Thermal conductivity and temperature resistance:

Members of CAC led the ESA funded CACTEX ( Chalmers Aerospace Club Thermal EXperiment ) project where the thermal conductivity of alcohol at zero gravity was investigated using a sounding rocket.

* Thermal conductivities of the elements ( data page ) — thermal conductivity

# REDIRECT Thermal conductivity detector

Thermal inertia is a term commonly used by scientists and engineers modelling heat transfers and is a bulk material property related to thermal conductivity and volumetric heat capacity.

Thermal conductivity of materials is temperature dependent.

Thermal conductivity is important in material science, research, electronics, building insulation and related fields, especially where high operating temperatures are achieved.

Thermal conductivity and conductance are analogous to electrical conductivity ( A · m < sup >− 1 </ sup >· V < sup >− 1 </ sup >) and electrical conductance ( A · V < sup >− 1 </ sup >).

* Thermal conductivity

* Thermal conductivity (" k " or " λ " value )

* Ogdenmfg. com, Thermal conductivity and specific heat charts

# REDIRECT Thermal conductivity

" Thermal conductivity is a material property that is primarily dependent on the medium's phase, temperature, density, and molecular bonding.

Thermal effusivity is a quantity derived from conductivity which is a measure of its ability to exchange thermal energy with its surroundings.

# REDIRECT Thermal conductivity

** Thermal conductivity, how well heat is conducted through a substance

* Thermal conductivity, the ability for temperatures to transmit through materials

* k < sub > b </ sub > = Thermal conductivity of the body

Thermal conductivity is measured in watts-per-meter per kelvin ( W · m < sup >− 1 </ sup >· K < sup >− 1 </ sup >), represented as k. As the thickness of insulating material increases, the thermal resistance — or R-value — also increases.

Thermal and electrical conductivity often go together.

Thermal conductivity assumes that the heat transfer of the material is linearly related to its thickness.

Thermal conductivity is conventionally defined as the rate of thermal conduction through a material per unit area per unit thickness per unit temperature differential ( delta-T ).

Thermal conductivity of amorphous materials is lower than that of crystalline metal.

Thermal noise is white noise meaning that the power spectral density is constant throughout the frequency spectrum.

Thermal radiation is an important mechanism of heat transfer.

Thermal energy is economical in areas of high industrial density, as the high demand cannot be met by renewable sources.

Thermal erosion is the result of melting and weakening permafrost due to moving water.

Thermal diffusion galvanizing, a form of Sherardizing, provides a zinc coating on iron or copper based materials partially similar to hot dip galvanizing, but the final surface that results is different from that yielded with hot-dip galvanizing in that all of the zinc is alloyed.

Heat engines distinguish themselves from other types of engines by the fact that their efficiency is fundamentally limited by Carnot's theorem .< ref > Thermal physics: entropy and free energies, by Joon Chang Lee ( 2002 ), Appendix A, p. 183: " A heat engine absorbs energy from a heat source and then converts it into work for us.

; Thermal expansion: A solid is said to be isotropic if the expansion of solid is equal in all directions when thermal energy is provided to the solid.

Detailed Thermal Emission Imaging System | THEMIS daytime infrared image mosaic of Olympus Mons. Olympus Mons lies at the edge of the Tharsis bulge, a vast volcanic plateau that is very ancient.

Thermal storage is the temporary storage or removal of heat for later use.

* Thermal pollution, is a temperature change in natural water bodies caused by human influence, such as use of water as coolant in a power plant.

Thermal radiation is a common synonym for approximately black body radiation spontaneously emitted from objects, that is chiefly infrared electromagnetic radiation at temperatures often encountered on Earth.

Thermal radiation is generated when heat from the movement of charged particles within atoms is converted to electromagnetic radiation.

* Thermal infrared spectroscopy measures thermal radiation emitted from materials and surfaces and is used to determine the type of bonds present in a sample as well as their lattice environment.

* Protection against small micrometeoroids, some traveling at up to 27, 000 kilometers per hour, provided by a puncture-resistant Thermal Micrometeoroid Garment, which is the outermost layer of the suit.

Thermal contact with the heat sink is then broken so that the system is insulated, and the magnetic field is switched off.

ICP-MS is more suitable for this application than the previously used Thermal Ionization Mass Spectrometry, as species with high ionization energy such as Osmium ( Os ) and Tungsten ( Hf-W ) can be easily ionised.

Thermal energy must therefore be added to it ( either directly by the fusion products or by recirculating some of the electricity generated by the reactor ) at the same rate the plasma loses energy ( for instance by heat conduction to the device walls or radiation losses like bremsstrahlung ).

# Coefficient of Thermal Expansion ( thermodynamics ) ( dimensionless )-Relates the change in temperature to the change in a material's dimensions.