Dc Network Circuit Arrangements TRIZ Cases

A control device manages solar energy distribution between high-voltage and low-voltage batteries in a vehicle power network.

A wireless power receiver controller adjusts internal element values to suppress output voltage ripple without external regulators.

Segmented primary inductors dynamically activate to align with secondary receivers, resolving alignment constraints while maintaining high power transmission.

A regulation module pre-calculates an initial value based on battery voltage to enable a DC to DC converter.

Merging multiple output converters into one unit improves heat dissipation and reduces system complexity for versatile power distribution.

A voltage booster circuit uses parasitic bipolar transistor elements to discharge stored electric charge rapidly through a dedicated current path.

Segmented transformer windings isolate control power from main outputs, resolving electromagnetic interference and improving conversion efficiency.

A vehicle backup device adjusts target voltage values for a second power supply unit based on starter switch states.

Fixed impedance network replaces variable resistors to eliminate calibration drift and reduce manufacturing complexity.

Replacing diode bridges with a field-effect transistor bridge reduces forward voltage drop, minimizing power loss while maintaining consistent output polarity.

A storage battery control device coordinates charging and discharging modes across multiple modules via network communication.

Sequential calibration of programmable current sources eliminates brightness mismatches across large LED arrays by matching currents without external trimming.

A power control apparatus detects generator overcurrent using a resistance device to consume error currents.

A power supply system selectively enables parallel AC to DC and DC to DC conversion sections based on load magnitude.

Variable frequency perturbations reduce non-detection zones and improve accuracy by minimizing compensation effects among multiple connected converters.

Integrated power control circuit regulates super-capacitor charging sequences to eliminate inrush currents and ensure stable SSD operation.

Synchronized capacitor selectors prevent energy accumulation delays in switching regulators, ensuring immediate stabilization of output voltage and current.

A voltage selector switches HDMI connector output based on connection detection.

Reverse blocking diodes in dc interfaces automatically disconnect faulty ac busbars, preventing fault propagation and ensuring continuous propulsion power.

A battery control apparatus reconfigures series or parallel connections to maintain required voltage levels.

A noise injection path using a capacitor injects in-phase noise into the pass transistor gate to cancel output interference.

A charging station converter uses SiC MOS modules to integrate battery storage within the power electronics housing.

A redundant DC power supply system connects multiple AC/DC conversion circuits in parallel through a DC busbar to maintain continuous operation.

A control apparatus detects alternator disconnection by monitoring the time required for output voltage to change between target levels.

A parallel running control apparatus synchronizes multiple inverter generators by monitoring phase differences between outputs.

Slave controllers detect master failure and transmit candidacy messages to assume control, ensuring continuous power supply without interruption.

A power receiving jacket integrates the electronic device chassis as a passive electrode to widen facing area and enhance electrostatic coupling.

Segmenting the 48 V architecture into a supercapacitor and lead battery resolves high-power transient demands while minimizing total accumulator weight.

Capacitor-based isolation eliminates transformer noise and cost while maintaining reliable power transmission in power over ethernet networks.