SCIENTIFIC ABSTRACT GRIGORYEV, V.I. - GRIGORYEV, V.,M.

Document Type: 
Document Number (FOIA) /ESDN (CREST): 
CIA-RDP86-00513R000516820003-6
Release Decision: 
RIF
Original Classification: 
S
Document Page Count: 
100
Document Creation Date: 
January 3, 2017
Document Release Date: 
July 27, 2000
Sequence Number: 
3
Case Number: 
Publication Date: 
December 31, 1967
Content Type: 
SCIENTIFIC ABSTRACT
File: 
AttachmentSize
PDF icon CIA-RDP86-00513R000516820003-6.pdf2.11 MB
Body: 
P11967 Relation Between the Matrices of Various S/056/60/039/003/053/058/Xx Transitions and Multiple Processes B006/BO70 that a large number of bosons are producedl all the bosons have about the same energies. On these assumptions, the equation for the matrix V(ON,22) is set up according to formula (2), and the solution obtained is discussed. The authors thank Ye. L. Feynberg and D. S. Chernavskix for valuable comments. There are 6 non-Soviet references. ASSOCIATION: Moskovskiy gosudarstvennyy universitet (Moscow State University) SUBMITTED: April 18, 1960 Card 3/3 J1 Iulo S/18 62/000/003/005/012 Bill 112 YB AUTHORS: Vavilovo B. T., Verdiyevq I. A., Goncharoval N. G., Grigorlyevp V. I., Meledin, G. V. I ITLE t Quantum field theoretical investiCation of multiple processes P'ERIODICAL: Moscowo Univeraitet. Vestnik. Seriya III. Fizika, astronomiya, no- 3, 1962, 46-59 EYT : Multiple production of n-mesons in n-N,y-N, N-11, and r-n collisions is studied and the corresponding graphic renormalization equations are given. The mathematical structure of the theory is similar to that of the Tamm-Dankoy method. It differs only in that the.infinite system of equations does not break off, but a solution being reached through a reduction of the proPagation function and on other assumptions. Ptoceeding from the Tomanaga-Schwinger equation 1 -0 U HWU 6o 0,0 '1 1 01 oj where U U(ij,rim,kl) Card 1/5 ca'a 01 ij,nm k1 16'a oj .'J/188/62/000/003/005/012' Quantum field theoretical... Bill/B112 (ij,nm,kl) U is the transition matrix for a graph with i, n, k incowing, and J, m, 1 outgoing boson, fermion and antifermion lines, respectively. For U~'J;nm) it is established that tog 03 If cp,) d4z U (P.) P1 04) X Nun 1-1 4.1 P. + P, - P4)], (4), X Q11.RM) C.XP liz ( " - E N - Y. 4-1 f'jlrtm) is a coefficient function,for the individual collisions, ,rhere Q Its determined from the graphs. This method offers the advantage that summation does not necessitate all Graphs being written explicitly ai in the perturbation theory. Since a closed solution is impossible, the procedure is simi,lified by disregarding the production of nucleon- antinucleon pairs in the intermediate and final states, disregarding spin effects, and assuming low energy in the mesons produced. In addition, scalar and pseudoscalar mesons with scalar interaction are Card 2/5 r B111 112 ,Uantwn f i old theoreti cal . . . % studied. Following the determination of R (ij,nm) for the n-N, j-N .collisions the probability n W. n1 (2r)l S IPP -P*i jQ(1R.11)1,x 2EP 2k~j 'S a (E-, + k., (P + ki) is obtained by insertion into (4) where ptk i is a four-momentum of the final particles. The integral in (8) is the "ceneralized phase integral" which, for N-N and n-n collisions has similar shape. Its calculation is illustrated for n-N collisions. For N-N collisions, similar considerations as for n-N collisions, give W '_ (gm) 2n n/2 ( n. n 2%A2 Card 3/5 nl(z-i) 2n-1 )112 (2n - 1)1 ((n + S/18 62/000/003/005/012 S/188/62/000/003/005/012 quantum field theoretical... B111/B112 where z For n-n collisions the interaction Is brought about by a m 4 nucleon-antinucleon pair (a term T being added in the intt~raction Hamiltonian). If meson scattering only is considered, this influences the multiplicity only slightly. The angular distribution tend.3 to higher isotropy in the presence of meson interaction. For the angular distribu- tion of relativistic mesons in N-N collisions dn(G),,, 1 and for the dg 9in3~ energy distribution M2 k 2 2 2 2 + 1n k + t.. dk 2 4k 1,3 k) Summary of the results for multiplicity: Card 4/5 quantum field theoretical ... nN-Af (g M (Z". z 3 1. 2m n- X~4 9.1. ( M 4 Ell 21A Ec Ec 21L 1- 2,, S/18 62/000/003/005/012 B111YBI12 No qualitative agreement could be found between the iormulas and the experiment. There are 5 fiEures and 1 table. ASSOCIATION: Kafedra elektrodinamiki i kvantovoy teorii (Department of Electrodynamics and Quantum Theory) SUB:.;ITTF,D: July 16, 1961 Card 5/5 GEUGORIYEV 11 1 - SIDOROV, N.A. Determining the permissible internal presmire in casings. Neft. khoz. 41 no.2:25-29 F 063. (MIRA 17: 8) ACCESSION NR: AP40437" S/0188/64/000/004/0056/0061 AUTHOR: GrIgorlyev, Vo 1. TITLE: Broadening and shift of energy levels SOURCE: Moscow. Universitato Vestnik. SerlYa 3. Fizlka, astronomiya. no. 4. 19(A, -61 56 TOPIC TAGS: energy level, perturbation, renormallzation, quantum theory*0- boson, fermlon ABSTRACT: The problem of the broadening and shift of energy levels of a system I subjected to the Influence of perturbations has been considered In many papers. In this article an attempt Is made to develop an approach suitable for the study of processes with an arbitrary number of particles In the Intitial and final states. There Is also a discussion of how the remormalization method can be used for eliminating discrepancies. The conditions for determining the renormalization constants are written In the form: 1/5 ACCESSION NR: AP4043799 where V -.#'* 0, that Is, In the absence of an external field, where I > Is a single- boson state vector and I > Is a single-fermlon state vector. Before writing ex- press I ons f or the sh If t and broadeni n9 of energy I evel s the author cl tes T'f V Jul W.C. [al. (2) whe re Yn is the full set of state vectors (with quantum numbers denoted by the single letter n) In the absence of perturbation .0. (3) Using the orthonormal character of the system Vn It Is possible to write equations for Cn (4) + C. W., Col. 60 IN) fit) + C., + (X) V~. ce 60 (A). riCc,d, 2/5 ACCESSION NA., AP4043799 with the Initial conditions C. (d.1 C Is rewritten (when n A n) In the form n C. (01 101 C. 101. (6) Substituting this into (4) it is found that the formal (K /-cr7 has not yet been found) solution has the form (7) of *gift where x1 Is a point of four-dimensional space-time lying on the hypersurface d'. so pent there will be the T product of the operators entering Into that in the !x ir(xl) and Kn C Is easy to relate to the S matrix. In actuality, since 7 n S (Vogl T (001 (8) .It Is easy to show that and since In "scattering typeP prob Isms vrqv -Y"o ACCESSION NR: AP40437" C. lei V: S (0,V91 T,%. This makes It possible to rewrite C. In a convenient form: X') S to, eel V _-,>. (10) C801 exp