Electrical Storage System TRIZ Cases

Threshold-based routing sends excess wind power to a power-to-gas converter, smoothing grid output without oversizing converter capacity.

Magnetic coupling and flywheel rotation replace chemical batteries to store renewable power with lower complexity, longer life, and cleaner backup.

Series-parallel flywheel modules with bidirectional converters cut friction losses and deliver fast, redundant AC grid frequency support.

On-site SOFC and SOEC integration generates low-carbon hydrogen and EV charging power without grid dependence or hydrogen transport.

Mass cars on tethered tracks store and dispatch grid energy without reservoirs, cutting land impact, water use, and construction burden.

Wind-driven pumping pressurizes local water sources for turbine generation, avoiding high reservoirs while extending operation and reducing maintenance.

Automatic controller position detection uses series signals and RSTP to prevent BMS misoperation in energy storage containers.

A UPS with energy storage and bypass shifts EV charging peaks off the grid, cutting converter losses while maintaining supply continuity.

Power-linked water flow control lets hydrogen electrolysis absorb surplus renewable electricity, stabilize the grid, and cut CO2 emissions.

SOH- and SOC-based control allocates charge and discharge across parallel mixed battery packs, improving flexible grid storage and pack life.

Bidirectional converter storage buffers peak loads for watercraft stabilizers and steering, cutting heat loss and avoiding oversized power trains.

Multi-stage compressed air storage captures compression heat for reheat, helping renewable generation stay efficient despite tank pressure loss.

Space-filling grooves in superconducting sheets store electromagnetic energy while keeping external magnetic field exposure minimal.

Using electrolyzer power electronics to generate or absorb reactive power helps balance the grid, avoid compensators, and lower hydrogen production costs.

Blocks lifted by counterweighted elevator cages store surplus renewable power and release predictable electricity while keeping tower load stable.

Surface-mounted platforms turn vehicle weight into flywheel-driven electricity without cutting into roads or significantly slowing traffic.

Fluidized solid particles store surplus electricity as heat, then return it efficiently through gas-particle exchange for grid balancing.

Real-time monitoring and coordinated control help distributed energy resources and battery units improve grid integration and load shifting.

Shared battery control switches enable active balancing and voltage sampling together, cutting circuit complexity and avoiding continuous charging.

A permanent-magnet thrust bearing supports flywheel axial load, cutting parasitic and friction losses while extending bearing life.

A controller coordinates hydrogen and solid carbon co-production with a low-carbon power unit to absorb grid volatility with less wear and cost.

Input and output flow sensing estimates stored energy without direct temperature measurement, improving load balancing for variable wind and solar power.

Mass cars lifted on tracks store grid energy, then regenerate power on descent to avoid pumped hydro water use and heavy land impact.