Dc Network Circuit Arrangements TRIZ Cases

Segmented DC-DC converters boost voltage from single batteries, eliminating bulky series stacks and maintaining stable light intensity.

A power switch control circuit switches voltage operating ranges using integrated comparison signals.

Series-connected photovoltaic modules generate high-voltage DC to bypass intermediate AC conversion stages and reduce energy losses.

Bidirectional DC/DC converters link power module clusters to a shared bus for efficient energy transfer.

Segmenting cell arrays into independently managed subpacks provides diverse voltage rails for mobile device components without complex balancing.

A dynamic current equalization system adjusts currents in remaining LED strings to maintain light output.

A power unit integrates a solid state battery with an internal charging circuit to supply direct voltage.

A power supply unit detects input voltage form and magnitude to select appropriate conversion circuits.

A current-voltage converter transforms primary current signals into secondary voltage signals on communication lines.

A semiconductor integrated circuit uses a voltage trimming block to regulate output levels from a selector switching between external and internal reference sources.

Active inductors and current-compensation circuits minimize voltage spikes and impedance mismatch, ensuring stable video signal transfer over coaxial cables.

Coordinated switching schedules reduce line losses and extend device lifespan by minimizing unnecessary capacitor bank operations.

A rectifier circuit supplies power between lines when voltage difference exceeds a threshold.

A caravan power control device monitors input parameters to connect mains or photovoltaic sources to output interfaces.

Ramping down the reference voltage discharges the output capacitor back to the battery, eliminating energy loss during shutdown cycles.

Segmented supply line groups with switching modules isolate external consumers from internal circuits, resolving safety risks in complex valve arrangements.

Extraction of AC to DC converters from enclosed boxes eliminates heat generation hazards while enabling scalable mesh network automation.

A magnetic sensor system dynamically stops measuring operations when a connector connects to the device.

A dual power supply unit uses a controller to selectively enable high-capacity and low-capacity converters based on real-time demand.

A power conversion circuit uses an activating circuit to enable or disable AC-to-DC conversion based on load connection status.

A charging control apparatus adjusts droop curve parameters based on real-time state information to optimize current sharing among parallel units.

Merging two single-direction circuits into one shared topology resolves the trade-off between bidirectional versatility and bulky magnetic component weight.

Dynamic switch topology connects DC connections in series or parallel to minimize converter losses and improve power distribution efficiency.

Voltage overflow device shunts excess grid voltage to resistive deicing load via monitoring circuit switch.

A discharge prevention circuit uses a current transformer and switch to detect capacitor charging and discharging currents.

Hierarchical relays detect rated current and open switches within a fixed time, reducing the power failure range caused by conventional fuse cooperation issues.

A single inductor dual polarity boost regulator generates precise ±20V outputs using a low side power FET for end-of-current recirculation sensing.

Electrical regulation modules measure home equipment consumption and transmit data to a central server for real-time power modulation.

A battery array uses a spare relay to connect a charged standby cell, maintaining series voltage continuity.

Segmented power interrupting circuits allow diagnostic testing of individual switch elements without stopping power delivery to the load.

A reference voltage generation circuit uses bipolar transistors and resistors to produce a specific output voltage.

A deviation compensation method adjusts potential transformer output voltage values using stored transformation ratio, offset, and gain parameters.

Adjusting PWM signal timing reduces overlap and switching losses, preventing overheating in parallel step-up power conversion systems.

A duty cycle corrector circuit adjusts output signal timing using parallel current paths and feedback control mechanisms.

Segmented intermediate power connector enables high-voltage e-bike battery compatibility with component-level derailleurs without increasing device complexity.

A DC distribution box converts commands into voltage signals transmitted over power lines to lamp units equipped with simulated load units.

A DC power supply controller manages electric power distribution between solar generation and grid sources to optimize energy flow.

Switching monitoring IC power between high and low voltage sources reduces consumption from the main battery, stabilizing cell capacity uniformity.

A vehicle charging system selects between DC and AC power sources using a control device to optimize energy conversion.

A vehicle suspension control device manages actuator signals using dual supply voltages and galvanic isolation between potential sides.

A converter device uses a transformer with reverse-coiled windings and auxiliary switching to establish current resonance for zero-voltage switching.

Voltage regulators mediate control signals to prevent oscillations and ensure stable grid operation.

A parallel power balancing device uses a common voltage bus to distribute current among multiple generators.

A power equalization circuit uses a commutator to connect transformer windings to ground.

Current sensing circuit uses a current mirror and operational amplifier to maintain accurate inductor current detection.

An auxiliary A/C power supply system uses a high-powered inverter and deep cycle batteries to provide start-up power.

A control unit identifies energy storage switch topology by selectively activating modules and detecting total current flow paths.

A jump starter system measures connection resistance via voltage differential to optimize clamp contact quality.

Segmented capacitors reduce short-circuit switch turn-on time, lowering power loss while maintaining target output voltage.