Heat Storage Plants TRIZ Cases

See how modular phase change material panels with shell-and-tube heat exchangers reduce trackin

See how underground geothermal cooling replaces cooling tower water in petrochemical plants, re

See how integrated locking elements on tank contact surfaces enable stable vertical stacking wi

See how a thermal battery captures and stores waste heat from cryogenic cool-down cycles, then

See how segmented fracture planes with independent borehole control enable selective charging a

See how a selectively permeable tube allows refrigerant transfer into ionic liquid while preven

See how underground conduits use earth's thermal mass to cool heat exchanger coolant, eliminati

Baffle plates and vortex coiled tubes boost turbulence and heat transfer, enabling compact phase change cold storage with high energy density.

See how guide units redirect heating medium toward the combustion chamber center, extending the

See how segmented heating plate strips connected via conductive spacers increase heat transfer

See how adhesive-dispensed phase change microcapsules embedded in porous foam layers dissipate

See how a heat transfer duct fully surrounded by phase change material in wall cavities extends

See how a vacuum-sealed pouch with bowl-shaped geometry prevents phase-change material escape a

See how vertical separators divide a thermal accumulator into circulation zones, reducing therm

See how perforated flexible fabric diaphragms maintain liquid stratification in thermal storage

See how a heater enclosure and duct system shield rising heated water from cold bulk water to e

See how underground brine storage uses surrounding rock as natural insulation to reduce heat lo

See how a thermal storage module couples compression and absorption chillers to convert waste h

See how non-contact inductive heating with variable-thickness inductor elements enables heat st

Multiple PCMs with different melting points regulate container temperature from 4-37°C during transport without external power.

See how reversing fluid flow through a phase change material reservoir extends heat exchange cy

See how liquid-liquid phase transition fluids absorb and release heat without changing phase, e

A shared-fluid heating bypass and cooling loop stabilizes electronic component temperature across freezing and hot outdoor conditions.

See how a support member separates the storage box from the insulating container wall, reducing

See how polymer matrix composites with dielectric particles emit infrared through atmospheric w

A vertical molten salt and steam heat-exchange layout cuts pipeline complexity and heat dissipation while recovering waste heat more efficiently.

See how composite cold storage particles with rare earth cores and metal coatings resolve break

See how a nested heat sink, phase change material, and thermoelectric modules maintain beverage

See how segmented charging with dynamic temperature spread balances rapid heating and energy ef

See how phase change materials embedded in air distribution conduits store thermal energy durin

See how vertically stacked ground collectors enable self-regenerating geothermal heating by usi

See how multiple thermochemical reactors in controlled sequence replace mechanical compression

See how segmented capsule stacks with defined flow paths overcome ice-buildup insulation barrie

See how airflow regulation members control oxygen exposure to a thermally oxidative composition

See how 15-25% glycerin stabilizes supercooled aqueous salt solution in heat packs to prevent p

See how direct gas-to-solid contact heat exchange reduces equipment size and energy loss in rev

See how combining microencapsulated phase change materials with thermal conductivity additives

Stacked elongate PCM containers improve ice nucleation and heat exchange, sustaining discharge performance in commercial thermal storage.

See how a temperature-sensitive mechanism enables refrigerant circulation for summer cooling an

See how long, narrow metal hydride containment tubes minimize fluid mixing during cyclic operat

See how alternating flow channels and guide units direct heating medium toward the combustion c

See how a thermal energy buffer reservoir enables temperature-driven cooling with COP above 30,

See how a guide part directs molten welding material between specific plate joints, reducing ma

See how multi-zone geologic formations store excess renewable energy as heated brine at differe

See how combining preconditioned ice packs with room-temperature organic PCM extends cold-chain

See how bismuth-tin alloy coatings on laminated regenerator layers increase volumetric specific

See how phase change material pre-cooling and vapor compression backup enable rapid heat absorp

See how a subcooling heat exchanger with thermal storage reduces refrigerant enthalpy before ev

Integrated LNG gasification recovers cold energy for power generation and storage, improving heat-absorbing efficiency while reducing waste heat.

Stored heat supports steam generation and on-site electrolysis, cutting hydrogen fuel use, transport needs, and renewable power costs.

Bidirectional fluid routing through modular PCM chambers stores and releases hot or cold energy efficiently for peak-demand load shifting.

Integrated heat and pressure storage manages working-fluid phase change and pressure to bypass heat-pipe limits and improve peak-hour generation.

Bypassing selected serial thermal storage units shortens charging time while preserving scalable heat storage and fluid temperature control.

A carbonaceous-graphitic heat storage material uses staged pressing and heat treatment to cut process cost while retaining thermal conductivity and strength.

Two emulsion sizes are mixed for interfacial polymerization, enabling stable microcapsules for water-rich cores and curing agents.

Capturing valve expansion energy with a pressure exchanger reduces compressor demand and wasted pressure energy in thermal storage systems.

Concrete plates with grooved flow paths and thermal breaks store and release heat efficiently using common materials from 60°C to 316°C.

A dual-tank thermal storage layout uses pressurized gas piston transfer so nearly all tanks can alternate between hot and cold fluid storage.

Communication paths placed in the ceramic frame region enable fluid injection while reducing stress, cracks, and heat dissipation loss.

Modular concrete or ceramic thermoblocks store surplus electricity at 300-800°C while managing expansion, pressure, and heat loss.

A thermal shutter lets an insulated graphite block store heat efficiently, then release thermal radiation to a receiver at controlled rates.

Capturing and reusing thermal energy during fluid compression and liquefaction cuts heat rejection, complexity, and maintenance in energy storage.

A horizontal thermocline layout in refractory thermal storage improves seismic stability while delivering continuous high-temperature heat from variable renewables.

Liquid-liquid phase transitions in dielectric heat transfer fluids improve cooling efficiency across large temperature differences with lower system complexity.

A single-tank molten salt store uses a separating layer and gas-phase volume compensation to limit decomposition above 560°C.

A wooden helical pipe support frame keeps flexible heat-exchanger pipes in shape while damping vibration and reducing frame weight.

Vertically oriented thermal storage units use fluid circulation, insulation, and overheat protection to deliver steady high-temperature heat.

A condenser loop recirculates and condenses CO2 to keep storage-tank pressure within design limits during energy storage and release.

Elastic interlayers keep heat-exchanger plates compressed to limit leakage while phase-change material stores and transfers heat.

Concrete plates with flow grooves store and release heat without metal piping, cutting thermal storage cost with common materials.

Direct HTF spray replaces surface heat exchangers to speed heating and cooling of the working fluid while reducing boundary-layer limits and flow losses.

A metal net substrate absorbs reaction-driven volume change in platy chemical heat storage, limiting cracking while preserving thermal response.

Switched fluid paths use stored heat to pre-warm the generator, cutting warm-up delay and using surplus electricity more effectively.

Stacked metallic rings replace monolithic concrete containment to cut nuclear build time while shielding radiation, heat, and kinetic events.

Phase change heat exchange stabilizes peritoneal dialysis fluid temperature, prevents over- and underheating, and recovers heat from used fluid.

Helical fins and undersized plate openings simplify PCM heat exchanger assembly, cut dead zones, and reduce stress from PCM expansion.

Prefabricated floating enclosure sections make large thermal storage easier to transport and assemble in isolated sites without heavy equipment.

Unipolar charge injection drives EHD flow in organic PCM to speed and equalize LHTES charging without changing the material.

Perpendicular impregnation orifices help compressed expanded graphite absorb more phase-change material while limiting leakage and delamination.

Grooved ceramic walls and embedded latent heat storage parts increase heat-medium contact area and improve thermal storage efficiency.

Passive multi-pass flow switching raises Reynolds numbers and heat transfer in PCM storage while limiting thermomechanical stress.

Direct electric heating inside a ceramic enclosure cuts phase-change heat storage losses, while insulation and thermocouple sensing prevent wasted input.

A refractory-binder composite with a glassy outer layer contains phase-change storage material, limiting stress, oxidation, and failure at high temperature.

Pressure-driven phase transitions in a pressure-sensitive material enable cooling without volatile refrigerants while improving thermal energy transfer.

Thermosyphons embedded in a solid heat storage medium enable rapid heat charging and discharge while retaining thermal energy for extended periods.

A closed-loop Brayton PHES reuses coal plant steam-cycle hardware to store heat efficiently and switch quickly for grid support.

A closed-loop Brayton PHES case that switches between charge and generation modes to absorb plant output changes and stabilize the grid.

A salt-modified oxalic acid dihydrate PCM raises thermal storage density while lowering flammability, corrosiveness, and unsuitable melting point.

An extruded aluminum coil cuts welding points in PCM thermal storage, reducing leaks, maintenance, and CO2 footprint.

A vacuum chamber and movable radiant barriers cut heat loss in thermal storage tanks while enabling efficient steam-turbine heat delivery.

A moving bed reactor uses CaO/Ca(OH)2 pellets, controlled heating, and fluid switching to improve heat transfer, roundtrip efficiency, and material life.

Ester-linked arylazopyrazoles keep the Z isomer stable for weeks and liquid below 0°C, enabling controlled heat release from stored thermal energy.

A modular casing and internal support structure simplify thermal storage installation while protecting submerged heat exchangers and improving heat transfer.

A spiral or helical conduit layout brings supply and return access to the edge while reducing bending effort, saving space, and improving heat transfer.

Separate heat converter and underground storage modules let building energy systems scale to local capacity needs while using ambient heat efficiently.

Controlled shear and irradiation in a continuous double-emulsion process improve active retention, capsule strength, and droplet homogeneity.

A heat distribution plate spreads heat from external flat tubes across the tank wall, boosting transfer without increasing refrigerant volume.

Vertical TES units use resistive heating, convection, and dynamic insulation to smooth renewable power and maintain stable high-temperature output.

Stores renewable electricity as heat-driven gas from metal carbonate or hydride, then uses a Stirling engine for low-loss power recovery.