Heat Storage Plants TRIZ Cases

A thermochemical heat storage unit condenses steam into water and pressurizes it for compact thermal energy accumulation.

A high temperature thermal energy exchange system stores thermal energy using a heat transfer fluid and insulated chambers.

An expanding diffuser section in the inlet port distributes working fluid uniformly, reducing pressure loss and enhancing thermal exchange efficiency.

A polymer heat sink block integrates an oscillating heat pipe to dissipate high peak power losses in X-ray generators.

Layered porous media with varying particle sizes distribute heat transfer fluid uniformly, resolving non-uniform flow and mechanical stress in large tanks.

A component carrier embeds phase-change material within cavities to absorb heat directly from mounted components.

Partition walls with communication holes enable fluid circulation between outer tubes, preventing rapid vehicle interior temperature rise during engine stop.

A measuring device detects gas circulation between a thermal storage reservoir and an external volume to determine the state of charge.

A thermal storage device uses basalt to hold heat from electric heating elements inside individual tubes.

Amphiphilic organic compounds stabilize sodium acetate trihydrate in a supercooled state while maintaining high thermal energy density.

A condenser separates evaporated phase-change material from the gas headspace to recover the substance.

A thermal conduction composition uses particles with a mass-specific surface area of 1.3 m2/g or less to achieve high heat transfer.

Segmenting the heat transfer path across multiple exchangers improves roundtrip efficiency while managing thermal gradients in pumped heat energy storage.

A modular heat-storage assembly uses a porous matrix to transfer heat between phase-change material and integrated vessel fins.

A cooling device combines a heat pipe and latent heat store to manage thermal loads in electronic circuits.

Integrating multi-stage thermal energy storage with phase change materials manages heat loss from air compression, enhancing roundtrip exergy efficiency.

A heat storage container uses parallel flow channels separated by porous walls to distribute water vapor uniformly across the material.

A cooling device for high temperature fluid uses a phase change heat exchanger to stabilize discharge temperature.

Paraffin-based heat storage compositions improve slow flame retardance by generating extinguishing gas at temperatures higher than the material melting point.

Stabilizer prevents premature crystallization of sugar alcohols, enabling reliable thermal energy storage and retrieval.

A vibrating heat sink base applies oscillating waves to increase contact surface area and improve thermal transfer efficiency.

Granular thermoaccumulator materials resolve low conductivity bottlenecks by enabling efficient thermal exchange through interstitial fluid flow.

An endless belt removes crystallized phase-change material from the heat exchanger surface to maintain high heat transfer power and process speed.

Gellan gum prevents phase separation in vertical tanks by increasing melt viscosity, maintaining component homogeneity and heat capacity.

An inert intermediate fluid mediates heat transfer between solids and fluids without chemical interaction.

A eutectic alcohol solution cools blood to 22°C within two hours using a sealed flexible polymer layer.

Crossed inner walls create accommodation cells that guide liquid phase change material flow, reducing temperature differences without external power.

Porous perovskite-oxide particles filled with molten salt store thermal energy via redox reactions and latent heat.

A composite alkali metal carbonate and chloride medium transfers thermal energy while maintaining a low melting point.

Graphite-loaded phase change material mass molds to battery packs, resolving low thermal conductivity trade-offs.

A porous calcium silicate hydrate carrier bonds phase change material to its open pores for thermal energy storage.

Integrating phase change materials into a modular block reduces system weight and dimensions while maintaining thermal efficiency.

A flexible sleeve inlet guides heated water into a stratified thermal store, stabilizing at the matching temperature layer with minimal turbulence.