Heat Storage Plants TRIZ Cases

See how a passive water cooler uses internal and external heat exchangers with natural convecti

See how a thermal mass passageway in a beverage dispenser cooling unit chills drinks during flo

See how variable-thickness chamber contouring and corner fill ports eliminate void headspaces a

See how a calcium chloride hexahydrate composition with ammonium and potassium bromide achieves

See how a bypass line and latent heat storage member reduce temperature differences in returned

See how segmented pockets with multiple phase-change materials and spacers enable flexible temp

See how an intermediate medium storage unit decouples liquefied gas cold energy generation from

See how a partial confinement barrier creates a thermal plug to heat recreational water zones l

A porous body feeds dew condensation into a vertical door drain, improving cold storage drainage and preventing water from remaining on the lower frame.

Thermal storage and hybrid cooling modes shift peak heat load from oversized chillers, cutting energy and water use in process fluid circuits.

A central and peripheral duct layout improves fluid flow through hot granular media, boosting thermal storage efficiency with simpler maintenance.

Liquid-liquid phase transition fluids boost heat capacity and energy density for lower-energy cooling, refrigeration, and thermal storage.

Selective switching between one or two tank heat exchangers improves hot water response while reducing energy loss from variable renewable heat sources.

See how radial diffusers at multiple tank heights reduce turbulence and maintain temperature st

Stratified hot and cold water zones with tuned diffusers extend backup cooling time while keeping data center supply water at a stable temperature.

See how combining active heat-exchanger batteries with passive phase-change cells extends therm

A flat-flange aluminium condenser tube improves tank heat conduction, cutting tube length, pressure drop, and refrigerant charge.

See how SABR converts high-temperature heat into chemical bonds at ambient temperature, enablin

See how a recirculation circuit actively circulates reservoir fluid through a well bore heat ex

See how staggered first and second teeth create divided fluid channels that increase heat-excha

See how a downhole heat exchanger isolates corrosive brine using a working fluid loop, capturin

Compression heat is stored in surrounding rock around cased wellbores, then reused for air expansion to cut fuel use and improve cycle efficiency.

A PCM store combines heat-transfer fluid and electric heating to boost peak heat availability while reducing backup generator reliance.

See how a phase change material core with bypass air flow control achieves higher energy densit

See how composite phase change materials with inorganic salts replace refractory bricks to achi

See how adding up to 10% silver to bismuth regenerator material improves toughness and prevents

See how embedding a metal-container heat storage unit in vending machine insulation panels impr

A hygroscopic working fluid rejects heat to air while recovering condensate, enabling water-neutral cooling and avoiding desiccant crystallization.

See how phase-change thermal mass units store and release heat at the point of use to reduce bo

See how combining active and passive phase-change batteries extends thermal storage duration an

See how embedding a metal heat storage container in insulation panels improves solidification a

See how a segmented storage tank uses dual energy transfer components to induce convective circ

Direct contact between working fluid and solid heat media cuts heat exchanger size and losses in reversible pumped heat storage.

See how internally located electrical heating elements replace complex hydronic circuits in PCM

See how ternary stabilization alloys incorporate high-conductivity additives to enable reversib

See how a deformable heat transfer member with powder and phase-change liquid cools bottled win

See how a movable thermal partition divides a water tank into zones, reducing heating time and

See how a modular pallet cover uses detachable walls with integrated phase-change material pock

See how a Ti-Al-V hydride alloy achieves 100+ kJ/mol enthalpy at 400°C+ through controlled comp

See how a dual-coil tapping system extracts heat from top and bottom tank zones to increase hot

See how a drinkware container uses phase-change material, cold-side heat sinks, and thermoelect

See how optimizing the height-to-diameter ratio and heater placement on both bottom and side su

See how subsurface geologic formations store excess energy using compressed non-aqueous fluids

See how a single adsorber with stratified heat storage and closable fluid connections achieves

See how a flexible pouch secures phase-change material against the inner wall to improve heat e

See how vacuum insulation panels combined with EPS foam reduce standby energy loss in small hot

Warm process fluid is diverted by a thermally actuated valve to melt unwanted ice in thermal storage tanks without extra heaters or controls.

See how modular blocks with dynamic serial-parallel valve control expand temperature range by 6

Radiation cavities and thermocline gas flow let segmented brick storage deliver continuous >1000°C heat while limiting thermal runaway.

A battery-coupled heat sink stores and releases heat to preheat water, cutting tank space needs and smoothing temperature fluctuations.

Granular heat transfer particles capture compression heat and return it during discharge, improving compressed gas energy storage efficiency.

A vapor chamber spreads battery heat to a PCM module, improving dissipation and temperature control to help prevent thermal runaway.

Two heated and cooled fluid tanks store energy as temperature difference, enabling scalable grid discharge without topography or cavern limits.

Granular heat transfer particles capture compression heat and return it during expansion, improving compressed air energy storage efficiency.

Internal radiation cavities and thermocline gas flow let brick thermal storage deliver continuous 1000°C heat from variable renewable power.

A self-supporting PCM composite forms fluid channel walls to regulate battery or engine temperatures with less weight and manufacturing complexity.

Radiation-heated brick arrays store variable renewable power as continuous 1000°C heat while avoiding thermal runaway and active cooling.

A rock-filled thermal regenerator replaces costly metal heat exchangers to store and recover heat in compressed-air power systems.

Hot and cold fluid tanks store energy underground and discharge it through thermoelectric or heat-engine conversion without geographic limits.

A PCM chamber between opposed conductive elements creates a temperature gradient that drives convection and keeps passive heat sinks cooler.

Radiation-heated brick cavities and thermocline gas flow store variable renewable power as continuous heat above 1000°C without thermal runaway.

Integrated PCM channels stabilize fluid flow paths in battery thermal management while simplifying assembly and preserving phase-change integrity.

Natural dielectric circulation and viscosity-reducing fillers cool a sealed battery pack without pump power or a secondary circuit.

Radiatively heated brick storage turns variable renewable power into continuous >1000°C process heat while limiting thermal runaway.

Segmented brick storage with radiation cavities and selective heating improves temperature uniformity while limiting thermal runaway.

Convective fluid flow around heated storage blocks forms dynamic insulation that cuts heat loss, improves temperature uniformity, and limits thermal runaway.

Radiative heat transfer and view-factor control discharge solid thermal storage with lower thermal gradients, reducing mechanical failure risk.

A boron nitride network embedded with phase change material stores heat, speeds dissipation, and preserves electrical insulation in compact electronics.

A multi-wax PCM cooling casing absorbs latent heat across 60-120°C to smooth EV motor temperature transients without complex liquid cooling.

Phase change material integrated into charging socket contacts absorbs heat from contact resistance, enabling higher current without overheating.

Non-parallel heat-exchange plates and collecting tanks expand cooling contact around EV copper busbars for more flexible heat removal.

A controllable heat receiving path helps solid thermal storage discharge heat while limiting thermal gradients and mechanical failure risk.

A fluid heat conductor below the sink melting point improves thermal storage and transfer while keeping the heat sink solid across operating modes.

A metal inverse opal layer with core-shell phase change particles absorbs latent heat at 100-250°C to protect power electronics from thermal damage.

A PCM reservoir buffers data center cooling during hot conditions or pump issues, cutting power use and preventing service disruption.

Brick arrays with radiation cavities and thermocline gas flow store variable renewable power as continuous high-temperature heat while limiting thermal runaway.

A flexible pressure-driven conduit makes and breaks battery cell contact to improve heat exchange, cut assembly complexity, and reduce thermal inertia.

Radiation-heated brick arrays use thermocline gas flow and deep-discharge sequencing to turn variable renewable power into continuous 1000°C+ heat.

Forecast-based charging and deep-discharge sequencing help brick thermal storage deliver continuous high-temperature heat from variable renewables.

Internal radiation cavities and thermocline gas flow let brick thermal storage deliver continuous 1000°C heat from variable renewable power.

Radiative brick charging and convective discharge improve high-temperature heat storage control while helping prevent thermal runaway.

Stacked brick thermal storage uses resistive heating, airflow paths, and discharge sequencing to turn variable renewable power into continuous heat.

Brick arrays with radiation cavities store variable renewable power as 1000°C+ heat and discharge it continuously using thermocline gas flow.

Forecast-based charging and deep-discharge control keep brick thermal storage uniform, avoid thermal runaway, and deliver continuous heat from VRE.

Forecast-based control and deep-discharge sequencing help brick thermal storage deliver continuous high-temperature steam from variable renewable power.

A fluid collection box isolates coolant leaks at cooling plate junctions, protecting battery insulation and enabling sensor-based maintenance alerts.

Rotated, spaced wire meshes improve fluid collision and heat exchange while keeping pressure loss low in porous heat-exchanger pipes.

Electrical pulse-width sensing tracks glycol-water concentration against local weather forecasts to prevent thermal battery freezing.

Removed portions in a carbon graphite matrix are filled with expanded graphite to raise PCM storage while preserving heat conduction.

Incrementally pushed solid blocks enable counter-current heat or mass transfer while cutting pressure drop, dead volume, and storage medium demand.

Removed portions in a carbon graphite matrix increase PCM volume, while expanded graphite helps preserve thermal conductivity.

A double-action hydraulic actuator and axial clearance adjustment keep nominal clutch gaps constant for faster shifts with minimal tractive force loss.

A three-plate PCM tube improves evaporator cold retention by removing insulating air gaps and shortening heat transfer paths during engine stops.

Embedded pipe heat exchangers in hardened concrete create a scalable thermal storage element that cuts cost and complexity while improving durability.