What are some applications of microfluidics involving gases?

p2V n. 2 V 1−n. 2. - p1V n. 1 V 1−n. 1 n - 1. = p2V2 - p1V1 n - 1. = R(T2 - T1) n - 1 where the last equality follows from the ideal gas law pV = RT and our ... The gas constant (R) is (atmospheres x liters)/ (moles x Kelvin). Temperature (T) is measured in Kelvin. What is the R in PV nRT? The R is the ... Ideal gas law: pV = nRT = mRT/M g. Universal gas constant R = 8206 Pa L/(mol K) = 8.314 J/(mol K) = N a k. B. Avogadro's number N. A. = 6.023x1023. Boltzmann ... The ideal gas law (in terms of moles) is PV = nRT. The numerical value of R in SI units is R = NAk = (6.02 × 1023 mol−1)( ... PV = nRT. R= 0.0821. L⋅ atm. K⋅ mol. Ideal Gas Law Problems. Use the ideal gas ... (1.1195atm) (2600L) = n (0.0821 x mol )(328K) ;|n = 107.8mole. A toy ... P = n (RT/V). At constant temperature and volume the pressure of a gas is ... once again R and n have not changed, and now not even T has not changed so ... PV = nRT. Brings together gas properties. P*V is Proportional to T. Page 3. Ideal Gas Equation. P V = n R T. Universal Gas Constant. Volume. No. of moles. ... PV = nRT. ⇒ R = P V n T. Where,. P is the pressure of the ideal gas. V is the volume of the ideal gas. T is the temperature. n is the number of the ideal gas. ... (n). The mathematical form of the Ideal Gas Law is: PV = nRT and n = m/MW. Where: P - pressure. V - volume. n - number of moles. T - temperature. m - mass. MW ... Aug 3, 2011 ... The ideal gas law is: pV = nRT, where n is the number of moles, and R is universal gas constant. The value of R depends on the units ...