noise from heat dissipation conductors.

Three dimensional chip nesting lowers switch loss while improving thermal uniformity for power densities above 20 W/inch3.

Resilient bird-wing pieces clamp power devices against a housing surface to secure components and manage thermal loads.

A cradle guide portion directs wiring harnesses to prevent pinching between the printer and base.

An integrated housing consolidates voltage converters and control units to reduce wiring length and installation time in limited vehicle spaces.

Mounting the circuit breaker on the drive front face reduces assembly volume and improves operator access to the switch mechanism.

A power module design integrates a second sealing resin with a rough inner metal case surface to enhance structural adhesion and mechanical locking.

Bifurcated main terminals sandwich laminated control terminals to cancel magnetic fluxes and suppress noise interference in compact power modules.

Fixing means thermally connects a control card to a cooling device, dissipating heat without adding separate components or increasing size.

A vehicle power module substrate features a pattern layer protruding beyond the insulating layer to facilitate lead frame bonding.

Consolidating power modules and transistors on one heat sink reduces circuit board area by thirty percent while maintaining thermal performance.

A power converter uses asymmetric semiconductor devices in upper and lower arms to reduce main circuit wiring inductance.