Batteries Data Exchange TRIZ Cases

When AC mains fails, a selected swap battery powers the station through a common bus and bidirectional conversion, avoiding dedicated idle UPS batteries.

Daisy-chained charging adapters let multiple vehicles share one charge point, easing blocking, lowering infrastructure needs, and balancing power fairly.

A leader charger coordinates follower DC-DC phases to scale charging capacity across devices without separate charger architectures.

Bidirectional DC converters let a swapping cabinet charge batteries in normal use and keep them operating during AC power failure.

A self-contained switch unit combines power and control through one cable, reducing cable damage, fall hazards, and EMC issues in surgery.

A retractable transverse lock overlaps the battery latch to block unauthorized pack removal while enabling secure charging and remote unlocking.

An NFC command triggers a heater resistor to open the battery pack current path, enabling external shutdown during faults or unauthorized access.

Opto-isolated dual microcontrollers coordinate charge mode switching across isolated battery packs to improve charging control and user indication.

Thermoelectric units harvest battery waste heat to support low-voltage loads, easing secondary battery output and improving temperature control.

Closed-loop LC circuits send AC pulses through battery cell connectors to power and link local controllers without extra wiring.

A retractable lock member overlaps the battery pack latch to prevent accidental removal and unauthorized use during charging.

Detachable battery packs are swapped and charged off-robot to cut mobile robot downtime, support continuous operation, and lower fleet costs.

By isolating a target battery cluster and routing it through a shared power converter, this case equalizes SOC and sustains constant power output.

A three-level neural network cuts battery state estimation error in voltage flat zones and adapts faster across battery types.

Intelligent battery control shifts NPWT packs into shelf and sleep modes to preserve charge in storage while keeping fast therapy restart.

A cloud lookup links EVSE MAC addresses to LocationID and EVSEID, enabling app-free charging and charger reliability tracking.

Grid load data guides thermal control of energy storage devices, cutting cooling power use while maintaining performance during peak and valley periods.

Distributed battery controllers share SOC and voltage states to bypass inconsistent cells and preserve energy storage pack availability.

Bitwise summing across battery management circuits cuts daisy-chain latency and raises voltage measurement throughput for battery packs.

Connection-aware sensing measures and stores battery voltage and environment data without a BMS, while managing limited onboard power.

Matched AC and USB switch placement simplifies multi-output power control while preserving versatile power delivery in one housing.

Server-based charging forecasts help EV charging fields balance demand, plan power supply, and reduce peak-period supply risk.

A single port detects digital or analog signals to identify chargers and loads, improving battery pack compatibility and fault-tolerant communication.

A recessed conductor guides radio waves along aligned BMS antennas, reducing external interference in tight battery pack spaces.

Motion-driven magnetic induction lets a smart ring charge during wear, avoiding removal while supporting sensing and communication.

When a battery management link fails, wireless channel switching preserves communication continuity without extra interfaces or configuration.

Multiple OCV points gathered during charging are weighted across selected data pairs to improve full charge capacity estimation accuracy.

An aggregator coordinates battery charging to deliver virtual inertia and fast frequency response, helping stabilize low-inertia grids.

Stored battery energy keeps the swapping station running during grid outages by automatically switching power flow to maintain charging and vehicle service.

A switch and comparator circuit lets a USB-A to USB-C cable support PD charging while preserving non-PD communication.

Battery state sharing across multiple units enables dynamic operation switching to balance discharge and extend battery lifespan.

Selective series or parallel battery unit switching matches solar maximum power voltage and captures more energy under changing irradiance.

A charging source built into handheld objects powers a worn smart ring by inductive coupling, avoiding removal despite limited battery space.

A daisy-chain DC power bus trickle-charges motorized window treatments to cut wiring labor, lower installation cost, and reduce miswiring.

Predicted next-trip SOC lets EV charging avoid prolonged high SOC, cutting battery deterioration without requiring charging after every use.

Biometric matching between worn devices enables automatic transfer of user settings to replacement medical devices, reducing setup errors.

Adaptive communication timing balances real-time battery impact and location tracking with power limits during logistics movement.

Huffman-coded cell voltage deviations cut battery monitoring data by 20-30%, enabling faster sampling and scalable cell management.

Real-time charging monitoring detects abnormal station events, sends warnings, and adjusts schedules and routes to reduce fleet delays.

A pivoting cover, staple lock, and tether secure battery packs while protecting a portable multi-bay charger in harsh work areas.

Wireless SOC monitoring and variable-resistor discharge let battery packs reach safe storage or transport charge levels with less manual effort.

Profile-based battery control adjusts charge and discharge parameters by priority to protect battery health, performance, and longevity.

Multiple charging piles share electric energy reserves and switch modules to meet real-time power demand with better module utilization.

Statistical analysis of cell parameter history detects battery pack faults from dispersion trends, improving diagnosis accuracy and safety.

Using separate D+ and D− lines for simultaneous charging messages cuts handshake wait time and supports active fault reporting.

An adapter relays voltage and digital signals so one power supply can reliably drive both low-output and high-output electric work machines.

Periodic feedback calibration aligns constant-voltage charging with the target full-charge voltage to protect battery life and prevent overcharge risk.

Battery readings, geolocation, and future route data are combined to trigger charging alerts only when range is insufficient for current and next trips.

When multiple vehicle accessories are plugged in, the controller identifies each load and can limit outlet power to preserve charge for the trip.

Adjustable wireless polling cycles help vehicle battery monitors cut power use during stable states while reducing reconnection delays.