Heat Storage Plants TRIZ Cases

See how refrigerant flow paths within reservoir walls pre-chill coolant below ambient, storing

See how a blow-moulded container with internal compartments prevents PCM segregation, maintains

See how horizontal heat exchanger pipe layout suppresses downward flow and mixed-layer formatio

See how a heat-activated pad with adhesive containment removes aircraft paint using HAP-free ch

See how encapsulated phase-change material and conductive filler in honeycomb cells reduce weig

See how offset distributors, nested collectors, and spiral coiling reduce installation area whi

See how a dual-pipe assembly with embedded phase change material merges heat exchange and therm

See how a circulation unit replaces mechanical stirrers in ice thermal storage tanks to reduce

See how a thermally isolating preheater with phase change material maintains large temperature

See how phase-change material and modular heating elements maintain beverage temperature over e

See how phase change material coating on condenser tubes absorbs latent heat to improve refrige

See how a double-walled ceramic plate uses phase change material and a gas cushion to maintain

See how protrusion portions on bonded cold-storage containers drain condensed water before free

See how alternating flow channels in a plate heat exchanger integrate sensible and latent heat

See how absorbent-based phase transitions capture compression heat in chemical reactions, enabl

See how a layered tube heat exchanger maintains temperature gradients in buffer tanks during ho

Stratified storage separates recovered water into temperature zones, while direct mixing helps heat production machines with lower energy loss.

See how integrating PCM into a porous carrier material prevents shifting, maintains thermal con

See how a porous member with controlled hole spacing and diameter promotes clathrate hydrate cr

See how guided molten-weld flow and segmented welding reduce material use while maintaining joi

See how a spiral-wall diffuser plate with thermal conductivity reduces cold-water mixing and ba

Conventional water heaters struggle in low-temperature systems; twisted spiral pipes and separators intensify countercurrent heat exchange.

Separate heat-storage and working-fluid circuits transfer stored heat through a heat exchanger, stabilizing turbine temperature for reliable power generation.

See how an integrated bottom cover combines centering and thermal break functions to reduce hea

An internal partition separates the evaporator from the agitator and cold water pipe, reducing ice-collision noise and damage risk.

An electrical heater stores energy in a metal medium, using latent heat and a heat exchanger for controlled thermal release.

See how alternating dual reaction sections with inverted flow directions maintain constant outf

See how nitrogen doping at 50-400 ppm stabilizes vanadium oxide heat absorption, reducing varia

See how series-connected segmented heat storage bodies reduce terminal voltage differences belo

See how phase-change material units stabilize air temperature in greenhouse-like spaces by stor

See how varying regenerator cross-sectional area by temperature zone reduces magnetic material

See how phase-change material and pre-charged heating elements maintain beverage temperature in

Solid metal feedstock splits water to produce heat and hydrogen on-site, supporting building HVAC, electricity, and FCV fueling.

See how a deformable expansion portion in the cool storage container absorbs abnormal pressure

See how a re-circulation loop stabilizes warmed fluid output temperature while extracting extra

See how bifurcated condenser channels and serpentine evaporator patterns maintain 0–10°C storag

A latent heat accumulator uses a coupling device to temporarily connect extraction and regeneration circuits for joint thermal operations.

See how a lateral filling channel outside reservoir plates enables PCM filling across different

Separating the heat storage and working fluid circuits stabilizes turbine temperature and reduces material strain.

See how a two-chamber smart boiler with flexible barrier and heat exchanger preheats water usin

A refrigeration condenser uses phase change material to store thermal energy during compressor operation and release it later.

A guide fixes film packs containing tetradecane to counteract buoyancy forces, reducing thermal resistance caused by crystallization.

See how a two-chamber boiler with flexible barrier and greywater heat exchanger preheats incomi

See how direct-contact PCM accommodation units increase evaporator temperature, reduce compress

See how a thermally-insulated partition, phase change material, and unidirectional thermal cond

See how auxiliary pumps, heating/cooling devices, and sensing interfaces enable active thermal

See how polymer-bound PCM elements replace encapsulation to enable cutting, rolling, and high t

See how direct PCM contact with the evaporator increases evaporation temperature and stores coo

See how a closed-loop flushing system uses progressive filters, transparent viewing, and high-p

A hierarchically porous calcium magnesium carbonate matrix absorbs organic phase change materials to create a stable composite.

Curved surface geometry increases volumetric energy density while maintaining reaction kinetics, avoiding the trade-off between particle size and capacity.

Switching sorption material oxidation states adjusts desorption enthalpy, enabling flexible storage of varying heat qualities.

Hollow pin fins with embedded metal foam and phase change material absorb transient thermal loads without reducing cooling fluid passage.

Calcium carbonate particles absorb thermal stress to limit heat transfer fluid degradation and extend system lifespan.

Phase change material surrounding power generation components absorbs and stores thermal energy during operation.

Adapter components resolve handling and bonding difficulties of cylindrical heat pipes by providing stable mechanical support and reliable thermal pathways.

A thermostable radiant heat reflective coat layer prevents liquid exudation and fire hazards in latent heat reservoirs at abnormally high temperatures.

A pumped thermal energy storage system uses a three-heat exchanger configuration to circulate working fluid through distinct temperature reservoirs.

An electronic apparatus uses a reaction chamber with varying thermal conductivity to absorb heat through endothermic reactions, stabilizing battery temperature.

A thermal energy storage device adjusts heat transfer fluid temperature by mixing it with upper or lower region fluids.

Integrating phase change material with the condenser reduces temperature fluctuations and system weight by storing heat, resolving complexity trade-offs.

A stratified storage tank separating plate routes water through a dedicated duct to maintain calm downward flow.

A multi-zone flat-bottom tank uses intermediate ceilings to separate storage zones and a floating roof for pressure equalization.

Granular thermochemical pellets form vapor channels to transport sorbate and conduct heat, preventing salt melting at high temperatures.

Adding 1,2-butanediol to sodium acetate prevents vaporization and reduces internal pressure during high-temperature heat storage.

A cooling assembly uses a mesh with aligned pores and an encapsulated phase-change layer to manage thermal energy.

Axial through-holes in a spheroidal ceramic body increase specific surface area while maintaining structural strength and enabling dense packing.

A rotating heat transfer cylinder uses a fixed blade to scrape solidified material from its outer surface.

Circuitous conduits route liquid heat transfer medium through a dry tank to store heat, enabling household space heating without district networks.

Ice slurry phase change material maintains steep thermoclines and reduces gravel requirements in thermal energy storage systems.

Spring-elastic tensioning fastens rib segments to a tube element, accommodating differential thermal expansion for high temperature operation.

A buffer tank cools coolant fluid using process fluid to remove excess heat from well application motors.

A thermal management system uses encapsulated phase change materials in a heat exchanger to absorb and store thermal energy from fluid coolant.

A lye cycle process stores energy via reversible water vapor absorption and desorption in sodium hydroxide solutions.

A decongealing channel uses a supersaturated solution to generate heat via exothermic reaction.

A thermoelectric energy storage system uses two separate thermal baths to optimize heat transfer cycles.

A dual-loop cooling system uses phase-change heat accumulators to pre-cool circulating fluid before active refrigeration.

A buoyancy-driven platform assembly reduces thermal resistance and scale buildup by maintaining consistent distance from the phase-change front.

Folded sheet box with filtration holes retains heat storage powder, preventing flow path blockage and maintaining heating efficiency.

Segmented reticular panels prevent clogging from suspended solids while splashing water droplets reduces noise and improves thermal efficiency.

Nested hydrophobic and polymeric barriers prevent diffusion of degrading chemical species, maintaining stability of water-soluble actives.

Toroidal phase change material capsules use outer groove patterns to boost heat transfer efficiency.

Integrating phase change material into the condenser buffers intermittent heat loads, reducing the size and power requirements of the heat sink.

Variable wall thickness in concentric heat storage volumes reduces pressure resistance mass while maintaining high-pressure thermal storage capability.

A thermal storage system accelerates phase change material crystallization using a solvent circulation device that generates nucleation sites.

A passive endothermic reaction cooling system absorbs nuclear decay heat using chemical reactants to maintain safe temperatures.

A heat exchanger arrangement uses compressed gas as a heat transfer medium to thermally couple with surrounding storage material.

Composite resin members prevent hydrocarbon bleeding during phase transitions while maintaining tensile strength for winding applications.

Segmented phase change material storage matches waste heat temperature to use place requirements, preventing equipment damage from thermal mismatch.

A plastic case integrates phase change material microcapsules to absorb heat through injection molding.

Reducing RTV silicone viscosity enables 300 phr phase-change material loading, achieving mass enthalpy above 70 J/g while maintaining flexibility.

Coaxial ejection encapsulates salt hydrates in polymer shells to prevent leakage while maintaining high volumetric energy density.

A multicomponent eutectic composition maintains temperatures between -75°C and -30°C using phase transition latent heat.

Two-phase metallic alloys store thermal energy through phase change while maintaining high conductivity.

Porous inorganic hosts accommodate hydrated inorganic salts, improving thermal conductivity and structural stability while maintaining high energy density.

Encapsulated phase change material capsules move through a closed loop circuit to transfer thermal energy between environments.

A phase change material absorbs heat between cooling channels, reducing temperature peaks and extending component lifespan.