Abstract:
The thermodynamic limit for the partial distribution functions is considered on the basis of
Bogolyubov's generating functional method. For one-component systems of hard spheres
with binary interaction whose potential at large distances decreases faster than r−312, it is shown that the limit generating functional of the grand canonical ensemble, and when certain
“stability conditions” are satisfied, of the canonical ensemble as well: 1) exists in the
whole interval of states of the thermodynamic system; 2) defines limit distribution functions;
3) satisfies Bogolyubov's functional equation; 4) can be expanded in a convergent functional
Taylor series.
Citation:
G. I. Nazin, “Limit distribution functions in classical statistical physics”, TMF, 21:3 (1974), 388–401; Theoret. and Math. Phys., 21:3 (1974), 1223–1233
This publication is cited in the following 8 articles:
G.I. Nazin, A.F. Njashin, “The Bogolubov equation and the vlasov equation in equilibrium classical statistical physics”, Reports on Mathematical Physics, 21:1 (1985), 79
N. S. Kasimov, G. I. Nazin, “Projection method of solving the Bogolyubov equation for the generating functional in classical statistical physics”, Soviet Physics Journal, 27:4 (1984), 342
G. I. Nazin, “Method of the generating functional”, J. Soviet Math., 31:2 (1985), 2859–2886
G. I. Nazin, “Topological structure of the family of solutions of the Bogolyubov equation”, Theoret. and Math. Phys., 42:2 (1980), 159–166
N. V. Glukhikh, G. I. Nazin, “Equivalence of Gibbs ensembles and the problem of phase transitions in classical statistical physics”, Theoret. and Math. Phys., 38:3 (1979), 276–278
G. I. Kalmykov, “Thermodynamic limit for a classical system of particles with hard cores”, Theoret. and Math. Phys., 36:1 (1978), 617–623
G. I. Nazin, “Integrodifferential equations for partial distribution functions in classical statistical physics”, Theoret. and Math. Phys., 27:3 (1976), 533–538
G. I. Nazin, “Limit distribution functions of systems with many-particle interaction in classical statistical physics”, Theoret. and Math. Phys., 25:1 (1975), 1029–1035