Heat Storage Plants TRIZ Cases

Alumina oxide layer protects nickel alloy from carbonate salt corrosion, enabling heat storage at 750°C.

Grading heat storing element sizes across vertical zones controls mass flow and minimizes convection, reducing temperature discrepancies in the storage medium.

Stack of bricks with blind-ended ducts enhances heat transfer surfaces in thermal storage units.

Segmented heat spreaders paired with functionalized interposers reduce peak temperatures by increasing contact area with phase change materials.

Partial thermocline extraction prevents degradation while minimizing thermal losses and optimizing system efficiency.

A vapor chamber with a wick transfers heat from battery cells to phase change material shells.

Integrated exchange circuits in a tank farm store thermal energy at varying temperatures, reducing equipment expenditure and exergy loss.

Outer solid particle layers reduce friction and structural degradation, allowing efficient heat transfer cycles without impairment.

A segmented heat exchanger unit transfers thermal energy to a storage medium while maintaining fluid stratification.

A three-layer wick structure with varying thermal conductivity prevents heat leaks to the reservoir while maintaining low vapor discharge resistance.

Multiple openings in the inflow damper distribute charging mass flow evenly, reducing turbulence and exergy losses while maintaining temperature layers.

Segmented concrete cassettes with nested heat exchangers reduce construction complexity and heat loss in high temperature thermal energy storage.

Curved metal sheet fins with vacuum channels enhance turbulent driving forces to minimize dry-out in vertical electronic devices.

An intermediate mesh distributes flow across jet paths while phase-change material absorbs thermal energy, resolving insufficient heat flux removal.

Down material sheets encapsulate thermal sources to reduce battery drain and extend usage time.

A heat dissipation module uses a separator filled with thermally conductive material to absorb battery heat.

A silicon carbide heat storage member uses a specialized coating layer to facilitate rapid thermal radiation and absorption cycles.

A pressureless sauna storage heater uses high-boiling fluid to store solar thermal energy for autonomous operation.

Segmented box-shaped bodies with abutment walls resist high pressure while reducing the footprint of traditional cylindrical tanks.

A helical extension spring activates nucleation to resolve reliability issues during repeated solidification cycles.

Pre-deforming the separator plate at curved zones compensates for fluid pressure, ensuring consistent cooling in automotive air conditioning.

Dimpled containers allow direct refrigerant pipe contact, resolving container deformation from volume changes while accelerating cold storage speed.

Composite metal oxide storage elements withstand acid water corrosion to extend regenerator service life.

Segmenting circulation circuits reduces expensive heat transfer media usage and improves temperature response speed by isolating fluid volumes.

Doped metal oxide shells encapsulate polymeric cores, blocking ultraviolet radiation to extend useful lifetime beyond ten years.

A high-temperature storage device accumulates thermal energy using hot water or steam at extreme pressures and temperatures.

Porous composite heat storage material uses polymer binders and conductive fillers to store latent thermal energy.