A non-condensing thermal interface material conducts heat using functional fillers within a silicone-free polymer matrix.
Binary refrigerant blends combine specific fluorinated components to match R123 properties while reducing global warming potential and temperature glide.
A heat dissipation structure uses an insulating channel and low-boiling-point fluid to manage thermal loads in compact electronic devices.
Reactive working fluids form monomer-dimer couples via reversible Van der Waals bonds to enhance energy conversion efficiency.
Halogenated propene oligomer enhances slidability in HFO refrigerant compositions for vapor compression systems.
Azeotropic HCFO-1233xf and HF mixture enables efficient distillation-based separation of the intermediate compound.
Adding carbon dioxide to an HFC-32 blend reduces defrost cycle energy while maintaining performance comparable to R-410A.
Epoxy compound additive suppresses acid value increase and maintains oxidation stability when used with low thermal stability HFO refrigerants.
Composite polymerizable compounds prevent void formation from pump-out while maintaining thermal conductivity under thermal cycling.
A silicone grease composition combines irregular alumina, plate-like boron nitride, and aggregated boron nitride particles to achieve high thermal conductivity.
A purified polyalkylene glycol lubricant basefluid with controlled acid value and cation content ensures reliable operation in refrigeration systems.
Nanofluids enhance thermal conductivity to overcome slow water cooling rates and reduce energy consumption.
A boron nitride foam composite integrates phase change materials to manage heat absorption and storage.
Liquid carbon dioxide adiabatically expands to cool skin, while inert gas prevents ignition of flammable cryogens during laser exposure.
Ethylene-alpha olefin copolymer base oil prevents low-temperature deposition in hydrocarbon refrigerant systems.
A phase change gel stores cooling capacity using a composite matrix and nucleating agent.