Assertion: r | /r/HasProperty | the gas constant
Facets:
Source sentences:
text: R is the Gas Constant (need to find out)
text: `"R (Gas Constant)" = 8.3144621
text: 'R' is a gas constant (KJmol-1 k-1 ).
text: Just use the formula PV=nRT P is pyour pressure, V is your volume, n is the # of moles which can be assumed in your problem to be 1, R is the gas constant .0821, and T is your temperature or kelvin, just add 27 degrees celsius to 273 kelvin
text: The R is also known as ideal gas constant or universal gas constant or molar constant.
text: R is the Gas Constant
text: E is the cell potential, E0 is the standard cell potential, R is the gas constant, T is the temperature, n is the number of mole of electrons exchanged, F is Faraday's constant, and Q is the reaction quotient.
text: NOx] are the activation energy and pre-exponential factor of the standard SCR reaction, respectively, and R is the gas constant .
text: where [k.sub.1] is constant, Q is the activation energy, T is the temperature, and R is the gas constant .
text: where E is the activation energy of crystallization, T is the temperature of the exothermic peak, [beta] is the heating rate, and R is the gas constant .
text: where [Rho] is the melt density, T is the processing temperature, R is the gas constant , Mc is the critical molecular weight, M is the absolute molecular weight, and [[Eta].sub.[M.sub.c],T] is the zero-shear viscosity at the critical molecular weight and processing temperature.
text: (in moles per mole), is constant regardless of the value of P, and noting that [c.sub.a] = (P[[c.sub.a].sup.*]/RT) (where R is the gas constant ), we can rewrite Eq.
text: Where [m.sub.0] is the initial nitrogen content in kilograms in the molten iron before any given half-rotation of the vessel, m is the final nitrogen content after any given half-rotation of the vessel, R is the gas constant , T = 1.873[degrees]
text: where R is the gas constant (8.31446261815324 J⋅K−1⋅mol−1).
text: (Remember that n is the number of moles of gas that remains constant, and R is the gas constant.)
text: The work done in an isothermal process is given by the following equation, where ln is the natural log (ln on your calculator), R is the gas constant
text: where R {\displaystyle R} is the gas constant and T {\displaystyle T} is the temperature.
text: where R is the gas constant (8.31446261815324 J⋅K−1⋅mol−1).
text: where p is the absolute pressure of the gas; V is the volume; n is the amount of the substance; R is the gas constant; and T is the absolute temperature.
text: R, the gas constant, can have a wide variety of values depending on the units in which it is expressed.
text: where p 0 is the pressure, R is the gas constant, and T 0 is the absolute temperature.
text: where R is the gas constant.
text: where E a is the activation energy, and R is the gas constant, and m and n are experimentally determined partial orders in [A] and [B], respectively.
text: R is the gas constant.
text: i is the standard chemical potential of the species, R is the gas constant and T is the temperature.
text: Assuming it behaves as an ideal gas, you can say #Pv=nRT# where P is pressure, v is volume, n is number of moles, R is the gas constant
text: * V = R * T where R is the gas constant.
text: R, the gas constant, can have a wide variety of values depending on the units in which it is expressed.
text: {3}{2}}k_{b}T{\mathcal {N}}_{a}={\frac {3}{2}}RT} , where R is the gas constant.
text: p is the absolute pressure of the gas; V is the volume; n is the amount of the substance; R is the gas constant; and T is the absolute temperature.apex- a law describing the properties of a gasPV = nRT
text: The free energy of solvation can be converted to a solubility value using various formulae, the most general case being shown below, where the numerator is the free energy of solvation, R is the gas constant and T is the temperature in kelvins.
text: Here ΔP is the gas pressure difference across the barrier, A is the area of the hole, N A is the Avogadro constant, R is the gas constant and T is the absolute temperature.
text: where [beta] is the compression coefficient of gas, M is the molecular weight of gas, R is ideal gas constant , and T is absolute temperature.
text: where R is ideal gas constant.