Cita:
Díaz, B., & Ramírez, J. E. (2020). Adiabatic lapse rate of nonideal gases: The role of molecular interactions and vibrations. Physical Review E, 102(4). https://doi.org/10.1103/physreve.102.042107
ISSN:
1539-3755
DOI:
10.1103/PhysRevE.102.042107
Agradecimientos:
B.D. and J.E.R. are supported by a Consejo Nacional
de Ciencia y Tecnología postdoctoral fellowship (Grants
No. 371778 and No. 289198). The numerical calculations
and plots were carried out using Wolfram MATHEMATICA 12
We Report A Formula For The Dry Adiabatic Lapse Rate That Depends On The Compressibility Factor And The Adiabatic Curves. Then, To Take Into Account The Nonideal Behavior Of The Gases, We Consider Molecules That Can Move, Rotate, And Vibrate And The InformatioWe Report A Formula For The Dry Adiabatic Lapse Rate That Depends On The Compressibility Factor And The Adiabatic Curves. Then, To Take Into Account The Nonideal Behavior Of The Gases, We Consider Molecules That Can Move, Rotate, And Vibrate And The Information Of Molecular Interactions Through The Virial Coefficients. We Deduce The Compressibility Factor In Its Virial Expansion Form And The Adiabatic Curves Within The Virial Expansion Up To Any Order. With This Information And To Illustrate The Mentioned Formula, We Write The Lapse Rate For The Ideal Gas, And The Virial Expansion Up To The Second And Third Coefficient Cases. To Figure Out The Role Of The Virial Coefficients And Vibrations, Under Different Atmospheric Conditions, We Calculate The Lapse Rate For Earth, Mars, Venus, Titan, And The Exoplanet Gl 581d. Furthermore, For Each One We Consider Three Models In The Virial Expansion: Van Der Waals, Square-Well, And Hard-Sphere. Also, When Possible, We Compare Our Results To The Experimental Data. Finally, We Remark That For Venus And Titan, Which Are Under Extreme Conditions Of Pressure Or Temperature, Our Calculations Are In Good Agreement With The Observed Values, In Some Instances.[+][-]