SCIENTIFIC ABSTRACT SHORIN, K.N. - SHORIN, V.A.

• Document Type: CREST
• Collection: Scientific Abstracts
• Document Number (FOIA) /ESDN (CREST): CIA-RDP86-00513R001549910005-7
• Release Decision: RIF
• Original Classification: S
• Document Page Count: 100
• Document Creation Date: November 2, 2016
• Document Release Date: August 9, 2001
• Sequence Number: 5
• Publication Date: December 31, 1967
• Content Type: SCIENTIFIC ABSTRACT

SHORINY K.N.
Method of controlled motion of a particle beam in an accelerator.
Prib. i tuekh. eksp. 9 no.4:25-27 J1-Ag 164. (MIRA 17:12)
1. Fizicheskiy institut AN SSSR.

L 382o6_66 EWT(m) IJP(c)
ACC NR, AP6022029 SOURCE CODE: UR/0120/66/000/003/0190/0192*
AUTHOR: Artemlyeva, Z. L.; Shorin, K. N.
A
ORG: Institute of Physics, All SSSR, Moscow (Fizicheskiy institut AN SSSR)
TITLE: Method for enhancing the efficiency of magnetic shielding
SOURCE: Pribory i tekhnika eksperimenta, no. 3, 1966, 190-192
P
TOPIC TkGS:.-magnetic shiQldi-T ig hyWteresisTbnn electron accelerator
ABSTRACT: The results 'e reported of an investigation of shielding the accelerator
tube from the Earth magnetic field by hYsteresisless soft-steel torus-rings.
In a model study, 10 rings of 260 mm diameter had a shielding
.Lactor of 1.65-2.0 when the constant field was held within 0.4-3.5 oe; when a
strong damping-amplitude a-c field was added (the hysteresisless magnetization),
the shielding factor increased to 20-14. In the experiment; a 2.2-m
long accelerating tube with an initial electron energy of 5-8 kev and final energy
of 600 kev was shielded by the steel rings which reduced the transverse Earth-
magnetism component of 0.45 oe down to 0.02 0e (except for the edges where the field
was 0.1 oe). Orig. art. has: 3 figures. (031
0 9
SUB CODE: 09 SUB11 DATE: 10Xar65 / ORIG REF: OOY ATED PRESS:L5' 0 1

2 5,'~ ') - - I. ~ T7' 7'
a
- ..-* ~no I
i er-, -, -affel Inaya sv-~-rka st-d ln-,,r~---h provodov Voen. sv:jazi st, 19,18,
1 T
.;o. 7, s. 4?-45.
S) : I otlo.rdst Zhurnal Stuntey, No. .10, '-Loscour, l-,)48

BREYTBART, A.Ya., redaktor; SHORIN, N.A., redaktor; URAWVA, A.N.,
tekhnicheskiy redaktor"'---'
[Electronic time measurements. Translation for the Nnglish]
Lampovye ekhemy dlia 12mereniia vremeni. Perevod a angliisko-
go. Fbd red. A.IA.Breitbarta. Xoskva, lzd-vo *Sovetskoe radio.0
Vol. 1. 1951. 287 P. (MIRA 8:2)
1. Massachusetts Institute of Technology.. -Radiation Laboratory.
(Time measurements) (Electronic apparatus and appliances)

IBUNIMOVICH, Y.I.; SUORIN, N.A., redaktor; URAZOVA, A.N., tekhnicheskiy
Teiaktor. --- -
[Fluctuation processes in radio receivers] Fliuktuatsionnye protsessy
v radlopriemnykh ustroistvakh. Moskva, Izd-vo "Sovetskoe radlo,f 1951.
360 p. [Microfilml (MUM 7 - 12 )
(Radio--Receivers and reception) (Electron tube circuits)

VAYNSHTEYN, L.A.; SHORIN, N.A., reduktor; URAZOVA, A.K., tekhnicheskiy
redaktor
[Diffraction of electromagnetic and sound waves at the open and
of a wave guide] Diffraktaiia elektromagnitrqkh i zvukov7kh voln
na otkrytom kontse volnovoda. Moskva, Izd-vo "Sovetskoe radio,"
1953. 203 p. [Microfilm] (MLRA 7:10)
(Electric waves) (Sound waves)

SIVERS, A.P.; MIORIN. N.A., redaktor; URAZOVA, A.N., tekhnicheskiy
red,aktor. -- -- --
[Radar. calculation and planning] Radiolokatsionny'a priamniki;
raschet i proektirovanie. 2 izd. Moakva, Izd-vo *:Sovetakoe ra-
dio.6 1953. 359 P. (MLU 7:8)
(Radar)

NAUMINKO, Ye.D., redaktor; SHORIN, Njk., redaktor; KORUZXV, N.H., takh-
nichaskly redaktor.
[Raflax klystrons. Translated from the English] Otrazhatellnve
klistrony. PareTod a angliiskogo.-Moakvi. Izd-vo *Sovetskoe radio."
1954. 251 p. (MLEA 8:2)
(Amplifiers, Electron-tube)

DAVTDOV, Grigoriy Borisovich; TAFT, V.A., otv.red.; SHDRIN. N.A., red.;
KARABILOVA, S.F., tekhn.red.
I
[Fundamentals of the theory and analysis of phase-correcting
circuits] Osnovy teorii i rascheta fazokorrektiruiushchikh
tsepei. Moskva, Gos. izd-vo lit-ry po voprosar sviazi i radio,
1958. 292 P. (MIRA 11:12)
(Electric networks)

IS H 0 t~j N' N - f),
YEMEL'YANOV, V.S., otv.red.; BARDIII, I.P., red.; VINOGRADOV, A.P., red.;
GOLIDANSKIY, V.I., red.; GULYAKIN, I.Y., red.; WLIN, P.I., red.;
Y9F1Ufl4DV, D.V., red.; KRASIU, A.K., red.; LEBEDIIISKIY, A.V., red.;
MINTS, A.L., red.; 140111, A.N.. red.; NIZE, V.E., red.; HOVIKOV,
I.I., red.; SEHOOV, V.F., red.; SOBOLEV, I.N., red.; BAKBAROVSKIY,
G.Ya.; nauchn" red.; BERKOVICH, D.M., nauchnyy red.; DANOVSKIY,
N.F., nauchnyy red.; DELONE, N.N., nauchny-y red.; KON, M.A.,
nauchW red.; KOPYLOV, V.N., nauchnyy red.; MANDELITSVAYG, Yu.B.;
MILOVIDOV, B.M., nauchnyy red.; MSTOVENKO. N.P., nauchnyy red.;
MURINOV, P.A., nauchnyv red.; POLYAKOV, I.A., nauchW red.;
PREOBRAZHETISKATA, Z.P., nauchnyy red.; RABINOVICH, A.M., nauchnyy
rod.; SIMKIN, S.M., nauchnyy red.; SKVORTSOV, I.M., nauchnyy red.;
SYSOYEV, P.V., nauchnyy red.; nauchnyy red.;
SMTB~RG, G.L., nauchnyv red.,; SHTEYNMMI, R.Ya., nauchnyy red.;
KOSTI, S.D., tekhn.red.
[Concise atomic energy encyclopedia] Kratkaia antaiklopediia
"Atomnaia onergiia.11 [ Tables of.isoto~es (according to'published
data avAilable at the beginning of 1958)] Tablitsa Izotopov-(po
dannym, opublikovannym k nachalu 1958. 12 p. Gos. nauch. izd-vo
"Bol'--baia sovetskaia antsiklopediia,u 1958. 610 p. (WRA 12:1)
1. SotrudnikiBallsboy Sovetskoy Intsiklopedii (for Bakharovskiy,
Berkovich, Danovskiy, Delone, Kon, Kopylov, Mandelltsvayg, Milo-
vidov, Mostovenko, I/Airinov, Polyakov, Preobrazhenskaya, Rabinovich,
Simkin, Skvortsov, Sysoyev, Shoria, Shrejrberg, Shteynman).
(Atomic energy)

MAKARVIC9, SA14; SHORIN, N.A.
Electronic digital computers. Priborostroenie no.10:24-26 0 160.
(MM 13:11)
(Electronic digital computers)

3"10TZI,-T, En-r-Lt Col
I
Author of article, "The Histor~,- of the DeveloFment of Small Arms ArTr-unition
in Russia." OPI, No 1, 1955)
SO: Krasnaya Zvezda, Sun #450, 11 AI--r 55

GUATOVSEIY, Hikolay Ivanovich, dotsent, kand.tekhn.nauk, inzh.-polkovnik;
SHORO, Pavel Aleksandrovich, inzh.-podpolkovnik; VILtCHINSKIY,
I.K., red-,13olkovnik; STRELINIKOVA, M.A., tekhn.red.
[Evolution of small arms in Russia] Istoriia rzvitiia ote-
chestvennogo strelkovogo oruzhiia. Moskva, Voen.izd-vo M-va
obor.SSSR, 1959. 247 p. (MIRA 12:9)
(Firearms)

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00-
The wolding of the hard allay Surntalt W u-I'll- h-I *0
politts with the use of the oftyscetylene "Ame. 1'. 1
Shorin. Artrrnnoe Pelft 8, NJ). 11), 30(110;;7); C*he-
00 AlI ZpxIr. 1938, 11, Z345- fit ortler to incrcu5c the rcnktami- -00
I., vat If l1wellille-f-I I.A111. 1-74"M ",mmil i~ W, I'l. 1-00
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ing in oil after a retention period of I min.; and annealing
(or I hr. at MP with cooling in air. If the Rockwell C
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should be reptated further to inaraw the bardnrvs. Cy-
0 0 tni(lcd drills with the caving %how a Rtwkwell C hardn-
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trodim, (In AURSIAII.)
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irt article gives details of the preparation and
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constituents of the above electrodes. Applications
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and advantages over other typea a
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TA 12T73
USSR/Welding - Cast Iron Jun 1947
Welding - Electrodes
"Cold Welding of Cast Iran by Combined Elactrodes,"
P. I, Shorin, 3 PP
"Vestnik 14ashinostroyeniya" Vol XXITII, No 5
Illustrated vith photographs a-rid cross sections.
Describes process with Mark 1, 2 and 3 electrodes.
12T73

I-ITLT TOE
(T
ln u.~.3 a1ii. brief cl!Dsaription -3
inr-- 4-he var at
torchtis. davolap3d dar _ ~ -L
for autVf-ng mm-tal 50 to 4.a.0 nn.
cl- o--Pygan nuirl
Cu. m W. reslmative3'v.
8-52 vml 0.
irmazodiato source clir -ng
qgi 1-7

clHORIJI, P. I., Di.gr
F., 167T51
USSR/Engineering - Boilers.* Welding Jul 50
"Devices for Automatic Welding of a Locomotive
Boiler," P. I. Shorin, Engr
"Avtogen Delo" No 7, pp, 25-27
Describes several types of tilters used in boiler
making in combination with welding machines.
Tilter permits 3600 turns of bulky heavy pieces and
eliminates use of bridge cranes. Describes flux-
holding devices to.keep gap between edges of parts
to be welded filled with flux, thus preventing leak-
age of molten metal during automatic welding pro-
cedure.
JIM 167T51

SHORIN,P.I., -inzhener
--1:- "',
Welding a steam engine cast iron cylinder of a rolling mill.
Svar. proizv. no.2:27-28 F '55. (MI-RA 8:9)
(Steam engines--Cylinders) (Cast iron--Welding)

18M SOV./117-50-2-20./27
AUTHOR: Shorin. P.I.
TITIJE: Repair of Castings by Welding-Up (Ispravleniye
otlivok zavarkoy)
TPEIRIODICAL: Mashinostroitell, 1959, Nr 2. pp 34-7106 (USSR)
13STRACT: The author describes the reDair viork done on defec7
tive cast iron castings conducted by the Kolomenskiy
zavod Y --I. ". -1 i- - -I- Plan-~-) im eni Kuybyshev, with the
of cold and hot arc welding using copper-
steel electrodes,. copper-riickel electrodes, iron-
nickel electrodes TsCh-3, cast-iron electrodes GOST
2671-44, and hot mielding-up with the use of gas and
added cast iron. The article contains a table show-
ing what welding method is applied to which defect.
Repair work on defective castings saves the plant
over 3,000,000 rubles a year. There are 4 diagrams,
2 uhotos and 1 table.
Card 1/1

Restoring stressed cast iron diesel engine parts. Llt.proizv.
no.1008-39 0 164. (K-LFA 18-'4/1

SPOilIN, Pavel Matveyevich, inzh.; YER&BI, N.I., red.
[The second life of machines] Vtoraia zhizn' mashin.
Ullianovsk, Ullianovskoe knizhnoe izd-vo, 19611. -92 p.
(MIRA 18:4)
1. Zamestitell nachallnika otdela glavnogo rekhanika i
energetika Ullyanovskogo sovnarkhoza, Ullyanovskaya
oblast! (for Shorin).

I I - -0 1111111,11bu 0,11 Ital va nun I'Djon 1* 11 1 q I,
A A E 0 L -1 FA - A- J. L. L 0 It A I I W I A I t AA 04 1A W it 4 0

pr.9va taking piece in the combustion chamber with jsWW

-4
S
in a state dauspension
N St I T kA
s"'stl
lvu 1933
"' P"
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~
.
,
y
13-19
No
-Tbe following stages are dtALW comhu5tion
1he
3
rocess of solid
.
.
,
p
fuel In couilmstion chambers of furnams: amAynamics of smqpcnded particles; kinetics
in the adjacent layer: heat load of comImstion cbsimberi. A few diagrams are given.
A, A. Boximmox -6
4 Th d namicsoicandmtimatwUdfu*ISLUEUP"RIW-
-
No. 2
1933
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SHORIN, S. N.
SHOFIN, S. N.
Izvest. Teplotekh.
Refera t. Zhur. _4,
The heat capacity
calculations.
Inst. 1940, No. 9, 27-30; Khim-
No. 5, 21, (1941)
of flue gases from spectroscopic
CA: 37-5570/7

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(in RussiAn.) C. L Pokak and S-_~ ~.Wriu- I-C
'

-%kael(viii Nauk SSSR -tin of the Arallell
(Built

*0 o
i ~:ienc" of the USSR), SmAiou of TeAnival Svil
Dee. Mg. P. 1912-IF47.
0 '5 Prupowq a formulzit for valcuLition of the a
Pn,,ciplvI of this new ult-thott art- thorou -itly
n
1 %;I
lyzeti. E"rimental invesligatiom tolifirm
so la (it tile formula'.

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11440 - 's 19 0 0 so *iiiiese,o 0 0 e. 9 06 0 go 0 * Z & 0 * 0 0 0 o 4

SSR/Fuei - Combustion ju~l
U' Thermodynamics
F
"Role of Radiant Energy in Combustion Processesp"
r S. N. Shorin, Power Eng Iast imeni Krzhizhanov-
skiy, Acad Sci USSR
"I-- Ak Nauk, Otdel Tekh Nauk" No 7, PP 995-1015
Comparison of distribution of radiant and kinetic
energies between vectors and element of volume
shows that high-energy photons possess consid-
erably greater statistical weight than gas mol-
ecules of same energies. Probability of photon
activation of burning mixture proves considerably
162T41
USSR/Fuel - Combustion (Coatd) Jul 50
higher, for suitable conditions, than probabil-
ity of activation for colliding molecules.
GIves equation of speed of flame propagation
for the case of photon activation of molecules.
Explains flameless combustion of gas. Shorin
was advised by Acad M. V. Kirpichev and Prof
G - L. Polyak. Submitted 21 Apr 50 by Acad
M. V. Kirpichev.
410 162T41

4o
Heat Exch~Eae~bv Radiation in the Presence of an Absorbing
___TWedium
fix S. N. S110J11N (Froln In"e5liYa Akadeini Sauk, No. 3, 1951, pp. 389-400, 1) Illustrations)
The author fitiredisces the eyttotiotis ri radiation in space in a vcry Septeralforni. lapgoly barrawed from
'-J~ ~'i , III sirupitfled form, these e4tiations catt be applied to the rarfia(ioft practis itt indiattial
-Sit"
mher Prilreises tj' hear exchayWe imist be considered in addition, I he theory Isap"IM77
of Iteat in a jitnpl~fied furnace model tonjistitig of a ptane-parallet laver of
Mrvhtg, ahfo-t-bbig meditan bet'.veen a raNazing surface and a coating 11irface. Finalk)., ana~yt;cal resuht
are zompared rvith euipirical Inethods to evalualt heat tranimimion in
titim exchange by tadiation in the, combustion chambers mos c0 ex a sorption distinguishes the
of. boilers and furnaces usually takes place in the ascous components of the flue gas, such as CO, and
ence of a burning, radiating, and moving medium. f1,0. Although the absorption spectrum of these
f
illelpencral, this medium consists of the gascous sub- gases hai bten stu led a long tirric ago, data on the
s"I"Ce,
CO,, 14,0, SO,, 0,, as well as 11, CH, C~Hta frequency distribution of absorption coefficients are
a I wi r diluted with I parts of nitrogen (by volume). incomplete and the determination of the integral
Vurt , rolorc, according to the nature of the fuel and the absorption is greatly complicated by a strong selective
mcthod k;t it, combustion, the flue gat mity.friclude effect. The flarne of tar-containing fuels (incandescent
adtnixture~ of I;olid fuel particle, such as lar and ash. flarsic) and the combustion products of coal full of soot
Vach individual component of thc floc gm In a tviler or and carbon particles huc a weak selective effect,
furnace poswmc!i it-, characteristic properties of In this paper, we do not deal with the determination
radiation absorption. fabsorption cocificicrits of the different components of
he heating medium, nor with it-, tout aliwiption, but
are concerned first with the foundations of the theory
of heat exchange by radiation in an absorbing medium,
and subsequently discuss some (if its applications.

The boundary condition At x I can -b,e expressed In the
following form (ice eq. (5))
4
4 1, Ila, - I
where
n' dd
(jM._I 40.y
x
T
and
'40 ;
10 d so
d~tU) - .411 - I I
-- - :
dx dx k dxi
Cirrying out'llic differentiation and sUbstitutinn, we
11" r7,'
2 4
'I'lir hcat tran,missinn by radiation -it 111c houndiry
is vxprcssrd by
(r1j), I
or (12)
where c I . I
+
(13)
Ra, 2 R 4117"
+
or sit a: - 2
'0" Aaj - 2)
at z G-6 'or at as 2
A a,
0 an' fill t
Hit;,~ckb
d he nominal
enlisslvl .1~ c J;bILnds on Parameter
ai.
n- The minimum value of it,-obtained at 11" 2
!t
iA Vco..S' f'JA
or A at ~ Il, emin 1133
vind at a, ~- 0-85, 1 08
Tatl1c I gives the vidues of thr 11"ll."lat cv~~Ilivicnt of
cruissivity c for different vibscq of par -.,n( ter If

of the -su`bs-fi_tu_ti_o_n~f the of
the equitien of beat transmission
q W, - 00
we find thaE
(08 - 0.)
AB
Vor a stationary inctlium in tWlitinc-
parAlet layer, the:11(frainker It 0 and
Ailt
Resolving the indeterminateness (0/0) of
expressions 1 and, B thus obtained, we find
that
I
I and R ~~ k1 -
C, Ad, 2
As a result oJ the substitution intrithe eq. (18) of
,he values for A alld B at 11 0 lve obtain
q (19)
kf
cs 2)
V_
lFhe __ -same - ex-pression for hear transferrW y
radiation with a stationary absorbing medium was
obtained in 1940 by 0. L. Polinkoff.
In the case of i non-absorbing mediurn In the plane-
parallel layer ki vitnishes and, therefore,
0,-0,
(20)
at a,
In other wordso we obtain the well-known equation I
of beat exchatiRe by radiation between two hu&s with
plane-parrallel surfaces.
Figs. 2 and 3 show familics of curvcN representing
the tern t I c 7' a a funetion of kx in,a pLine- i
tie, ! h
Para ayer in t c two Ca,1S of a stationary and a
moving medium at kf - 0
It -is seen that in;the' ca5cs of a stationary and a
-p.
moviag medium in the plane iralld layer, a tetrillicra
tum step exists at the radiating, surface, the magnitude of
pit oil' h.-at tran.MliUctl and
wld h, dic cilds on thelarliou
t lcv c
I Sp cy tit which it c medium in,ovc,, f panonclerfl).
With all incrc.i,e in file ~ilct-d tit the inctlitim, thc

F. uming, the right-hand ~idcs of cq5. 6) and (21),
pl~min an cqu.1tion for the determination of the
11 1" I,cr,~turc of the produc" of combustion at the
loill,oing, %urfacc~
P 4
0, (22)
I., e4 W/ - I
III 111C sanic wav, 11-C obtain on C(Illition for the
ion t it'll ~f tile terurcrature nt the vroducts of
comb Pustion at the mcliation-abiotbing %urface
v, (c, t, - C, t,
) ~. f (a 02) (23)
F,
introducing the mean %tEcific heat of The products
of combustion in accordnn'ce with the equation
C,1, c,1,,
cjt, c, 1, --1 r, I" or c,
cq-, (22) and (23) can b~ transformed into the following
top
tton-dimcn~ionnl forn: Pig. 3. Temperature diltribution In a moAng absorhinsr'
M.dlum,
K,.
7- Y
1r, - , and 01
T, T, 7"

..........
E 'T NSMISSION IN BOILER
3. IIEAT RA FURNACES
I
The solution (if the problem discusqed above of licat
exchange by radilticm betweca two bodies with parallel
StLrfdCCS iti the presence of -a radiation-abstirbing
mediont ticEivecti ilicst: surfaces which JnOVCS JOW:19Lk
th-, radiation-absorbing surface, can be applied to thr
calculation of hear transmi5sion by radiation in boiler
furmicm Yh c mast a pprop r i-i te model of a combus t ion
chamber 'for the application of dit: solution obtained
woold he as follows :-
Thc conibustion -chimber represcills a channel of
arl,itrary Mmpc~ but a cross-~cciion of 'Aficient size.
,j,bu ~i,jc w:jIls of the channel are hcat-insulating, and
the cooling SUrfaCCJ5 Sittlated across (lie section 'A the
combustion clianther. The heating nlcd~k= UU7ves
along (lie Channel towards #jw radii rion-absorbing
surface with a uniform velocity of tv, [Nin'.1in'lirl.
'I'lic combustion of the fuel in the combustion chamber
is completed beforc penetration of the beating medium
through the radi-mimi-absorbing surface.
1:1,r bj)jlcr furliaces, the iviripmature of the com-
buoion products at the exit front the conibuWun
chmnhcr can be dctcrinincd from eq. (25), which, tin
~:~,ndmwi thm 4),' - 0' ' i, tram(mmcd into
1 0 (26'
I I is inter-:,tin6 to notc that eq, 1261, whicil is-'
only [fir coulbu "i". chambers with cooling
colifincd 11) onc surface, in (lit first approximation
desclibe-, the result-, of experiments on indmirial boilcr
. furnaces with the heating criterion K, ranging ftom
zero to 1 8, and a constint va!ue of (lie nominal coJficient
(if emissivity , .7 0 8% but irrespective (if the con-
structional shapt! of the. combuition chamber, the
nqcurcoftticfticlatictiliciticthodofctittibtiqitin. This
result is forcshadowcd by eq. (26), in which variation of
the nonlinal cocIficient of enlissivity ~ has a iL:IjtivL!ly
weak iotItienct: on the value of 0". For insimut-, it t is
rcduccd to one half, front a value of 0 85 to 0,PJi atjj_
--- __
c mtan~
~1. _ I ~H, thc nmj!mttt,je
ill change frum 0 679 it> 0 753, i.e., by I I 1,,:r ~cnt
only. For smaller values of the criterion K_ the
variation of 0" will lie even less.
The weak influence tX c, which satisfies the sit-callcu
condition afniodeteepresc-,itatioti,consideralily implifics
[tic analysis of beat transmission in boiler furnaccq.
The comparison ofcq. (26) with the "isting Immulae
for the calculation of heat transmission in boile r furtiaces,
which are established from experiniental djtj jind ~vljiclj
contain the maguitude R_as
a dc(crinining paraincter* is
shown in Fig, 5, where the
of 0 , 1(fK-) re-
firricot otir eq. (20), and r%vo
nih,.r methoeli 4 calculation.

- .
~ ; . !~ ~ ~ I PI , Z, . ~ ; .
"Heat Transfer" 1-1-2
Textboolk for students specializing in gas heat supply and ventilation.
However, the theoretical part is of general interest for heat transfer.

AN f j ~_-N C I :j A "~A Y- A a s oz~ _~- 1 F.C;
Sua 22 IMAY ~2,
r,-,, Dic i ti~ ~~z i u.3 1 N S T I MFN I R ZH I ZA.,. 5 ,, I Y A T
THE [jIE:GREi. F L',OCTOR j.. TEcHmCAL 5CIENCETI
VECHERNAYA M1,3KVA, JANUA F-DECEMU~R iq~;2
Dissertation by S.N.Shorin "Heat transfer in a radiation absorbing madium~"
Izv. AN SSSR Otd.tekh.nauk no.5:788-789 My 153. MRA 6:8)
(Heat--Convection) (Shorin, S.N.)

USS R
1621115 621.438.016.4
Radiation Heat ExchanU in the Cooled I~v.Akadjlaukfotd.
Combustion Ohambers of G-Ls TIWI:g- 7..
-Inas TQkh.Nauk
1954
S. N. Shorin U S.S.R.
Mathematical a1scussion of various processes in a flow
of burning mixture is offered, yvith particular -Vfcrcncc.
to raaiation heat exchange, Radiation temperaturej, which
exists aloogside kinatla tomporatLire in a fluw Of radiating
medium is taken into aoco -unt, since it determines radiation
heat exchange. Results of oalorifiomoaaur6ment of heat j,
exchange in a cooled combustion chamber are briefly
summarised. Because of the possibility of considerable
radiation heat exchange in.combustionchadbers, in order
to reduce the convective heating surfaces of heat exchangers.
In closed cycle gasl'~turbine,a, provisions should ~e made t6
increase beat emission criteria In,cornbustion apace.
(Bibl. 2) ..........

ARTYUKHOV, Ivan Mikhaylovich, kandidat tekhnicheskikh nauk- SHOR-IN
Serafim Hikolayevich, doktor takhnicheskikh nauk; NO HADOV, A.D.,
redaktor; KOHYASHINA, A.D., tekhnicheskiy redaktor
[Gas supply] Gazoanabzhente. Moskva. Izd-vo Ministeretva kommunall-
nogo khoziaistva RSFSR, 1956. 325 P. (KLRA 9:9)
(Gas suoply)

KOLCHENOGOVA, I.P. (Moskva); SHORIE, S.N. (Moskva)
Study of radiation energy transmission in attenuating media. Izv.
AN SSSR.Otd.tekh.nauk no.5:29-39 MY '56. (HIJIA 9:8)
(Heat--Radiation and absorption)

'j
Cam
rim
7 O~Itn
-inor Importance in tawstrial
heating
'Af-,~he PgAwn-1011 dt --ew f eitrrely Uw therwl
eg
V-AII,;Iktq, ~StNh ke erd amfibaotte am ezLqust
r - . 1p, hot ttXWJrop co
Wim engim Yhas isd :o -mrWe Abdies or the
of wNdhNAUAM tf~i design ot !Pecial ba-nfm, equimant.
Me h!~t UPZt CrOfil 8 WOU'r PaS set with average cartun mowxi:ie ard *-O1VgFn
W-t 9 )~-r 7.2 ard 2.0~% at a t Emp,3rature of 561', and a q value of 266
tIlzu.r- (29 B.t.u./Cu.ft) 18 succEssPilly utjlt~.ed aZ a Russian
dlemical plant by the applicatirn .)f the principle of captact catalysts " Zbe
use --)r preheated air. The gGs-air mixture (coefficient or excess, 1.08,
at a temperature of ?900 is completely burned in passing a contac% bed 3D M
deep consist Ing ot lumps of refrectoi-I gilog 30-W &M In 41metef to generate
1 11630. Gas consumption la 26W cu.mfti ma'%he heat
a bed temperature G4
output at t tie bed 18 2.7 X IOP kcal/sci.mIts. A.11 data cice~! are tveraeea or
11 test runs. Schematic drein rZs Illustrate laboratory ani plant =a1e
furnaces (rhzoug)1 make up error explanatory legends are Intereftarged),i-_. (L)
C.AO
~w

ADRIANOV, V.N, inzhener;IqgO2LRIN, S.N., doktor
Haat transfer by radiating combustion
Teploenergatika 4 no-3:50-55 Mr '57.
(Heat--Transmission)
tekhnicheskikh nauk.
products floving in a channel.
04LRA 10:3)

SOV/24-58-5-8/31
AUTHORS: Andrianov, V. N. and Shorin, S. N. (Moscow)
TITLE: Radiant Heat Exchange In a' Trent of Radiating Medium
(Luchistyy teploobmen - v potoke izluchayushchey sredy' )
FERIODICAL: Izvestiya Akademii Nauk SSSR, Otdeleniye Tekhnicheskikh
Nauk', 19587 Nr 5, pp 46-53 (USSR)
ABSTRACT: In high temperature heat exchange devices heat transfer
by radiation plays an important role. In a number of
papers (Refs 1-6) this problem was considered assuming a
uniform distribution of temperatures and velocities over
the cross-section of the current; V. I. Pukhov (Ref 5)
does assume uniform distribution across the cross-
section of the speed but not of the temperature.
The present paper presents an attempt to solve this
problem taking into account non-uniform distribution
of velocities and temperatures over a cross-section of
a current of a radiating medium in the case of
cylindrical and plane channels. The corresponding
differential equation is solved under the assumptions
that the medium is purely absorbing, the scattering
coefficient equals zero, and the radiant heat transfer
Card 112 between elements of the medium within its volume can be

SOV/24-58-5-8/31
Radiant Heat Exchange in a Current,.;,Qf Radiating Medium
neglected. The absorption coefficient of the medium is
assumed to be constant. Explicit expressions are derived
for the above two cases and the results are summarised
in five graphs.
There are 7 figures and 8 references, 6 of which are
Soviet, 1 German, 1 French.
SUBMITTED: February 18, 1958
Card 2/2

AUTHORS: Shorin, S. N., Adrianov, V.
TITLE: The Investigation of the Raiiation
luchistogo teploobmena)
Conference at the Institute
Energeticheskom institute)
PERIODICAL: Vestnik Akademii nauk SSSR,
X. SOV/U-58-7-39/49
Heat Exchange (Izucheniye
of Power Engineering (Sessiya v
19158, Ur 7, pp. 129-130 (USSR)
A13STRACT: This conference took placc March 25 - 2B, and was called
by the Committee for HiGh-Pressure, Hioh-Temperature Steam at
the Institute of Power En-ineerin- imeni G.11. Krzhizhanovskiy
AS USSR (Komissiya para vysokikh parametrov pri Energetiches-
koin institute ini. G.M. Krzhizhanovsko-o Akademii nauk SSSR).
It was attended by; representatives of academic and branch
institutes,of universities, of design organizations and in-
dustrial enterprises. MI.A. Mikheyev, Member, Academy of Sciences,
USSR.opened the meeting. The work of the conference was per-
formed in sections: Fur-lace and firebox systems, furnace heat
er,Eineerin~;, physical-technical section. Theoretical research
was touched upon by a considerable proportion of the reports.
Co.,imunications concerning various model representations of
Card 1/2 processes of radiation energy exchange were met with great

The Investigation of the R--.-diation Heat Exchange# 6OV/ 30-5a-7-39/49
Conference at the Institute of Power Engineering
interest. Apart from successful work also shortcomings in the
field of experimental research were noted. In the conference
the necessity was underlined to close the gap between theory
Rnd practice. The conference ordered the Commission for High-
Pressure, High-Temperature Steam to coordinate research in
this field in a systematic way and towork out a uniform multi-
lateral plan of research. It was acknowledged to-be expedient
for the USSR to participate in-he work of the International
Committee for-he Investigation of Flame Radiation (Mezhduna-
rodnyy komitet po issledovaniyu radiatsii plameni) in order
to establish closer contact and collaboration with foreig-n
scientists in the field of radiation heat exchange.
Card 2/2

YERMOLAYEV, O.N., inzh.; SHORIN, S.H., prof., nauchnyy rukovoditell
Experimental investigation of gas flame. Trudy MIKHM vol.16:
23-36 '58. (MIRA 11+:7)
(Flame) (Gas burners)

24(8) PHASE I BOOK EXPLOITATION SOV/1826
Akademlya nauk SSSR. Energetichaskly Institut
Toploperadacha I toplavoye ..a 0jjj;'.~v.Iy. ~ai'1GTFfFr_a_na_
Modaling of Heat Processes) Moscow. Ixd-vo AN SSSR, 1959.
149 p. Errata slip Lnsartad. ],500 copies printed.
Boop. Ed.: M. A. Mikheyev, Academician; Ed. of Publishing
Housai D. A. Ivanova; Tach. Ed.: C. N. Shavchanko.
PURPOSE: The book to Intended for scientists concerned with heat
transfer, heat emission, and hydraulics of liquid metals, etc.
COVERAGE: This collection In dedicated to he memory of Academician
M. V. KIrpichev who In the twenties initiated a systamatic
Investigation of heat transfer processes and the arflclancy of'
heat apparatus. Later he led the development or research work
this field. Two special collections devoted to works of Kirpichav's
school have been published, one in 1938, Materialy so7eshchantya
po modelirovanlya (Materials or the Conference on Modeling) and In
19510 Toorlya podoblya I modeltrovaniye (Theory Of Similitude
and Modeling). The present collection prepared in 1956 represents
further development of the work or this school. This theory Is
fundamental for the analysis or many heat problems in the field or
electrical and radio engineering. Of great importance are the
first systematic investigations or heat transfer and the
hydraulics of liquid matalB which as a new kind or heat carrier
may be used In the various bra~nchas or modern engineering. As a
result of spaniel investigations or some cases or convective
heat transfer* a dependence of the process on the kind of liquid,
temperature, pressure, direction of the heat flow, and other
factors, was discovered and established. On the basis of a -do
goneralizationsor exp:rl mental data, now dependable recommendations
for heat &=1y Is of ngineering equipment were developed. Of no
long Interest is the work on heat transmission In boiling liquids
and The condensation of vapors. All investigations are based on
the theory of similitude, the nature 0( which, according to m. V.
Kirpichav, is that of "experimentation.* Vork on the theory of
a regular regime applied to a system or bodies with an Internal
source of heat to of Interest for the future.
3horin. S. N.j 0. L. Folyak, 1. Kolchartogova, V N ',drianov
--9H9-U-.1r.-TormoI&yev. Light 1io4olTiQ-af-tndiat ton 365
The arCro_1-e--grW!ffunIamenaIa or th~ theory a.' rallW-n
exchange In transparent and In IllumInnted media. It
describes sources of light and chwWoa of Ill'-m1natton
and gives a photographic method for neasurine streams or light.
Investigations or raflation eXC1dLnC63 in cylindricul
chambers and In banks a' piper. transfer of radiation energy in
an Illuminated medluit, local Illum-nution of a IIs of be IIrr
burners AM hearth bottoms of open hearth oleo! furns". 3 ftre
described. The followinr personalities arc mentioned:
--Oo Yet VlUsov (approximate solution or a cylindrical equittion).
Y4. S. KuznatBow (dispersion or radiation). 'todamicinn
M- V. Kirpichav (Investigation of r~llation ho.L transfer In light
models). L A Vulis (light modellng,). G. L. ?olyak, and
3- M. Shorin itheory of radiation exchur4:os), nnd with the
cooperation of V. '.. Monstantinow (radla;iar. exchungoo in
banks of piper). 'he section on -Ihotographic Method or
Measuring Light Streams- wascomplIel by V. ?;. ~drlarov hnd
0. L. ?Olyak; the section "Inveslientl3n or the Transfer of
Radiation Energy In an Illuminated MjdLum" was complied by
1. P. Kolchunova, S. N. :.horIn ani 11. N. driunov; nootlors
an -Measurement of Local Illumination of 1:alls of' Modele of
boiler Burners* and "Invertiration of ~icm'. Ill~mlnatlon or
the Surface of the sotton or an Cp-n_hj,.rth PUrn1LCe* were
compiled by 0. N. Yer-"IftyeW z.-M S. N. -hor-In. Ther-9 are
27 reforanceas 19 Zoviet. 5 ftglIshan4 3 (;erran.
AVAILABLEs Library of Congress
13/drh
Cord 20/20 8-7-"

i/36-5,J-2-10/18
AUTHORS: fbLmij"--~e Dcct.-r of Tecim:L.-,al `c-Jence,-
Yermolayev, 0.14., Engineer
TITLE: The Combustilon and- Radiation Characteristi,--s of a
Turbulent Gas Flame (Kharal-c-ter-istiki goreniya J-
radiataii tur-bulentnogo gazo-Togo -,E'akala)
PERIODICAL:Teplc--nergetika, 1959, Nr 2, pp 5'7-62 (USSR)
ABSTRAUT: Because of in~:reasing use of gas fuel it is
import,ant to have general formulae for determining the
flame length during the combustion of turbulent jets of
various gases and to know the radiation -,-.haracteristies
of burning gas_jet.=-,, Tlie chara-Lteristics of a turbulent
gas flame ai-e discussed; ccrditions in general are
unstable and pulsatino-
,,. A combustion front exists
inside the flame and a fcraula is gi-ren for its length.
The rate of propagation of the flame in a turbulent
flow of com-tustible gas is considerably higher than the
rate of flame propagation ia lamlinar flow. However,
because of the lcw stability of t-'--,e fl~j-,a front- in
turbulent flow variious ldnds o4L' aczificial sl,;abiliser
are required to retain the fiame naar the. burners. On
Card 1/'7 the basis of maEs transfer theo--w a formula is derived

SOV/96- -50-2-10/18
The Combustion and Radiation Charac;-Uer-ist'L`---s o-L--' a Turbulent Gas
Flame
for the iengt1i of the turbulent precombustion Zone.
Finally an expression -.Ls gi-.- n.-n for the leng-th of a
'turbulent flame. With this general relationship as a
basis spec-Lal tests were ma-de to obtain a definite
formula for the langth cf a turbulent flame as a
function of '~rarioiis go-Terning Griteria -x.-en ourning
different cSolases, T-ni.e ex-Derimental set-up used to study
the combusti:-in of Niraing jets of gas is illustrated
diaErammatically in i~-'ig 2. It- J-nc?.ludes an arrangement
uo preheat ta-1 gas t-o any reTuired temperature, a
nozzle box whi~3h ,-,ar. take nozzles cf -,he different
--hapes and sizes J-11-a-trated ij-i 3 and varicus
devi,~es.tc control and meas,~-P- the floa of gas, its
temperature and pressure and radiation from the flame.
lariou;s methods of measuring the flame leng-rh were
exami-ined and simp'e -,:is-aal examinati~~n was fc-and best.
A hyd:~,aulic level indi.---atcr.. shovin, diagrammatically in
--PiG 2.. was devise-d to facilitate e-raluation of e
Card 2/7 position of t1--,e tac of the flame. The ccaposition of

,The Combustion and --~adiatlion a GaS
Flame
the lAoscow Town gas used in the tests was not strictly
constant, which somewhat, im-paired the accuracy Gf the
resultsi the mean composition is given, Altogether,
23 series of tests were made on town gas, 9 series on
propane and 4 series on hydrogen, making nearly 1000
individual tests in all. Each series of tests was made
with a particular nozzle diameter. The -vari-ables in
tests of a given series were gas consumption and
temperature, The nozzles were made from a num1ber of
different materials and ranged in diameter from 2.0 to
10.1 mm. In calculating the diffusion criterion the
coefficient of kinematic, viscosity was calculated for
the ambient air tem-oera:Uure and the coeffi(aient of
molecular diffusioLl for tiie temperature of the gas on
leaving the nozzles. This was a bit arbitrary since
the temperature at which the process of molecular
mixing occurs in burnin,-, jets is considerably higher
thar the init-ial gas temperatul-e P-L-nd is different in
different paints of the 'Llame. As tile object of this
Uard 3/7 investigation was only to obt-ain quantitative data about

~30V/96-51c~;- .2..10/18
Phe Combuson and Rad4a~ion Characteristio-s Q.`, a Turbulen-G Gas
U _L U 'IT
Flame
the -characteristics of turbule-at flames" b-cLrnin~-, -as of
given composition, the densities of the gas and air were
not considered in working out', -the test results. The
method of plottling the results th-at. was used to
deteraline the influence of different criteria on the
length of the f lame is ex-, :)lained an-3 the experimental
results are then pio'jzed in Fig :: and 6. Florumilae (4),
(5) and (6) are z~Ler. &Lven fox- the flame length of
town gas, propane and 'iydrogen respectively. Formulae
given by previous aut.-Ilors for flame length are briefly
considerea and their limitat-,ions disC.ussed; one makes
un~ustifJ.able assum-p-t-Lons and another Is valid only for
U
cold gas. However the present tests showed that the
length of turbulent flames io much affec,-ted by the
initial gas temperatxre. Other things being equal,
increase in the gas temperatjxe sho-Ttens the ilame
length because the temperature has a marked effect on
the diffusion coefficient of the gas. The initial
Card 4/7 diaaeter of che jet also has a very strong influence on
CD

,~OV/96-5 9. .2-10/18
The Combustion and acadiation Charac-.-Jeristic-c! oi~~ a Turbulent Gas
Flame
the length of the turbulent, flame, the less the initial
diameter the iess the length of the flame. The most
important feature of turbulent jets of burning gas in a
free oxidising inedium is diffuse after-burning of gas
clusters and it is this process that mainly governs the
length of the turbulent flames. The radiation
characteristics of a flame are tner, considered and
formula (8) is derived for the total radiation from t)--:)
flame,. The extent to which -oart of this radiation may
be absorbed by the mediini immedia-Uely surrounding the
flame is then considered and suitable corrections are
given for the radiation formulae. In the tests the
radiation characteristics of the flames were studied by
measuring the radiation at a fixed place on the
circumference of the flame., as shown in Fig 2. The
radiometer was placed in such a way as to record
radiation from the flame in a direction perpendicular to
its ayis, because this corresponds most closely to
conditions of radiation from a flame to the lateral
Card 5/7 heatinG surfaces in furnaces. The results of local

~130V/96- -5 9-2 -10/18
The Combustion P-,d Radia-r_,ion -Jciarac-"~erist~-irs of a `.!~L71~'bule_nt Glas
Flame
radiation ineasureiiients on flawes of tc-iiiin gas and
propane -butane are plotted in Vig '? in which the bold
0
line corresponds to formula (12), The formulae
previously deriirad_ to detaimine the length of the oas
flames are a~pplied to obtain formulae (13) a-rid (W-for
the radiation chaxacteristi~s US:irL6 1doscIlow City gas and
liquid gas reapectively~ These characteristics can be
used to explain the influence of various factors on the
radiation from the flame, the most important of which is
the initial diameter of t1ne -;et and t:~e t'neoretical
combustion -11-em-oei_atu_-e of the -as. In actual furnace
o-onditions part, of the rad-Jarion from the fLlane is
absorbeed by oombustion products but the amount so
absorbed can be reduced by keeping the flame Pear to
the surfaces being -heated. T'he object of the tests
described was to st-ady flaue Cnaract..erist-ics in the
purest form witholit the complications that result from
Card 6/7 the influenze of various oandi~:J.ons si)rrou.-nding the
C)

SOV/96--59-2-10/18
The Combustion and Radiat~Lon Characteristics of P-- Turbulent Gas
Flame
flame such as 'Une arrangement, shape and size of
surrounding walls, their reflecting and absorbing
properties and so on. There are ? figures and
Of WI-14
2 references -Leh 1 is Soviet and 1 English.
ASSOC IATION: ivioskovskiy Institut Khimicheskogo L.1ashinostroyeniya
(!,.Ioscow Institute of I'Dhemical -~;ngineering)
Card 7/7

SOV/96-59-4-12/21
AUTHORS: Adrianu-, _V.7N.; Candidate of Technical Sciences and
4
Shorin, DofLto-r of Technc,,al Sciences
TITIE. An Investi-ation of Heat Exchange in a Gas Combustion
CD
Chambe- (Issled~.7.raniye teplocbmena v kamere goreniya
ga z a.)
PERIODICAL:Tapl,-%er~r--:7getika., 1959, Nr L~, pp 62-67 (USSR)
ABSTRACT.-, Vrtl--.n- a tu-rt-,u--,Ien+4 flow of gas previously mixed with air is
burned the cc)iabust;ion prc-;~ess i.3 mostly localised into a
small part of tLe combustion cthamber. Under these
oonaw'- -.)ns the pro,:~,:~ss of heat exchange has special
feature-S and i:,equir-'s special study. Purely analytical
ill"IestiGation of the question presents great mathematical
te---ause of the complexity of the systems of
eq,Latio.as that des!---ribe '1-,,he -orccesses orcurring in gas
--ombustion cliawbe:cs. For similar reasons it is very
difficult to apply the theory of similarity to the
sol---it-ic.n of such problems. There seem, hoviever, to be
two possj:cle ar-.p:r,:)aches to investigation of the complex
Card 1/7 pro..-:esses that in comVastion chambers. The process

SOII/96-59-4-12/21
An Investigation of Hea.1-4 Exchange in a Gas Combustion Chamber
of heat exchange can be investigated experimentally
making u-se of the theory of similarity in the simplest
pessible devices that have real physical meaning. One
variable can then be altered at a time keeping the others
constant so far as possible, This approach greatly
simplifies derivation of the final functional relationship,
makes the results more reliable and has other practical
advantages. Then the theory of similarity is developed so
as to seek more general invariable links for the complex
combustion processes than are giiien by the classical
methods of the theory of Sim-ilarity. This mathod is a
synthesis of mathemat,4-,--al and experimental investigations
and it consists essentially in extending the concept of
simllarity from a group of similar effects to a class
and then considering more generally the conditions of
uniqueness and making use of complex invariant links.
-Ln zhis article use is made of the first of these two
proposals to in-ijestigate the influence of the hydro-
dynami-I and optic-al characteristics of the medium on heat
exchange az a g;iven gas combustion chamber. The
Card 2 invest igat- ions were specially arranged so that a

SOV/96-59-4-12/21
An Tnves-Gigation of Heat; E'x.~;hanga in a Gas Combustion Chamber
.considerable umbar of invariants were maintained constant
and a n:amt-er of :triteria were uniquely determined by the
hydrcd.,~mamli,:~ ~.~r~terion., the Reynolds number. The entire
comple-x cf physizal effects that occur in heat exchange
chambers ran be rep-j-,esented by a system of differential
and equations. The principal
equatd.z)roq ioui~~:-.rued are the following:
(1) the eqi_:ation cf motion of -OLscosity of the compressed
flui-d~ for t1b..ree-dimen-Sional motion of the medium in which
the coefficier.- of dynamic vi!5cosity and the density are
con-sUered a!~ -variables depending on the temperature,
press'tacp, Paid composition of the medium at any point;
(2) -the aq:uation cJ:: mass transfer;
(3) 7-he eneT&y equation that represents the law of
consex.--,ration of energy for each elementary volume of the
(4 the --,,cmtustion. equati-on that relates the rate of the
Combustion reaction to the rate of supply of reacting
components dn the elementary volume considered, that
Card 3/? occurs as a result cif molecular and molar transfers-,

'~jj--"T/96-59-4-12/21
An Investigation of Heat Exchange Ln a Gas Combustion Chamber
the equations that r-alate the physical
parameter-s of the m~~d_-um to it-,q temperature, pressure
and t~om 'LT~ iou
(6) the stoit-.!aoiretr_;-_ evations of the reacting gas-air
mi_)ct1L,,re that gi--ze the relationships 1>atween changes in
concentration cf all the components of the reacting
Mix-mre "
By the applic-ation of the. theo2.7 of similarity to this
system of equau-ions the dimensionless field of all the
aauai. ud-es reriijared oai-i be represen~.(-,d as a function of
that enter int-o the ~~onditions of
1--onsid-ers geometrically
_-;hambers of given shape and arrangement
of heat-,JMg and zalsc -,,vith given temperature,
pressax_-, ~.omposition and vealo4Uty of gas mixture at
ule-. Th5 3ystem. of determining iiryaziants is then
'Cl. It i9 then shovin how the system may be simplified
I -L . %J
and finally a vej_y simple sy_,~-'tem is armi-ved at. The
aXpe:c-.L.M-'Iltal arpa:cat-j-5~ is then deEcribed. It consists of
a mclei a :~~qfztem for deli-,ering dust, air and
Card 4/7 gas ar-d arraneeme-ur; --'.-)r cemo,'ring ~icmbustior_ products.
r')

SOV/96---59-4-12/21
1j -
An InrestiEat-_'L~ Hea.. Cumbi-,,:3-11-ion Chamber
The mciall. Is illustzat-ed in Fig.1 and consists
. . .1.1 qr 4.C,-~_-
of a '-:'-rft -, _J. :,hamber and cooling chamber
-)f --a''9hape. The -vxpezlmental procedure is
des,---c-ibed, T~ja fuej. use," ' -,Af,3,s Moscow Tcwn gas. Some
tes-t-.s 1Eade wi~-ia a. c0l5ty flame using rl~hroiae-magrie site
dust of an a-.-erase _~_Jze of 30 The equipment w 'as
T,sing -11-bis e-LT.Lipment 67 tests were
T.-ade and ~16 with dusty flames. The
Tange o-f C_? M-~"qti Important experimental
eration ~f exDression (5)
RevLi.cids n:umber uniquely
_9 Lteria and since the
-.C-Vere"I a wide 2:ange of
Reynolds
it 'v 9
ou-Id b expe.';ted that
.-r-terica would ha--~-, ar- iwpo:rtant influence on the
3at Th- natuTr:~ thi3 influence is
-!a0:J,.~a'-'I.v J,n fti.-.2, vvhicth gi-%;,-es the
C!I,Sb 4
relati ~P F, 7t the. c~ri+,eriia of heat ex--hangeJbr the
I
and as fun,'--tions of Reynolds
Card Tt be Beea t..'A-at: these var-Lables are

:'C)V/96--59-4-12/21
An Inve stigal; ion --~f heat Ex.-;-riange in a Gas Combustion Chamber
governed almost ,iniquely by tibe Reynolds number and
accordingly the other criteria concerned must have
con~ideiably le3s effect. A further way of showing the
I t4
C--Lo~e rela~-Lonship between heat exchange --riteria and
Reynolds number is illustrated graphically in Fig.3 from
which approximate heat exchange formulae are derived.
The strur3ture of the formulae reveals the nature of the
influence on Leat exchange of such important factors as
load and theoretical combus-,:-icn temperatures. It may be
concluded f2?.-)nl the experimental graphs that under the
gi-ven experimental conditions the hydrodynamic
c-harai~t-eristics of -.-~he ficw represented by the Reynolds
n-umber a dominating Influence on heat exchange.
Withiii the ran-ge --onsidered other factors are relatively
~-nimportant- and may 'te neglected. Attempts to generalise
the expa.ri-mental data by constriacting corresponding
-as function of the Bolzmann criterion are
m,-ich less satisfactory as will be seen from the graph
gi-v,-en in The Seaneral fofm of the relationship is
ob7F-,;.ou-sly similar to that given in Fig.2 but the scatter
Card 6/? of *rt,.e poi-nts -Ij~-much greater and there can be no quest-'on

SOV/96-59--4--12/21
An Investisa-~'-Sioa Qt' Heat Ex3hange- ~jn a Gas Combusticn Chamber
of there b-aing a un-!.,:rae relationship. This is partly
be,-,aiise the Bolzmann xitericia dces not uniquely
determ-:.iae the proc-ess ef heat exchange j-u combustion
c1hP-mbe-.n2 La general ax-d for the given conditions in
Fiirther '. the inclusion of the theoretical
Jr, the BoLzmann critei:icn as a condition of
u ni q - . - --)t -L-
lelneSs lc, r- suffi~~iently well founded as this
does uot in combustion chambers.
There are f j i~-Ari~ F-
ASSOC DV11 11 Oil . Hn ~ rge, t i'-1- sk:t.,1 ~-ristitut Aj:i sssR (Power Institute of
the A.2,adam--, I,f Sot.en-;e ;ISSR)
Card 7/7

KOLCHENOGOVA, I.P.; SHORIN, S.N.
Intensification of heat exchange
prom. 4 no.~:27-33 F 159.
.(Heat--Transmission)
during the burning of gas. Gaz.
(MIRA 12:3)
(Gas as fuel)

PHASK I BWK EXPIZITOICK X7/43%
Akadonlya cook _SZSR. Margeticheakly Lastitut
JonvaktivVy I lumblotyy toplacbmon (Convection and Hall Heat zxz~
Moscow, I -d-o AN SSSR, 1960. 254 p. Errat. slip Ins:Ir'Ll.cd.
Printed.
Zd.t M.A. Kikhey-, Icadomicim; Ed. of Publishizg Houset - G.B.
&d.1 T.V. Brusgull.
PURPMU The book to intandad for scientists and engineers wokizZ in
branch.. of scionce and Industry concerned with thomodj- W. tr,-
far prablens.
COVER, =i The book consists of 19 original articles on arious pmbl -Z th..~
c
dymaxi .. Th. following ..b]-t. a.r. dis."..dt .. hrism of he. far
pr-ses. , It.maLfi.ati" of beat -b-g*' dotermics-.ion of
pp.'tm of operating media, beat transfer I. supersonic flow of C%., -d
cmd-tion cbAmbor3 and nual or reactors, Tbaory mrA exparlmentsa to,t~!qls
are described. I ch rticl: do. rise: the nodit Iuse a the -, ~-- -
tables of the *.p.~L-ntml data obtain d are it-. Th ;aUta naY be -i for
Wmlatim. of hoist transfer -:I beat ox.bag-rm. alw. taking -.-t of
)Ukb.ya, A v tig.tism or
A-b-Ce at i;~ &c. of 'j.L.r "Ig In Pipes 33
?-h$lkiD, I.H. Beat Tranafor I, Vertical pipe. in Natural Con,
action 56,
T- and L.D_ Red==, Critical rha~_l C~.n%. I.
ih_'C~-ls of C-.Pl.x rom (100 at. prossurv)
'Ala d'yav, I.T. "L.D. Doducavv and V.S. 61,1_ rx"rl=dnt&l Data an =oat
Tram.for In iabllZg Bow., or Und-rh.xtd W.-..r I. pip..
r&U a Ate on Viscosity "A Feet
of Lc* ,.:ti= of Experimontal D
1quId ti. 917
t 'L"a -tig*UOU of the Process or C_b!..4
face R=Ation Beat RaChang- of Bodies Vith Arbitrw-y loii0ahricas
'hliso'W, S.S.. B.A. Khm.ta1-- &APV-9- Ldrisc-1. K-sur~t or %he
Components of C&-61-1 C-0-acti- and Radiation Heat. j_h_V by th. X."
Adr"'". RAdIcestric lostrusent for Measuring the plow of *-i.tjoa
Thecr~ -of the Heat Regina of 5=6 Conatrus'John of X..U,
G.N., G.P. po&2TAWA
.at of j.4.nd Aj_~hjrn- MCI ... ri., -t_% for
Calculating the T_ M
Th-real Kdollog of the H..t_Prftcjng ga-ts or an Ltad,
176
'Nose-1, A.O.. -d A.I. B.rs.hny. In-gLICtion of MclasuU, n4 _,.~
Diffusion by the SIM1_,_rjTy_-FM-a- _to lea
TA-Ivftq~in) _p4_-.q'hAk-n and
With the Distortion of ls.th.roe in th. ;.ksgLom L_
act.,
cation of Thersocouplas
'~illac*no,, B.S., and B.A. ghmot.l._ C.l.wl.tlos~f Heat Zc r
draul4o Resistance An Lmlnr Motion of Fluids in "Pas he _ a " H'_
"'Y", I.T. Heat Transfer in Bubbling Boiling 233
ATAILABUS Libr"7 of Congress

SHORIN S N., doktor tekhn. nank., prof., red.; SHCHEPKIN, S.I., zasl. deyatell
tekhtiki, prof.,. vtv. red.; LASTOVTSEV, A.M., prof. red.;
K~V'Am' N.M., prof., red.; KOKOREV, D.T., prof., red.; FETROKAS,
L.V., prof., red.; RFZHCMOV- P.M., dots., red.; SOKOLOV, S-N-.v prof*y
red.1 SOKOLOT, S.I.-, mmf.. red.; KHODZHAYEV, A.M., dots*, red.;
LEBEDEV,,K.I., kand-. tekbn. nauk,-'dbts, red.; TAIROVA, A.L., red. izd-
va; UVAROVA,.A.F.,.tekhn. red.
(Investigation a64 calculation of heat engineering and power generating
processes) Issledovaniia i raschety Uploenergeticheakikh i energo-
khimicheskikh protsessov; abornik stateio Pod red. S.N.Shorina. Mo-
skva, Gos. nauchno-tekhn. izd-vo mashinostroit. lit-ry, 1961. 137 P&
(MIRA 24:10)
1. Moscow. Institut khimicheskogo mashinostroyeniya.
(Heat engineering) (Power engineering)

32727
S/671/61/000/000/003/003
A059/Ai26
AUTHORS: Shorin, S.N. Doctor of Technical Sciences, Professor, and
Ch-ipashvi1r,"O.N., Engineer
TITLE: Action of circular flow on the heat exchange in a gas
combustion chamber
PERIODICAL: Issledovaniye i raschety teploenergeticheskikh i energokhimi-
cheskikh protsessov; sbornik statey; Gosudarstvennoye nauchno-
tekhnicheskoye izdatel'stvo mashinostroitellnoy literatury,
Moskva, 1961, 135 - 138
TM: In circular-flow gas burners, the flow of the hot mixture un-
like to straiglr,.-flow burners, takes place yielding an umbrella-shaped ex-
panding current in the outer section and a countercurrent Row of combustion
products in the central part of the combustion chamber. Under these condi-
tions, it is evident that better exchange of heat will be provided due to
the flow of high-temperature combustion products in the neighbourhood of the
chamber walls. The heat exchange efficiency in the chamber is increased as a
consequence of both convective heat transfer of the combustion products and
Card 1/3

32727
,9/671/61/000/000/003/003
Action of circular flow...... A059/Ai26
tion chamber, the relation
0 = 1
1 + 0,03Reo,45
holds for straight flow, and the relation
6 = 1
I + 0,0074ReO,55
for circular flow. Thus, the heat exchange in a circular-flow combustion
chamber exceeds that found in the straight-flow chamber by 30 - 40%. There
are 3 figurez, and I Soviet-bloc reference.
Card 3/3

FEDOROV, L.Fa,. inzh.; SHORIN, S.N., doktor takhn.nauk, prof.
Characteristics of flow circulation in evaporating units. Khim.
mash. no.3:16-19 K~Je '61. (MIRA 14-51
(Evaporation)

L i647o-6e, 7" EPF(c)/EPF(n)-2/EPR/T/EPA(bb)-.,
,,~
Ig'[A(l), Pr-4/#s~/Pu.4 AEDC(a)L
~
.
~SSD/ASD(f) 2/13s,
)
AS(Dip)-2 WW..
~ACCESSIOX NR AmW4625i2 BOOK EXPLOITATI,71
-;-Shorin, Serafim Rikolmovich

'Heat transLe
e(Toploperedadha), Moscows W v -0 "Wathaya shkola"I 1964-
1
i 499 p. illus., biblio. Errata slip inserted* 2L.ooo co i6a printed,
0

ITOPIC TAGS: heat transfer
ITABLE OF COZITENTS [abridged]

!Foreword 4
'rSymbole
iPart 1# Principles of.transfer theory,
Xh. I. Energy transfer 11
Xh. Ii. Mass transfer 45
!Ch. III. Pulse transfer -- 76
lCh. IV0 Transfer coefficients 98
:Ch. V. Methods of solving transfer problems.,-- 1216
!Part 2. Thermal conductivity and'heat transfer
:Ch. VI. General characteristics of thermal conductivity probleaM --149
1,77
;Ch. VII. Stationary thormal conductivity and heat transfer 161
i Card 1/2
~

65-
L--16470
-
-
-
ACCESSION--NR-
I Ch_* -Vill. Nonatatlona~ th 16 uciiiitj 196:
or ma onA
j Ch. 1X# Temperature wavea -- 241
!Part 3- Convective heat transfer
!Ch. X. Principles of convedtive heat tran.afar 259 -
ICh. XI. Results of experimental investigation of Convective' heat:.
exchange -- 323
!
Ch. 'XII -Heat transfer in_steam_.6ondensation_-_~.:340
-!Ch. XIIL Heat transfer in the boiling of~ - liqdid 361
;Part 4. Radlation, heat exchange
!Ch. XIV. Basic concepts and physical principles of thermal radi
ation 379
:Ch. XV. Radiation heat exchange of bodies in a transparent' .
medium- ;98
iCh. XVI. Determining the radiation of bodies -- 420
ICh, XVII. Radiation heat exchange in a weakening medium -
7 441 -
.
IBibliography 484

M
:SUB CODE; TD S. ITTED: WanO NR' REr sov: orn
OTHER: Oll

ACCESSION NR:' AT4037715 S/2865/64/003/000/0460/0473.
AUTHOR: Shorin, S. X.; Dapshia, V. Mi.(DeceaBed)
TITLE: The problem of burbing the waste products of vital activity of organisms
SOURCE: AN SSSR. Otdeleniye biologicheakikh nau . -Problemy* kosmicheskoy
biologii, v- 3, 1964, 460-471
;TOPIC TAGS: manned space flight, closed ecological system, biological waste
,ABSTRACT: The propagation of a "normal-reaction" front is discussed in which a
.front gas reaction is initiated (by preheating and by forming of intermediate
products) and completed. The advancing of the normal front is considered a self-
repetitioD o- this reaction in time and space, and its possibility is determined
-by the thermodyna ics of the reacting system and by mass and energy transfer of
the reacting components. A formula is derived Ny using the principle of energy
gonservation) for determining the lower limit of fuel-gas-mixture concentration
necessary for the self-repetition, and calculated limit-concentration values are
compared with experimental values in a table for a numl.er of gases. Equations of
mass and energy transfer are used in deriving a formula for calculating the rate
of the normal-front propagation. The process is considered to be oue-dimenuionale
1/2

i0i-' tu- c o, v e r s i- n o f r, a t'll ra 1 2 a s f n
Scob. AN Gruz . &5T, no .2, .- --2 9-
streams.
i. lifos':~ovskiy inst.itull kh.4micheskogo, mashinast-royf:ntya
Min--sterstva vysslie-c) 1 s-rednego spetsiallnogo obrazovanlya
RLT'~R. SuhrnifLed December 2, 1~161,.

I Z
T-_;A
-1 W,
EWA
ru r+- /I
6 i SIC0961651WO10021008110086
S N1, Ap
~7,_ HO R3 Te47~~slyants A. (En In6eir miorin Oct or -of
tenhnicaj. sciences Frofeasor)
M. L ajaw f IGI.r
I BE i .11oatt, exchange and friqtionay
rouiut Jai U6
SOURCE Teploererget:Uca'-no. -86
2, 1965~,._83
TOPIC TAQSt heat exchangej-~riction, Nusselt, mtrtoer Stantoh~numl)er
i -combusti on; ccotloritneter, thermocouple, copper HK I micromanomdt'a~. mT -1 3(4)
-A thermometei~
"T 3 It fiom. Studied 'on-.th heat exchan r3.
'Experimental reW
ADSTILN, q
resistance' during the cooling of t tbd~ou
tempera ure s reco of gas flowing
at: d dned-_`-'-,-,
a pipe with constant wall temperature are'riq36r~,ed# Gas andair a Oterr
pres5uxe were cidmitted int6 a combustion chamber. After =6 u-stion. the go .SOB- 1WOj'6__,
-berj, aiA then let~out into the.-atmosphere,_~ la
sent through a tube calorime Th
calor-ift-ber tube was cooled by water.: The heat o!C combustion:-of the gas was
-ared V~r a -as calorimeter, before passing the !3 into the ttbei ~The -as-' 0_.~
ga . .11b +~
a:Lr ratio was controlled by a flue gas analyzer installe& at'-th~O---eiA. 'bf the tube
calorimeter. The static Dressure was measured b y+ a i d cromanoi~~6r AE-1 (sensi.L ivi
jr
Card 1/2

7--
nwqberg f ora 4000 to 30000, :Tfia~vaue
r
f ollol
atile., varied from 2A to -3.7l.:'--, Anj -4. irIcal.
U'
mooth. 1
'for the N'sselt nuinber: for s
pipe.
=x 0.021
i
ru
and for rough pipes
-~i 0,015 Rev.
Nu
'The corresponding values of the St~zton numbers. werd:obtaiia
0.022 Re-9.16. Orig. art. has; 3.3 fonriulas and
ASS,N'iATION Moskovskiy institut khimicheskogo
Vero ~obtaihed
e and
cd~4 Chemical
Construction Institute"
SUMMED: 00 BNOL. 00 SUB CODE TD 'M
110 REY SOV 010
Card 2/2

SUM011, V.I.; SHORIP S.H.
Effect of the Introduction of a combustible mixture on
the hoat exchange in the coubustim gas chamber. Gas.
prom. 10 no.9:35-39 065. OKM ISM)

DULIKIN,M., inzhener; SHORIN,V., inzhener
New type of portable metallic props. Mast.ugl.4 no-7:23-24 Jlt55-
(Mine timbering) (MLFA 8:10)

.Z)HORIN~ V., kand. tekhn. nauk; YAKIMOV, E., inzh.
Reducing the maximum of the elr.~;tric load on feeders. Rech.
transp. 22 no.9:21-23 S 163. (MIRA 16:10)

I __ . 1. %- t - ' '
3- :- - ~ -, :'T ,-,;- .-,
.1 n t illb _1 o t " c s
Expe-rim...ental stullcly Of and" U-Urapeutic properties of a-1borVcin-
,ovcsti Ned. no. ", 1951.
1
10"
9. Monthly List of Russian Accessions, Library of Congress, /Di~53. Unclassified.

SHORIN, V.A., professor; Tt;RMOL'YEVjt, Z.V.
Review of "Antibiotics and their use; collection of experim'ental
studies." Edited by Z.V.Ermolleva. Transactions of the Academy
of Medical Sciences of the U.S.S.R., vol.22, no.l. Vest.AMN SSSR
no-3:60 153. (MIaA 7:1)
1. Chlen-korrespondent Akadamii meditoinakikh nauk SSSR (for
Yermollyeva). (Antibiotics)

SHORIN, V.A., kandidat meditsinskikh nauk.
Antibiotics and their role in modern medicine. Med.sestra no 5:12-18 My
'53. 00-RA 6-5)
(Antibiotics )

SHORDT, V. A
"Antibiotics and their r-,ractical use." P. N. Kashkin.
Reviewed by V. A. Shorin. Milcrobiologiia 22 no. 3: -3147-31419
My - Je 153

SHORIN, V.A.
Mechanism of the therapeutic effect of albomycin. 7,hur.mikrobiol lid -
i immin. no.3:88 Mr 154. (MTR A 7: 04
1. Iz laboratorii antibiotikov Akademii meditainskikh nank SSSR.
(Antibiotics)

SHORIN, V.
Reviews and bibliography ("Elements of Bacterial cytology." G.Knaysi,
Reviewed by V.Shorin.)' 4ntibiotiki 7 no.1:149-150 '54. NLRA 7:5)
(Bacteria) (Calls) (KnaYBi, Georges Abdallah, 1898-

ect of aerobic and anaerobic conditions of growth of
antibacterial activity of albomycla.and other
an Lotics, W;y,;D~kradv
Akad. -Nauk,"Yq; 0 '9,Ld7~~ in at all
concris. represses the aerobic metabolism of staphylococcus
and Intestinal bacteria but has no cfftct on their anaerobic
Metabolism, Streptomycin In therapeutic concns. behaves
similarly, while at high concas. it also repm-;ses the anaerobic
metabolism. Aurcomycin and clfloromycetin repress bac.
terial growth regardless of aerobic or anaerobic conditions of
the culture..
G. M. Kosolap.off
!7
0~ S
JI

SHORINI V.
"The sulphonamides and antibiotics in man and animals.* [in linglishl
J.S.Lawrence, J.Francis. Reviewed by V.Shorin. Antibiotiki 8 no-3:
125-126 '55- 0MU 8:7)
(IAWRENCE, J.S.)
(ANTIBIOTICS)

-SHORIN,V.A., doktor meditsinskikh niuk
Antibiotics in medicine. Nauka i zhiznl 22 no.8:21-24 Ag'55-
(Antibiotics) (MLRA 8.10)

YERMOL'YEVA, Z.V., professor, otvetstvennyy redaktor; j3ILIBIN, A.F.,
professor; SHORIN, V.A., redaktor; POPRYADUKHIN, K.A.. tekhnicheskiy
redaktor
[Blowcin; experimental and clinical studies of biomycin] BiMitBin;
eksperimentallnoe i klinicheskoe izuchenie biomitaina. Otv.red. Z.V.
Ermolleva i A.F.Billbin. Moskva. Gos. izd-vo med. lit-r7. Yol.2.
[A collection of articles] Sbornik statei, 1956. 202 p. ()GRA 9:11)
1. Chlen-korrespondent Akademii meditsinskikh nauk SSSR (for Yermollevaj
Bilibin)
(AUREOMYCIN)

SHORIN, V.A. [translator]; RUZHKOV, V.L., red.
EThe ontogenesis of viruses; a collection of papers. Translations]
Ontogenez virusov; sbornik statei. Perevod V.A.Shorina, pod red.
i a predisl. V.L.Ruzhkova. Moskva, Izd-vo inostrannoi lit-ry, 1956.
278 p. (MIRA 11:1)
(VIRUSES)

1e m; I/ - /)-,
USSR / Pharmacology, Toxicology. Chemotherapeutic Agnets u-7
Abs Jour :Ref. Zh. Biol., No 2, 1958, No 8098
Author :Shorin, V.A.
Inst
Title zNew Realms in the Use of Alb,:)mycin
Orig Pub ;Antibiotiki, Eksperim.-Klinich. Izuch. M., 1956, 224-226
Abstract :Various data from the literature are given indicating
ahigh therapeutic value of albomycin in the treatment of
Spiroohetosis aoarina, caused by Borellia sogdianum, It
is recommended that albamycin in a physiological solution,
or in a 1% solution of cocaine, be Anjected suboutaneoudly,
first in large doses and later in gradually diminished
doses. A 100,000 u dose of alb6mycin circumscribed exper-
imental peritonitis in the rabbit. It acted fayorably on
Card : 1/2

11
USSR/hiierobiology. Antobiosis, and Symbiosis, F-2
Antibiotics.
Abs Jour Ref. Zhur-Biologiya, No 11 1957, 514
Author V.A. Shorin, 0. K. Rossolimo, E. S.
Ku&r_i_ni__
Inst
Title On Methods of a Search for New Antibiotics
with Antivirus Action
Orig Pub Antibiotiki, 1956, 1, No 1, 15-18
Abstract The upper surface of leaves of thorn
apple (Datura stramonium. D. alba, D.
bArn-I'lax-dii) nna tobacco (NI00-blameL GIIX-bl-
nosa) were inlectecl with the virus of
tobacco mosaic. Twenty to 30 minutes
later an agar block with grown actinomyces
was placed on one-half of a leaf. On the
Card 1/4

USSR/Microbiology. Antuobiosis, and Symbiosis. F-2
Antibiotics.
Abs Jour Ref. Zhur-Biologiya, No 1, 1957, 514
Abstract distance from the blocks. From one
strain, antivirubih, an antibiotic which
possesses strong antivirus action and
which depresses the growth of staphlo-
coccus aureus, was obtained. Culture
fluids or solutions of antibiotics were
mixed with a suspension of influenza A
virus. Following a 3 hour period of
incubation at room temperature the mix-
ture was injected into mice. Of 212-
cultured fluids (the largest portion of
which was selected on the basis of their
action on the virus of tobacco mosaic)
156 (73.6%) had no effect on the influenza
virus, while 56 (26.4%) either partially
Card 3/4
-------------------------------------------------------------------------------------------------------------------------------------

"Pharmacological Investigation of Colimycin,," by V. A. Shorin,
L. Ye. Golldberg, and I. A. Kunrat, Institute of the Search
for New Antibiotics, Academy of Medical Sciences USSR, Anti-
biotiki, Vol 1, No 5, Sep/Oct 56, pp 8-12
This work reports the results of experiments conducted on white
mice, guinea pigs, rabbits, and cats to determine the toxicity and
cumulative properties of the antibiotic colimycin and its effect on the
central and automatic nervous systems and blood circulation. The experi-
ments established the following; the LDr,,, of eolimycin when administered
intravenousuly to "white mice was 32-45 milligrans pcv kLlogram body weight;
vb-- -1ministered subcutaneously, 260-270 utilligrams per kilogram body
weight; colimycin had a depressing effect on the central nervous system
of all animals; and it exhibited no cumulative properties; and repeated
subcutaneous administrations of colimycin had no toxic effect on the
peripheral blood and the blood-producing organs of the guinea pigs.
Pure preparations of the antibiotic exhibited nc, pyrogenic )rop-
erties. Colimycin was found to have a moderate hypotensive action.
Large doses did not intensify its hypotensive action, but prolonged it.
It had little effect on the automatic nervous system andin large con-
centratiGnS, acted as a mild antihistamine agent.

SHORRI, V.A.,doktor meditsinskikh nauk.
. .. ......--------
Antibiotics. Zdorovle 2 no-3:2-4 Mr '56 (MIRA 9:6)
(ANTIBIOTICS)

SHORIN, V.A.,; ROSSOLIMO, O.K.
Antiviral activity and therapeutic characteristics of the
antibiotic antivirubin. Antibiotiki, Moskva 9 no.2,.47-50 Mar-Apr
56 (MLRA 9:3)
1. Institut po izyakaniyu novykh antiblotikov AMN SSSR.
(ANTIBIOTICS
antivirubin, eff. on viruses & ther. value)
(VIRUSES
tobacco mosaic virus, eff. of antivirubin)
(INFLUENZA VIRUSES, eff. of drugs on
antivitubin)
(SMALLPOX, virus
eff. of antibirubin)

'sn'U'u'r, vak._ (Dr. of Med. !3ci.)
"New Fields of Application of Albomycin,"
Ministry of Health USSR Proceedings of the Second All-Union Conference on
Antibiotics, 31 May - 9 June 1957- P. 405, Moscow, Medgiz, 1957.

SHORIN, Y.A.; YLIDINTSEV. S.D.; KUNRAT, I.A.; GOLIDBERG. L.Ye.; PEVZNER, N.S.;
- - - -BRAZHNIKOVA, M.G.; LOMAKINA, N.N.; OPARYSHEVA, Ye.F.
The new antibiotic actinoidin. Antibiotiki 2 no.5:44-49 S-0 '57.
(MIRA 10:12)
1. Institut po izuskaniyu novykh antibiottkov AMN SSSR.
(ANTIBIOTICS,
actinoidin, pharmacol. (Rus))

r\," ~- I ,\,,
, - , A,
BRINBIMG, S.L.; TRAKErENBERG, D.M.;:SHORIN, V.A
Second All Union Conference on Antibiotics. Antibiotiki 2 no-5:
54-62 S-0 157. (~aRA 10:12)
(AliTIBIOTICS)

- - - ~ . I I -" - -~- - '~ " -
GAUZA, G.F.; PREOBRAZHENSKAYA, T.P.; KOVALKNKOVA, V.K.; ILI ICERVA, N.P.;
BRAZUNIKOVA, M.G.; LORAKINA, U.N.; KOVSHAROVA, I.N.;-AHORIII V.A.;
KUHRAT, I.A.; SHAPOVALOVA, S.F.
Grystallomycin, a new antibacterial antibiotic [with aummary in
Nnglish]. Antibiotiki 2 no.6:9-14 H-D 157. (MERA 11:2)
1. Institut po izyslmniyu novykh antibiotikov AMN &SM.
(AliTIBIOTICS, preparation of,
crystalloaWein, prod. f~-" Actinomyces violaceoniger (RUB))
(ACTINOMYCES
violaceoniger, prod. of antibiotic crystallon7cin (Rm))

BRAZHNIKOVA, M.G.; KOVSHAROVA, I.N.; GAUZE, G.F.; SVESHITIKOVA, M.A.;
BQBKOVA, T.S.; SHORIN, V.A.; ROSSOLIHO, O.K.
Coeraloc7cin, a new antiviral antibiotic produce-d by Acti=qces
coerulescens [with summary in English]. Antibiotiki 2 no.6:16-20
N-D '57. (MIRA 11:2)
1. Institut Do izuBkaniyu novykh
(ACTINOMYGES,
coerulescensq prode of
(RUB))
(ADTIBIOTICS, preparation
coerLilomycin, prod. by
antibiotikov AMN SSSR.
antiviral antibiotic coerulor7cin
of,
Actinomyces coerulescens (%s))