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- where <math>R</math> is the [[molar gas constant]] (also known as the [[Universal gas constant]]). This equation can be re-a10 KB (1,459 words) - 16:10, 23 September 2013
- |align=left|= the [[molar gas constant|universal gas law constant]] of 8.314472 m<sup>3</sup>·Pa·mol<sup>-1</su17 KB (2,520 words) - 10:32, 28 June 2023
- ...8.314472 J mol<sup>−1</sup> T<sup> −1</sup> ) is the [[molar gas constant]]. A mole of a real gas will deviate from this volume, but for many real ga5 KB (914 words) - 14:09, 2 February 2023
- |align=left|= the [[Molar gas constant|universal gas law constant]] = 8314.5 Pa·m<sup>3</sup>/(kmole·[[kelvin|K]12 KB (1,845 words) - 16:31, 10 February 2024
- where ''R'' is the [[molar gas constant]], defined as the product of the [[Boltzmann constant]] ''k''<sub>B</sub> a ...t accurate value of R is:<ref>[http://physics.nist.gov/cgi-bin/cuu/Value?r Molar gas constant] Obtained from the [[NIST]] website. [http://www.webcitation.org/query?url=14 KB (2,204 words) - 15:26, 20 November 2022
- |align=left|= [[Molar gas constant|Universal gas constant]] in atm·m<sup>3</sup>/(kmol·K)12 KB (1,764 words) - 10:19, 30 July 2023
- ...'', and Avogadro’s constant through ''k'' = ''N''<sub>A</sub>/''R''. The [[molar gas constant]] ''R'' was already known in 1908 with high precision. Perrin in his first ...'h'' and [[Boltzmann's constant]] ''k''. From the ratio of ''k'' and the [[molar gas constant]] ''R'' Avogadro’s constant could be determined. Planck's estimate was19 KB (2,947 words) - 20:20, 27 December 2020
- |align=left|= [[Molar gas constant|Universal gas constant]] in atm·m<sup>3</sup>/(kmol·K)12 KB (1,812 words) - 10:42, 8 April 2024
- |align=left|= the [[Molar gas constant|universal gas law constant]] = 8314.5 Pa·m<sup>3</sup>/(kmole·[[kelvin|K]19 KB (3,081 words) - 13:47, 12 August 2013
- |align=left|= the [[Molar gas constant|universal gas law constant]] = 8314.5 Pa·m<sup>3</sup>/(kmole·[[kelvin|K]19 KB (3,099 words) - 10:42, 8 April 2024
- ...he order of 10<sup>23</sup>×''k''<sub>B</sub> ≈ ''R'', the [[molar gas constant]]. where ''R'' is the [[molar gas constant]], ''p'' the pressure, and ''V'' the volume of the gas.36 KB (5,928 words) - 10:21, 8 July 2019
- |align=left|= the [[molar gas constant]], 8.314 J '''·''' K<sup> –1</sup> '''·''' mol<sup> –1</sup>15 KB (2,372 words) - 00:31, 28 October 2013
- |align=left|= the [[molar gas constant]], 8.314 J '''·''' K<sup> –1</sup> '''·''' mol<sup> –1</sup>15 KB (2,373 words) - 19:13, 5 August 2018
- ...ssibility factor (gases)|compressibility factor]], <math>R</math> is the [[molar gas constant]], <math>P</math> is the [[pressure]], <math>M</math> is the [[molecular ma14 KB (2,241 words) - 12:26, 26 October 2021
- ...d 6 for a gas of arbitrarily shaped molecules. The quantity ''R'' is the [[molar gas constant]]. For the present discussion it is important to notice that ''U'' is a fun21 KB (3,684 words) - 10:27, 8 July 2019
- |align=left|= [[Molar gas constant|Universal gas constant]]14 KB (2,121 words) - 09:40, 29 June 2023
- |align=left|= [[Molar gas constant|Universal gas constant]]15 KB (2,319 words) - 10:47, 9 September 2023
- ...ulation. The energy of one mole of such gas is 3''RT''/2, with ''R'' the [[molar gas constant]] and ''T'' the absolute [[temperature]]. The entropy of one mole is ''S''(35 KB (5,595 words) - 12:26, 6 September 2013
- ...ulation. The energy of one mole of such gas is 3''RT''/2, with ''R'' the [[molar gas constant]] and ''T'' the absolute [[temperature]]. The entropy of one mole is ''S''(35 KB (5,571 words) - 12:27, 6 September 2013