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Room Temperature

However, if the liquid solution contains a noncondensable component, the normalization shown in Equation (13) cannot be applied to that component since a pure, supercritical liquid is a physical impossibility. Sometimes it is convenient to introduce the concept of a pure, hypothetical supercritical liquid and to evaluate its properties by extrapolation provided that the component in question is not excessively above its critical temperature, this concept is useful, as discussed later. We refer to those hypothetical liquids as condensable components whenever they follow the convention of Equation (13). However, for a highly supercritical component (e.g., H2 or N2 at room temperature) the concept of a hypothetical liquid is of little use since the extrapolation of pure-liquid properties in this case is so excessive as to lose physical significance. [Pg.18]

Carbon dioxide, COj. Sublimes — 78 5 C. A colourless gas at room temperature, occurs naturally and plays an important part in animal and plant respiration. Produced by the complete combustion of carbon-containing materials (industrially from flue gases and from synthesis gas used in ammonia production) and by heating metal carbonates or by... [Pg.81]

Carbon suboxide, C3O2, OCCCO. M.p. — 107 C, b.p. 6-8°C. A toxic gas (malonic acid plus P2O5) which polymerizes at room temperature. Reforms malonic acid with water. [Pg.82]

Cyanogen fluoride, FCN. Colourless gas (b.p. — 46 C) prepared by pyrolysis of cyanuric fluoride. Polymerizes to (FCN), cyanuric fluoride, at room temperature. [Pg.120]

Austenitic steels retain the ccp structure right down to room temperature. For this reason these steels cannot be hardened by quenching. [Pg.372]

Residual austenite is a steel structure which during cooling at martensite transformation temperature is not completely converted into martensite and remains unchanged at room temperature together with martensite. [Pg.18]

Specimens used in tests were sections of cables with PVC outer coating. PVC was plasticized with DOF softener. The materials considered were exposed to the radiation and thermal aging. The samples have been irradiated at room temperature by hard gamma rays with 10 rad/sec dose power. A number of samples had been heated for long different times at 90°C. Besides a special specimens were cut out from outer coating for test on tensile machine like "Instron". The total doses of irradiation, times of heating and elongations at break obtained with "Instron" are listed in Table 1. [Pg.244]

We realized an Eddy current SQUID system of the high frequency type a room temperature Eddy current probe is connected to a SQUID sensor at hquid nitrogen temperature. Fig.3 gives an overview over the components of the system, fig, 5 shows a schematic diagram of the electronics. [Pg.300]

For vapor saturated with respect to liquid water at room temperature, Z is about 0.02 mol/cm sec or about 1.2 X 10 molecules/cm sec. At equilibrium, then, the evaporation rate must equal the condensation rate, which differs from... [Pg.56]

There is also a traffic between the surface region and the adjacent layers of liquid. For most liquids, diffusion coefficients at room temperature are on the order of 10 cm /sec, and the diffusion coefficient is related to the time r for a net displacement jc by an equation due to Einstein ... [Pg.57]

This means that the potential some distance away appears to follow Eq. V-13, but with an apparent value of AkTjze, which is independent of the actual value. For monovalent ions at room temperature this apparent would be 100 mV. [Pg.173]

Harkins then estimated Tc for diamond to be about 6700 K and, using Eq. HI-10, found the entropy correction at 25°C to be negligible so that the preceding values also approximate the room temperature surface free energies. These... [Pg.263]

Process 2, the adsorption of the reactant(s), is often quite rapid for nonporous adsorbents, but not necessarily so it appears to be the rate-limiting step for the water-gas reaction, CO + HjO = CO2 + H2, on Cu(lll) [200]. On the other hand, process 4, the desorption of products, must always be activated at least by Q, the heat of adsorption, and is much more apt to be slow. In fact, because of this expectation, certain seemingly paradoxical situations have arisen. For example, the catalyzed exchange between hydrogen and deuterium on metal surfaces may be quite rapid at temperatures well below room temperature and under circumstances such that the rate of desorption of the product HD appeared to be so slow that the observed reaction should not have been able to occur To be more specific, the originally proposed mechanism, due to Bonhoeffer and Farkas [201], was that of Eq. XVIII-32. That is. [Pg.720]

For a free energy of fonnation, the preferred standard state of the element should be the thennodynamically stable (lowest chemical potential) fonn of it e.g. at room temperature, graphite for carbon, the orthorhombic crystal for sulfiir. [Pg.367]

One might also note that this is one of the very few equilibria involving only gaseous species at room temperature that have constants K anywhere near unity.)... [Pg.368]

These results do not agree with experimental results. At room temperature, while the translational motion of diatomic molecules may be treated classically, the rotation and vibration have quantum attributes. In addition, quantum mechanically one should also consider the electronic degrees of freedom. However, typical electronic excitation energies are very large compared to k T (they are of the order of a few electronvolts, and 1 eV corresponds to 10 000 K). Such internal degrees of freedom are considered frozen, and an electronic cloud in a diatomic molecule is assumed to be in its ground state f with degeneracy g. The two nuclei A and... [Pg.405]

Now, typical Femii temperatures in metals are of the order of 50 000 K. Thus, at room temperature, TIT is very small compared to one. So, one can ignore the T dependence of p, to obtain... [Pg.432]

Bohme D K and Raksit A B 1984 Gas phase measurements of the influence of stepwise soivation on the kinetics of nucieophiiic dispiacement reactions with CHjCi and CHjBr at room temperature J. Am. Ghem. Soc. 106 3447-52... [Pg.827]

Another example of epitaxy is tin growdi on the (100) surfaces of InSb or CdTe a = 6.49 A) [14]. At room temperature, elemental tin is metallic and adopts a bet crystal structure ( white tin ) with a lattice constant of 5.83 A. However, upon deposition on either of the two above-mentioned surfaces, tin is transfonned into the diamond structure ( grey tin ) with a = 6.49 A and essentially no misfit at the interface. Furtliennore, since grey tin is a semiconductor, then a novel heterojunction material can be fabricated. It is evident that epitaxial growth can be exploited to synthesize materials with novel physical and chemical properties. [Pg.927]


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A conductivity, room-temperature

ABS examples of chemical behaviour at room temperature

Adhesive room-temperature setting

Alkene room temperature reactivity

Aluminum deposition room-temperature ionic liquids

Amine room temperature

Anhydrous hydrogen fluoride, room-temperature

Aryl iodides room-temperature reactions

At room temperature

Barium room-temperature synthesis

Boulesteix, Defects and phase transformation near room temperature in rare earth sesquioxides

Bubble point pressure room temperature pore diameter model

Bubble point pressure room temperature value

Carbon monoxide at room temperature

Carbon monoxide oxidation room temperature catalysts

Carbon nanotubes room temperature electrical

Case of Motionless Air at Room Temperature in Laminar Mode

Case of Motionless Air at Room Temperature in Turbulent Mode

Cathodic limiting potential, room-temperature

Cell experiments, room-temperature

Cell room systems design temperature

Cement Hydration at Room Temperature

Ceria room temperature, dependence

Chalcogenide room temperature synthesis

Coal samples, room-temperature

Comparison with room-temperature

Controlled room temperature

Crystal structures at room-temperature

Curing at Room Temperature

Cyclic voltammetry room-temperature ionic liquids

Dielectric measurement, room-temperature

Difference spectra room-temperature

ECTFE examples of chemical behaviour at room temperature

EVA and HDPE examples of creep modulus (GPa) versus time (h) at room temperature under 3 MPa

Electrocatalysis in Room Temperature Ionic Liquids

Electrochemical window room-temperature ionic liquids

Elements room temperature state

Epoxy resin room-temperature

Epoxy room temperature amine curing

Ethylene at room temperature

Ethylene-vinyl acetate copolymers examples of chemical behaviour at room temperature

Ethylene-vinyl alcohol copolymers examples of chemical behaviour at room temperature

FARG room-temperature Mossbauer

FARG room-temperature Mossbauer spectrum

Filaments tested at room temperature

Fluorescence room temperature, description

From melt to room temperature

Fuel room temperature

Fused salts, room temperature

Glass, bonding room-temperature method

Glassy carbon electrodes room-temperature ionic liquids

Gold complexes room temperature conductivity

Gold-catalysed reactions, room temperature

Hydantoin room temperature amine curing

Ionic liquids room-temperature molten salts

Ionic room temperature

Ionic room-temperature electrochemical

Lewis acids room-temperature ionic liquids

Liquid state at room temperature

MPa at room temperature

Magnetic curves at room temperature

Measurements at room temperatures CuZn

Mechanical properties at room temperatures

Melts room temperature

Mercury at room temperature

Metal Oxides for Room-Temperature Gas Sensors

Miscible polymers above room temperature

Molten Salts and Room-Temperature Ionic Liquids

Molten salts at room temperature

Observation of exciton surface polaritons at room temperature

Optical Single-Molecule Detection at Room Temperature (Meixner)

Other Gold-Promoted Reactions at Room Temperature

Oxidation at room temperature

Oxidation room temperature

P conductivity, room-temperature

PBT examples of creep modulus (GPa) versus time (h) under 10 MPa at room temperature

PC examples of creep modulus (GPa) versus time (h) under 21 MPa at room temperature

PDPhSM at room temperature

PMMA examples of chemical behaviour at room temperature

POM examples of chemical behaviour at room temperature

PPE examples of chemical behaviour at room temperature

PVC examples of chemical behaviour at room temperature

PVC-C examples of chemical behaviour at room temperature

PVDF examples of chemical behaviour at room temperature

Perylene complexes room temperature conductivity

Phosphorimetry, room-temperature

Poly , atactic room temperature

Polycarbonates examples of chemical behaviour at room temperature

Polyester examples of chemical behaviour at room temperature

Polyetherketones examples of chemical behaviour at room temperature

Polyethylene examples of chemical behaviour at room temperature

Polyimides examples of chemical behaviour at room temperature

Polymethylpentenes examples of chemical behaviour at room temperature

Polyphenylene sulfide examples of chemical behaviour at room temperature

Polypropylene examples of chemical behaviour at room temperature

Polysulfones examples of chemical behaviour at room temperature

Preparation of Nanosized Cold Catalysts and Oxidation at Room Temperature

Properties Resulting from Elevated versus Room Temperature Cure

Proton shift data, room-temperature

Quaternary ammonium cations room-temperature ionic liquids

Quenched sample room-temperature spectra

Racemization room temperature

Radical reactions at room temperature

Reactions above Room Temperature Using a Condenser

Reactions above room temperature

Reactions at or below room temperature

Reference Electrodes for Use in Room-temperature Ionic Liquids

Resistance above room temperature

Resistivity at room temperature

Reversible addition-fragmentation transfer Room temperature

Rheology Room temperature

Room -temperature -vulcanization

Room Temperature Acid Catalysts

Room Temperature Amine Curing Agents

Room Temperature Curing Epoxy Adhesives

Room Temperature Resistivity

Room Temperature Sulfur Curing Agents

Room Temperature Tightness Test

Room Temperature Vulcanizable Single Component Silicone Rubbers

Room Temperature Vulcanized Silicone Rubber Coatings Application in High Voltage Substations

Room Temperature and Ambient Pressure

Room reference temperature

Room temperature Buchwald-Hartwig

Room temperature Buchwald-Hartwig amination

Room temperature ILs

Room temperature Mossbauer

Room temperature and below

Room temperature azeotropes

Room temperature bubble point pressure

Room temperature bubble point pressure surface tension model

Room temperature bulk ionic conductivity

Room temperature conducting films

Room temperature conductivity

Room temperature conductivity, dithiolene

Room temperature conductivity, dithiolene electrical properties

Room temperature control system

Room temperature cure

Room temperature cure adhesives

Room temperature dry

Room temperature electronic absorption

Room temperature electronic absorption spectrum

Room temperature energy

Room temperature growth mode

Room temperature indole arylation

Room temperature input characteristics

Room temperature ionic liquid

Room temperature ionic liquid electrolyte

Room temperature ionic liquid reference

Room temperature ionic liquids (RTIL

Room temperature ionic liquids anions

Room temperature ionic liquids biocatalysis

Room temperature ionic liquids cations

Room temperature ionic liquids cohesive energy

Room temperature ionic liquids compressibility

Room temperature ionic liquids electrochemistry

Room temperature ionic liquids electrosynthesis

Room temperature ionic liquids extractions using

Room temperature ionic liquids industrial applications

Room temperature ionic liquids miscibility

Room temperature ionic liquids molecular structure

Room temperature ionic liquids organic synthesis

Room temperature ionic liquids parameters

Room temperature ionic liquids properties

Room temperature ionic liquids reaction

Room temperature ionic liquids surface tension

Room temperature ionic liquids synthesis

Room temperature ionic liquids thermal conductivity

Room temperature ionic liquids transport number

Room temperature ionic liquids vapor pressure

Room temperature molten salts

Room temperature oxidations, semiconductor catalysts

Room temperature photodetectors

Room temperature pore diameter model

Room temperature reactions Suzuki-Miyaura coupling

Room temperature reseal diameter model

Room temperature reseal pressure model

Room temperature reverse blocking

Room temperature sensors

Room temperature shim coils

Room temperature shims

Room temperature slip

Room temperature solutions, triplet carbenes

Room temperature stability

Room temperature storage

Room temperature superconductors

Room temperature superconductors determination

Room temperature techniques

Room temperature triplet

Room temperature vulcanisation

Room temperature vulcanising

Room temperature vulcanization silicone rubber

Room temperature vulcanized

Room temperature vulcanized encapsulants

Room temperature vulcanized fillers

Room temperature vulcanized silicone elastomers

Room temperature vulcanized silicone rubbers

Room temperature vulcanizing

Room temperature vulcanizing compounds

Room temperature vulcanizing silicon

Room temperature vulcanizing silicone rubbers

Room temperature wet

Room temperature, standard

Room temperature-vulcanized two-component

Room temperature-vulcanizing silicone caulk

Room-Temperature Form

Room-Temperature Tensile Properties

Room-Temperature-Foaming Silicone Rubbers

Room-temperature H-NMR spectra

Room-temperature Phosphorescence (RTP)

Room-temperature applications

Room-temperature curing epoxies

Room-temperature curing epoxies aerospace applications

Room-temperature electrochemistry

Room-temperature electrochemistry spectroscopy

Room-temperature expansion behavior

Room-temperature fluorescence

Room-temperature fluorescence spectroscopy

Room-temperature fluorescence spectrum

Room-temperature hydrides, properties

Room-temperature imprinting

Room-temperature ionic liquid mixtures

Room-temperature ionic liquids (RTILs

Room-temperature ionic liquids amphiphiles

Room-temperature ionic liquids chloroaluminate systems

Room-temperature ionic liquids complexation study

Room-temperature ionic liquids complexes

Room-temperature ionic liquids data

Room-temperature ionic liquids definition

Room-temperature ionic liquids electrodeposition

Room-temperature ionic liquids electrolyte applications

Room-temperature ionic liquids imidazolium-type

Room-temperature ionic liquids micellization

Room-temperature ionic liquids nanoparticles

Room-temperature ionic liquids phase states

Room-temperature ionic liquids physicochemical properties

Room-temperature ionic liquids reference electrodes

Room-temperature ionic liquids self-assembly

Room-temperature ionic liquids solvatochromic probes

Room-temperature ionic liquids viscosity

Room-temperature ionic liquids volatility

Room-temperature ionic liquids, green

Room-temperature liquid

Room-temperature molecular magnets

Room-temperature nanoimprint lithography

Room-temperature phosphorescence

Room-temperature phosphorescence spectrum

Room-temperature polymeric magnet

Room-temperature reactions

Room-temperature spectra

Room-temperature spectra preparation

Room-temperature strength

Room-temperature superconductor

Room-temperature vulcanising silicone

Room-temperature vulcanising silicone rubber

Room-temperature vulcanizate

Room-temperature vulcanization rubber

Room-temperature vulcanized elastomers

Room-temperature vulcanized silicone

Room-temperature-curing adhesive

Rotating disk electrode , room-temperature

SAN examples of chemical behaviour at room temperature

Self-assembly in room temperature ionic liquids

Silicone elastomers room temperature vulcanizing

Silicone products room temperature vulcanizing

Silicone room temperature vulcanizing

Silicones room temperature vulcanization

Simplified room temperature model

Single-molecule detection at room temperature

Solvent systems room-temperature ionic liquids, electronic

Solventless, room temperature

Spectral Diffusion at Room Temperature

Storage at room temperature encapsulation, physisorption, chemisorption and spillover

Substances room temperature states

Subtraction of spectra at room-temperature

Superconductivity room-temperature

Supported organic layer catalysts for room temperature catalytic fluorination

Temperature dependence time-resolved spectroscopy, room

Temperature of rooms

Temperature room, SWNT network

Test methods room-temperature cracking

Tg below room temperature

Two Component Room Temperature Vulcanizable Silicone Rubbers

Two-Part Room Temperature Curing Epoxy Adhesives

Typical Room-Temperature Strength

Typical Room-Temperature Tensile Properties

Ultrafast kinetic spectroscopy of bleaching intermediates at room temperature

Unstable intermediates formed by irradiation at room temperature

Vibrational spectroscopy room-temperature

Voltammetry measurements, room-temperature

Voltammetry measurements, room-temperature ionic liquids

Voltammetry measurements, room-temperature reference electrodes

Water model room temperature example

Why does egg white denature when cooked but remain liquid at room temperature

Wideband water spectrum, room temperature

Wideband water spectrum, room temperature conditions

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