Andrey G. Kabo
Belarusian State University
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Featured researches published by Andrey G. Kabo.
Thermochimica Acta | 2000
Gennady J. Kabo; Andrey V. Blokhin; M.B Charapennikau; Andrey G. Kabo; V.M. Sevruk
Thermodynamic properties of adamantane (I) were investigated in this paper. Heat capacities of I in the condensed state between 340 and 600 K were measured by a scanning calorimeter of triple heat bridge type, and characteristics of the fusion of I were determined. The measurements of the enthalpy of sublimation and the saturated vapor pressure for I were made. Thermodynamic functions of I in the ideal gas state were calculated by the statistical thermodynamics methods. The energy states of molecules in the plastic crystals for some cage hydrocarbons (adamantane, bicyclo[2.2.2]octane, pentacycloundecane, heptacyclotetradecane and diamantane) are discussed.
Journal of Physical Chemistry B | 2009
Yauheni U. Paulechka; Andrey G. Kabo; Andrey V. Blokhin
The enthalpy of the 1-butyl-3-methylimidazolium bromide [C(4)mim]Br ionic liquid synthesis reaction 1-methylimidazole (liq) + 1-bromobutane (liq) --> [C(4)mim]Br (liq) was determined in a homemade small-volume isoperibol calorimeter to be Delta(r)H degrees (298) = -87.7 +/- 1.6 kJ x mol(-1). The activation energy for this reaction in a homogeneous system E(A) = 73 +/- 4 kJ x mol(-1) was found from the results of calorimetric measurements. The formation enthalpies for the crystalline and liquid [C(4)mim]Br were determined from the calorimetric data: Delta(f)H degrees (298)(cr) = -178 +/- 5 kJ x mol(-1) and Delta(f)H degrees (298)(liq) = -158 +/- 5 kJ x mol(-1). The ideal-gas formation enthalpy of this compound Delta(f)H degrees (298)(g) = 16 +/- 7 kJ x mol(-1) was calculated using the methods of quantum chemistry and statistical thermodynamics. The vaporization enthalpy of [C(4)mim]Br, Delta(vap)H degrees (298) = 174 +/- 9 kJ x mol(-1), was estimated from the experimental and calculated formation enthalpies. It was demonstrated that vapor pressure of this ionic liquid cannot be experimentally determined.
Journal of Chemical & Engineering Data | 2010
Yauheni U. Paulechka; Andrey G. Kabo; Andrey V. Blokhin; Gennady J. Kabo; Marina P. Shevelyova
Thermochimica Acta | 2008
A.A. Strechan; Andrey G. Kabo; Yauheni U. Paulechka; Andrey V. Blokhin; Gennady J. Kabo; A.S. Shaplov; E.I. Lozinskaya
Journal of Chemical & Engineering Data | 2011
Andrey V. Blokhin; Olga V. Voitkevich; Gennady J. Kabo; Yauheni U. Paulechka; Margarita V. Shishonok; Andrey G. Kabo; V.V. Simirsky
Journal of Chemical & Engineering Data | 2007
A.A. Strechan; Yauheni U. Paulechka; Andrey G. Kabo; and Andrey V. Blokhin; Gennady J. Kabo
The Journal of Chemical Thermodynamics | 2008
Ala Bazyleva; Andrey V. Blokhin; Andrey G. Kabo; Gennady J. Kabo; Vladimir N. Emel’yanenko; Sergey P. Verevkin
Thermochimica Acta | 2006
Ala Bazyleva; Andrey V. Blokhin; Gennady J. Kabo; Andrey G. Kabo; V.M. Sevruk
The Journal of Chemical Thermodynamics | 2010
Gennady J. Kabo; Yauheni U. Paulechka; Andrey G. Kabo; Andrey V. Blokhin
The Journal of Chemical Thermodynamics | 2003
M.B Charapennikau; Andrey V. Blokhin; Andrey G. Kabo; Gennady J. Kabo