Chemical thermodynamics

Interactive reference book

Project of chairs Chamistry and electrochemical power engineering and Water treatment and fuel technology of Moscow Power Engineering Institute and Physical chemistry and electro-chemistry of Dnepropetrovsk National University

Authors: assistant professor D. Naryshkin and professor V. Ochkov (project manager)

Last update 02.07.2010

Chemical kinetics site >>>

Look also Chemical departmants' of Moscow State University site >>>

Thermodynamic properties of elementary substances >>>

Thermodynamic properties of inorganic compounds

Thermodynamic properties of hydrocarbons

Thermodynamic properties of oxyorganic compounds

Temperature dependence of equilibrium constant for basic gas reactions

Average ionic activity coefficients of strong electrolytes in water solutions depending on molal concentration at 298 K

Molar electroconductivity of diluted solutions at 298 К

Ionic composition and pH of water at 0-100°C (Formulation IAPWS)

Real atomic and molecular thermal capacities at 10-298 К

Temperature dependence of solubility composition and solubility of sparingly soluble compounds

Maximum molar electrical conductivity of ions in water depending on temperature and molar electrical conductivity of ions in water depending on concentration

Calculation of partial molar quantities >>>

Chemical kinetics summary >>>

Kinetic calculations

Appendix

In development

2Cl₂ + 2H₂O_(g) = 4HCl + O₂	2I_(g) = I_2(g)	CO + 2H₂ = CH₃OH_(g)	CO + Cl₂ = COCl₂	CO + H₂O = H₂+CO₂
2C₂H₅OHg = C₄H₆ + 2H₂O+H₂	2Br_(g) = Br_2(g)	2Cl = Cl₂	2H₂ + S_2(g) = 2H₂Sg	2CO + 2H₂= CH₃COOHg
2CO + O₂ = 2CO₂	2H = H₂	2NO₂= N₂O₄	2NO + O₂ = 2NO₂	2SO₂ + O₂ = 2SO₃
2H₂ + O₂ = 2H₂O_(g)	N₂ + 3H₂ = 2NH₃	N₂ + O₂ = 2NO	C₂H₄ + H₂O_(g) = C₂H₅OHg	H₂ + Br_2(g) = 2HBr
H₂ + Cl_2(g) = 2HCl	H₂ + I_2(g) = 2HI