Vehicular Energy Storage TRIZ Cases

Controlled NiSi and Cr3Si precipitation helps this copper alloy reach high strength, ≥35% IACS conductivity, and low stress relaxation.

Propeller guards and angled guides enable autonomous UAV docking and charging while reducing sensor complexity and wind-sensitive landing steps.

Nested side frames and crossbars help this folding trolley reduce storage volume while preserving a simple folding structure.

Sensors and gantry arms precisely position UAVs for automated retrieval, enclosed storage, recharging, and deployment without operators.

Dynamic SOC thresholds reduce startup delay by allowing secondary cell usage when fuel cell generation is delayed at low temperatures.

A bidirectional DC/DC converter uses a switch assembly to reverse current flow direction for flexible voltage conversion.

Single contact strip per rocker frame reduces moving mass, improving contact force stability and energy transfer reliability.

A parallel circuit connects multiple battery strings using a single protective device to manage simultaneous switching operations.

A control device equalizes storage battery voltages using charging and discharging processes.

Electronic control locks the motor generator to hold the vehicle stationary during start.

A central control system coordinates vehicle charging and electrical units to manage power consumption.

Downwardly adjusting the power factor corrector bandwidth prevents overcurrent damage to the on-board battery charger without increasing manufacturing costs.

Comparing outputs from parallel filter circuits verifies voltage filtering effectiveness, preventing jitter-induced misjudgment in switch state detection.

A pedal-assisted bicycle system manages central and hub motors to optimize energy use across varying speeds.

A detection system analyzes inverter voltage variations during ignition cycles to identify relay fusion status.

Segmented submodules with integrated energy storage resolve the contradiction between compact converter weight and sufficient capacity for regenerative braking.

Gas sensors detect battery smoke to trigger automatic window lowering, preventing user discomfort from unnecessary air conditioning activation.

A resonant circuit generates AC current to heat the battery directly from inside.

Segmenting the housing into metal and plastic parts resolves thermal expansion contradictions while enabling passive cooling through conductive interfaces.

A magnetic landing pad uses an actuator to lock drone landing gear for stable charging.

A charging station transmits distance parameters to an electric vehicle for automatic speed control during docking alignment.

A power converter discharge circuit uses a switching element and control logic to manage capacitor energy removal.

Pivoting a movable parking area allows simultaneous charging of two electric vehicles, resolving the complexity of installing separate charging stations.

A voltage converter system manages power regulation paths for wireless charging devices.

Segmented axle-level verification prevents rollbacks on grades by ensuring reliable friction brake operation without increasing overall system complexity.

Cut-outs in compression zones allow a flexible photovoltaic module to conform to double curvature surfaces without complex molds.

Segmenting the power source into a fuel cell and supercapacitors extends vehicle productive periods by reducing heat loss and prolonging battery life.

Vehicle controller generates a power pattern list from identification information to establish paired communication with a power supply device.

A vehicle control module determines charging setpoints using fuzzy logic to adjust power supply from the electrical distribution network.

A charging voltage adapter adjusts high-voltage traction battery inputs to match lower column outputs.

On-board ultracapacitors store braking energy to reduce peak demand on trolley lines, preventing substation overload.

A power supply information determination apparatus schedules charging facilities and start times for autonomous aircraft.

Dynamic charge voltage adjustment prevents thermal loss and overcharging during high state of charge, improving fuel cell vehicle efficiency.

A control device coordinates gate and bridge movements to prevent mechanical collisions during loading operations.

A vehicle control system calculates a virtual power storage amount to optimize secondary battery charging and discharging cycles.

A configurable switching system conveys direct and alternating current between electric vehicles and remote loads.

Interchangeable outlet panels communicate specifications to a vehicle controller that adjusts inverter voltage and frequency outputs.

A tilting lever holding device secures bicycle batteries via a spring-loaded hook mechanism.

A fuel cell control system measures stopping time and average voltage to trigger a catalyst activating mode.

Information processing device calculates supply power from reserved electric vehicles based on rental schedules.

A dual-output charging circuit uses a single controller to regulate two DC ports through primary switching and secondary rectification.

A pantograph rocker assembly uses a vibration damper to stabilize vertical motion.

Segmenting a fuel cell stack into independent modules reduces sealing defect rates while maintaining high power output through optimized voltage control.