Derivation Calculate the entropy of HBr at 298 K and 1.00 bar, given that the bond length is 1.41 Å and the masses of ¹H and 79Br are 1.008 amu and 78.92 amu, respectively. The vibrational wavenumber is 2649 cm 1 Step 1 of 7 Provide the equation needed to calculate the translational contribution to the total entropy. (Use the following as necessary: h, kB, m to represent the mass, P, T, and T.) Strans = R In (2πmkBT) h³ KBT (²) (2πmkBT) kBT P h³ P Step 2 of 7 Substitute numerical values into the equation from Step 1 to obtain a numerical calculation for the translational entropy contribution. Strans = 146.211 XJ-K-¹.mol-1

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Derivation
Calculate the entropy of HBr at 298 K and 1.00 bar, given that the bond length is 1.41 Å and the masses of ¹H and 79Br are 1.008 amu and 78.92 amu, respectively. The vibrational wavenumber is
2649 cm 1
Step 1 of 7
Provide the equation needed to calculate the translational contribution to the total entropy. (Use the following as necessary: h, kB, m to represent the mass, P, TT, and T.)
Strans = R In
(2πmkBT)
h³
KBT (²)
(2πmkBT) kgT
P
h³
P
Step 2 of 7
Substitute numerical values into the equation from Step 1 to obtain a numerical calculation for the translational entropy contribution.
XJ-K-¹-mol-1
Strans = 146.211
Transcribed Image Text:Derivation Calculate the entropy of HBr at 298 K and 1.00 bar, given that the bond length is 1.41 Å and the masses of ¹H and 79Br are 1.008 amu and 78.92 amu, respectively. The vibrational wavenumber is 2649 cm 1 Step 1 of 7 Provide the equation needed to calculate the translational contribution to the total entropy. (Use the following as necessary: h, kB, m to represent the mass, P, TT, and T.) Strans = R In (2πmkBT) h³ KBT (²) (2πmkBT) kgT P h³ P Step 2 of 7 Substitute numerical values into the equation from Step 1 to obtain a numerical calculation for the translational entropy contribution. XJ-K-¹-mol-1 Strans = 146.211
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