Thermal Insulation TRIZ Cases

Corrugated metal strips seal nano-porous insulation in a partial vacuum, maintaining thermal performance and pressure resistance at extreme depths.

A vacuum insulation getter material combines calcium oxide and iron-based compounds to absorb moisture and gases.

Multi-nozzle injection ensures uniform polyurethane density, preventing material loss during continuous insulated pipe manufacturing.

Segmented protective layers on opposing surfaces resolve the trade-off between impact resistance and flexibility for uneven installations.

Open-celled rigid polyurethane foam envelops pipe connections, resolving the contradiction between high mechanical strength and low buoyancy.

A vacuum heat insulator core uses thickness fiber bundles to bind long fibers for structural integrity.

Sub-micron porous mineral particles reduce density below 280 kg/m³ while maintaining fire resistance and low thermal conductivity.

A flexible foil insulating device adapts to complex component shapes using a metallic wire mesh inner sheath and deformable outer casing.

A removable pipe insulation system uses a micro-perforated inside skin to vent trapped air during installation.

A motor-assisted method cuts flat foam plates into precise 2D elements to form closed thermal insulation structures around complex pipe geometries.

Segmented wind protection cover positions hydraulic connectors at a distance from the shell, preventing thermal bridging and fluid freezing.

Optimized aerogel particle size reduces board density to 130 kg/m³, eliminating thermal bridges in building insulation.

A composite thermal management layer combines a densified polyimide foam core with an in-plane heat spreader to direct heat flow laterally.