Heat-Exchange Elements TRIZ Cases

A silica shell encapsulates n-octadecane nano-phase change material to enhance thermal conductivity and structural integrity.

A heat-storage composition with controlled viscosity and elastic modulus enables thick film application without slump.

A thermally conductive sheet composition uses a triazine phenolic compound to moderate curing reactions and maintain handleability.

Graphite flakes maintain electrical insulation while reducing mold wear compared to ceramic fillers.

A composite material combines heat-conductive particles with latent-heat phases to manage thermal energy in electronic devices.

A composite ceramic composition containing boron carbide, tungsten boride, and transition metal boride phases.

A thermally conductive grease combines polyorganosiloxanes with filler to dissipate heat from electronic components.

A heat storage sheet uses microcapsules within a dual-resin matrix to enhance thermal management.

Controlled boron and iron contents yield spherical magnesium oxide fillers that dissipate heat while resisting moisture degradation in semiconductor packaging.

Carboxyl-functionalized fillers eliminate closed porosity and density gradients, achieving 650 W/mK thermal conductivity.

Segmenting curable groups at chain ends enables fast thermal or moisture curing while maintaining mechanical strength and low viscosity.

Polysaccharides stabilize phase change materials, preventing leakage and resolving environmental harm from synthetic polymers.

Pentaerythritol oligomer esters improve viscosity and thermal stability of R-32 working fluids, resolving incompatibility issues in heat transfer systems.

Alkane and ether mixtures maintain stable low temperatures without volatilization, resolving volatility issues in sub −110°C calibration.

Aluminum oxide nanoparticles suspended in water with chelating agents and surfactants prevent agglomeration and fouling, resolving thermal property instability.

Oil-in-water macro-emulsion forms solid gel beads from styrene-based polymers and phase change materials, enabling continuous manufacturing with high yields.

Spherical alumina regenerative burner media with irregular aggregate bodies reduces thermal shock damage during rapid cycling.

A thermoconductive silicone composition uses aluminum nitride filler to achieve high thermal conductivity.

A heat transfer composition blends HFO-1234ze with HFC-32 to deliver high peak efficiency.

Covalently coupling carbon species to the polymer matrix improves thermal conductivity while maintaining electrical insulation properties.

A lubricating oil composition uses organic compounds with double bonds to enhance thermal stability in compression refrigerators.

A ternary refrigerant mixture of HFO-1132(E), HFO-1123, and R1234yf delivers cooling capacity.

Sulfonic acid metal salts and phosphoric acid esters in the base oil reduce pin abrasion loss from unsaturated fluorinated hydrocarbon refrigerants.

Blended polyamide compositions incorporate high thermal conductivity fillers and laser direct structuring additives to enable efficient heat dissipation.

Polyoxyalkylene glycol lubricant prevents phase separation in unsaturated fluorinated hydrocarbon refrigerants to enhance compressor reliability.

Filtered natural rubber latex reduces viscosity, enabling injection through the valve stem without removing the core while maintaining sealing strength.

A silicone composition with controlled elastic moduli provides excellent crushability and spreadability for thermal interface materials.

A thermosetting resin composition uses high-thermal conductivity fillers and a phosphoric acid copolymer to reduce viscosity.

A ternary refrigerant mixture of HFO-1132, HFO-1123, and R32 delivers high cooling performance.

A glycerin and 1,3-propanediol mixture lowers freezing points while maintaining fluidity.

A binder-based film with variable thermal conductivity material enables precise heat flow control on curved surfaces.

Inorganic particles in the suspension increase thermal conductivity to reduce chip damage from stray radiation and heat accumulation.

Trifluoroiodomethane mediates miscibility between hydrofluorocarbons and traditional lubricants, enabling drop-in retrofitting without draining oil.

Lithium salt-based storage materials with specific nucleating agents reduce undercooling in the -50°C to -85°C range, enabling reliable phase transitions.

Polyhydric alcohol ester oil uses specific branched fatty acids to resolve difluoromethane incompatibility and prevent oil pooling in the cycle.

A thermoplastic resin composition uses a block copolymer to enhance thermal conductivity.

Short-chain organic carboxylic acids resolve solubility and cost bottlenecks of long-chain inhibitors while maintaining extended service life.

Adding graphene oxide to salt hydrate systems prevents phase separation, maintaining high heat storage density and reliable battery temperature control.

A thermally conductive composition uses spherical fillers sized 50 µm or more to achieve high thermal conductivity and low viscosity.

A polyisobutylene composition with reactive diluents and conductive fillers dissipates heat efficiently.

Polyester and polyether polymers enhance antiwear properties while maintaining efficient oil return in refrigeration cycles.

A thermally conductive sheet combines liquid and solid fluororesins with particulate carbon to dissipate heat efficiently.

HCFO-1233zd and methyl acetate azeotrope-like compositions deliver low global warming potential while maintaining non-flammability for safe industrial use.

A hydrocarbon refrigerant composition combines propylene, propane, and isobutane to provide cooling performance.

Polycarbonate resin composition with conductive fillers and low molecular weight polyolefin.

Phenyl-modified silicone suppresses focus ring temperature rise in plasma etching by resisting radical degradation.

A carboxyl-containing ester base oil ensures reliable lubrication across diverse refrigerant systems.