Electrical Storage System TRIZ Cases

Segmented composite layers adjust radial stiffness to prevent stress concentration and separation, enhancing energy storage capacity.

Densely packed incompressible rocks counteract buoyancy and distribute hydrostatic pressure, eliminating complex hard shell construction costs.

A control section adjusts pumping input and power output to match set target values.

A gas pocket displaces water from submerged surfaces to prevent fouling, eliminating chemical anti-foulants that harm the environment.

Cable loops transport weights between elevations to store energy, resolving grid frequency instability caused by generation demand mismatches.

A hydrostatic piston converts water pressure into shaft rotation to generate electricity within a vertical cylinder.

A compressed air energy storage device uses a sub flow passage with heating means to stabilize the heating medium temperature.

A schedule determination device narrows variable ranges to establish precise constraint conditions.

Segmenting the storage architecture into autonomous nodes resolves adaptability versus complexity trade-offs while maintaining scalable power distribution.

Decoupling energy storage from power delivery via a bulk superconductor eliminates shielding requirements and reduces device weight.

A power condition system calculates a dynamic deadband value to control battery charging and discharging operations.

A multiply-connected power multiplier stores electrical energy using parametric excitation and velocity-inhibiting circuits.

A vertical weight energy storage system moves masses between upper and lower positions to store electric power.

Parallel flywheel units share a DC link controlled by dual systems that maintain internal power during external grid failures.

Flywheel inertial storage replaces battery systems to eliminate maintenance and space constraints while ensuring continuous power for industrial plant motors.

A compressed air energy storage unit uses conductive liquid pistons driven by electromagnetic induction to compress gas.

A virtual power plant controller coordinates generation and storage facilities to optimize energy flow across the grid.

A hydrogen production controller calculates input power commands in advance to match target values at demand adjustment starts.

A thermal energy storage control device transforms electrical input into heat while estimating consumption based on supply time and power.

Electrical generator acts as induction motor to crank engine shaft, eliminating mechanical starter delays and reducing system complexity.

A control module manages power balance in autonomous hybrid stations to protect electrochemical units from rapid switching damage.

Control unit manages storage cell replacement by detecting parameters and adjusting state of charge before electrical connection.

A fluid displacement energy storage system uses a pressure exchanger to transfer hydraulic pressure between low-density and high-density fluids.

A gas turbine power generation system uses a frequency converter to adjust the rotational speed of a rotating electric machine for continuous power supply or absorption.

An inductance-based balancing unit transfers energy between cells, reducing thermal loss while maintaining voltage symmetry.

Segmented switched-mode power supplies reduce standby energy loss by activating only necessary conversion devices.

A power plant controller adjusts working fluid flow to prevent turbine overspeed during grid synchronization.

Railway shuttles move masses across terrain to bypass pumped hydro efficiency losses and battery capacity limits.

A temperature-pressure tank accumulates variable wind or solar energy as thermal pressure in a gas, driving a turbine to deliver constant electrical output.

Cascade flywheel doubly-fed electric machine bypasses power electronics via series-connected phase coils, reducing electrical loads on DC capacitors.

Discrete LED driver circuits measure inductor current to detect demagnetization, eliminating choke saturation gaps while maintaining reliable operation.

Heating pipes preheat lubricating oil in compressed air energy storage systems using exhaust thermal energy.

Synthesizing a tunable aqueous ammonia fluid reduces the weight of phase-change materials, enabling efficient energy harvesting in remote environments.

A control method calculates distribution coefficients for inductive and resistive voltage components across converters.

A server selects energy storage resources based on calculated retention and input output losses to optimize grid power management.

A heat generation apparatus converts surplus electric power into thermal energy via electromagnetic induction.

Decoupling circuits manage energy distribution across series functional units, compensating for fluctuating consumption and reducing startup time.

A hybrid power supply maintains constant generator current while switching between generator and storage outputs to meet load demands.

Watertight membrane covered with soil stores water for energy conversion using a reinforced tubular structure.

Segmented flywheel modules stabilize local grids while aggregating capacity for non-local supply, resolving reliability and adaptability trade-offs.

Underground compressed air storage drives turbines to generate electricity, resolving renewable energy intermittency and battery environmental hazards.

A heat exchanger captures waste heat during gas compression to supply hot water, resolving the contradiction between electrical storage and thermal loss.

A hydraulic accumulator drives a generator to supply immediate backup power to an uninterruptible power supply.

Integrated heat exchangers in multistage hydraulic modules maintain quasi-isothermal gas expansion while preventing air diffusion into the active liquid.

A particle heater system heats solid particles to store electrical energy as thermal energy.

A tertiary port manages reactive power and transient voltages, allowing the main machine to store kinetic energy without degrading the source power factor.

A charging circuit shifts between voltage regulation, direct coupling, and decoupling modes to manage energy from solar generators.

A swing-arm mechanism raises a pedestal housing from a flush-to-grade position to an above-ground location.