Varied parasitic inductance distributes current evenly across parallel diodes, preventing abnormal heat generation from manufacturing differences.
Parallel facing electrode arrangement minimizes current loop areas to reduce stray inductance and power losses in three-level high-power modules.
Stacked gate wiring suppresses current unbalancing while preventing substrate size expansion.
Smoothing capacitors overlap rectification elements on a control substrate to lower noise impedance, reducing vibration damage and manufacturing costs.
A modular multilevel converter submodule uses reverse conductive power semiconductor switches in its bridging branch to lower on-state losses during normal operation.
Extending member conducts heat away from capacitor element to housing surface, preventing temperature-related deterioration and short-circuits.
An asymmetric triangular layout balances parasitic inductance across current paths, resolving unbalanced short-circuit currents during switching failures.
A power conversion apparatus couples power devices to housing walls using insulated heat-conducting sheets and elastic clamps.
Integrated power converter design merges driver and power modules to minimize stray inductance.
An integrated power converter merges breaker and relay functions into one unit, reducing device complexity while maintaining circuit protection reliability.
A semiconductor device structure minimizes internal wiring self-inductance through optimized multi-layer conductor arrangements.
A power module uses an intermediate electrode to connect conductors and position collector sense wiring away from high-current areas.
A modular power supply uses a hinged cover and partition to isolate primary input circuitry from user-accessible output modules.
Segmented planar conductive connection portions restrict current paths to manage electromagnetic induction between circuit regions.
On-die embedded charge pumps eliminate routing parasitics to resolve voltage droop during high current load steps.
Segmented upper and lower layers provide mirror symmetry to minimize voltage stress on semiconductor components.
Vertical busbar stacking reduces intermediate circuit inductance while parallel semiconductor elements manage high current levels.
Segmenting the voltage dividing circuit allows independent impedance adjustment while maintaining mechanical strength against vibrations.
Dynamic thermal management increases IGBT temperature during low-power states to mitigate cosmic ray susceptibility while preserving operational efficiency.
Parallel metal bodies with insulating layers reduce inductance while increasing current-carrying capacity between converter assemblies.
Adjusting electrode on heatsink balances stray capacitances to reduce parasitic inductance and noise.
Double-sided cooling via heat-dissipating fins resolves low efficiency from single-sided contact while compact layout reduces space occupation.
A power semiconductor module uses partition walls to isolate devices within separate chambers.