SCIENTIFIC ABSTRACT GOLUBEV, A.A. (LENINGRAD) - GOLUBEV, A.I.
Document Type:
Collection:
Document Number (FOIA) /ESDN (CREST):
CIA-RDP86-00513R000515910007-3
Release Decision:
RIF
Original Classification:
S
Document Page Count:
100
Document Creation Date:
November 2, 2016
Document Release Date:
June 13, 2000
Sequence Number:
7
Case Number:
Publication Date:
December 31, 1967
Content Type:
SCIENTIFIC ABSTRACT
File:
Attachment | Size |
---|---|
![]() | 3.3 MB |
Body:
GOLUBAV, A.A..(Ieningred)
,
Peculiar relationship between concentrations of some vk6latile
substances in the air and the development of emplqsema, Gig,truda
I prof,,xab. no.4.-46-50 Jl-Ag '57, (KIRA 10;11)
le Institut gigiyeny truda t rofzabolevaniy.
(MWUKA, FUIXOUYI (AIR-POLLUTION)
GOLUBEV.A. A,; LYUBLINA, Ye. I. (Leningrad)
Calculation method for establishing approximately the maximum
permissible concentration of organic aubstances in the atmosphere
of industrial premises. Gig. truds. i prof. zab. no-4:26-32 162.
(MIRA 15:4)
1. Institut gigiyeny truda i profzabolovaniy.
I (INDUSTRIAL TOXICOLOGY)
LrUBLINA, Ye.I.; GOLUBEV, A.A.
Use of the method of correlative groups of isotopes
for discavering'the relation between the physicochemical
properties of substanceq and their toxicity. Prim. mat.
metod. v biol. no.2:90-93 163. (MIRA 16:11)
T
JU 1', T 'I IY-
F. I. and COLP 'T,*'. A.A.
4,ew lati on thn pcssi b~l 15, ty of Calculatin , Ten im G's I'le
cS c,:v~jc SuIrsUnces."
.,.epc.rt ores nted at the 2nd All-Uni-on Scientific Conrcrcm~:c on the
11 r-ne aml oxicolovy of :.IiA_-ztry cf i!i~,Ath USST4 C(j:,lriJttee
- 1~ u
On thc --tud"Y' Ind c,flcwPlo.-,oncu.,3 Gberd.calz of the, .:ain St~~tc
r
,Janitax~,,r ingrection U-"',JP and Kiev Institutc cif Lal~or lily.lelle and cccupa-
tional Diseases, Kiev IY-19 C;ct. 1962.
(riiglyena i Sanitariya, No. 32. 1963' P. 1014-105.)
Kiev institute ef Labor Hygiene and 'l,ccupational Diseases.
ACC N" AR6035077 SOURCE CODE: UR/0169/66/0001008/GO06/GO06
AUTHOR: Zhdanov, V. V. - Golube A. A.
- 8~ __ Yj___ -
TITLE : Petrophysical investigations related to the deep-seated structure of the
Earth's crust
SOURCE: Ref. zh. Geofizika, Abs.. 8G37
REP SOURCE: Sb. Materialy k Soveshchaniyu Obshchiye z"Onomern. geol.
yavleniy. 1966. Vyp. I. L. , 1965, 331-335
TOPIC TAGS: earth crust, parameter, magnetite, petrophysical research
ABSTRACT: Petrophysical research includes study of physical properties of rocla
and determination of a correlation dependency between physical parameters and
the conditions of formation of magnetic and metamorphic rock. Direct
dependences have been determined between the density and the basicity of igneous
rocks, between the degree of magnetism and the magnetic content of the rock,
and so on. This indicates great possibiEties for petrophysical investigations durif
study of the deep-seated structure of the Earth's crust. [Translation of abstract]
SUB CODE: 08, 20
rd
I I I Is It Q 11 $4 4 Is 11 Is It a it a 6 is a Ita a 4, u 41 a a r 0
it -
so C - S -4--S A- a a
0 0 :1 , - W
-00
t
so
so me'Md at dtft-twAg am humlank addity of CrUde nitro Products. I M -00
go 2' KARTARM AND J. Chm, Ind. (Russial 6, 1-,1) 11 l,,r2!1) The rMth',d -00
k haved an the "I t MS. FOrms with IIAO. a ~Ulfatr which.,m 1wing,li-4-ni in .44
1xiding water. can be titrated with ().1 V &IWi in prrmncr L4 phjullpht . it ~ ;.m
h4h I
ckmt aniline is rvWW with stiffing Into hemeove or Wwwr to Mcd all the
:: then the ppt. Is filtm-d' washeil with C4114 or littO and transferred together with the
fitter Into 4 beaker. when It Is di"Wvtd in boding 1110 and titrated after sthmt Imiding
0 a t0cemil"iPetrilt"CIMMOrMUO, Crude Is dilmilvird in C,114 and the
mutily of andine Is introduced with rapid stirring, after which the ppt
0 nI "Anu"laye =ate is titraled as abnve. Nxilrobrazent and damilroMfuear are shritrtly
00 dimilvird In aniline on hehv bcatM cart a water both, and aniliur AuffAte. which plit,%.
is filt"m and film". N'IKLN,.-4
49 0
zoo
:'90 ~*Oog ago
o10 see
* 0
so j
-00
60
so
0 a s S L -ITALLOGICAL LIMAIL'Al UAtSIFKA110k
1131, 111.0. ve*
'1-41 ~" - .1
It
1 4-1 0-1 1,11jist tabs a 41 3 1 a I
43 o"'. it to of It is Ot in It m hito 11 t 11% .13
&;.Y"
0 0 0 0 0 0 0 0 0 0 0 0 C 0 a 0
to 0 0 0 0 0 * e 0 0 0 a 0 0 0 Wo 0 0 0 0 9 0 0 0 0 0 0 0 0
so I I
AA-C
4
A,
j
00 1:'
sea.
00,1'
oo~
001
00
I a 1 0 1 0 ho 11 u W tj Is it Ill if a ill u a h is h 0 a it
a q r- 9 a., L. I U
A-D Jb CODINS
*c #nIs ..Do.-
Ou u
it U M A Ill 1) a At a 41 a 6j a 4'e
k. A -4-.r
..0 if. "et, -00
Red 01-ndoft
IOMW bms. W
V. J.
(U.8.& R.) 10,30t-11011113).-A stuft;Wthe #"11.
mbber sdvnu and the efect of the - pa.
vubber =-reelstanive to gerening. w2u. contg.
diffirmt Ingledlents wM Immersed In bilazine (For 24
h".) and to luixicating ous (fur 48 hri.); the extent
fit sirttliffe was dotd. and rapiesm, an The I
f'sin to wt. IU ingtvdirvis tee I.MMAW.
ANCIL. "Maillop- black kiwis z"O C*O, Macmu
sigo. Chalk. utbopow"tak. Ozid eAh' a. bw.
that# 22", mpkits. animal glue, etc. -.10 mufti or
tb- == In 48 diagmm; mW obvie, that to
PIMP. M Illar Olixte. the a d"XIM
%:7th.tb=II *101M, biwk Se
t =0 Weirit.. OM
r!OZ
N elictuent
latswifil cwth and bwo dtut am of no
]IIImell solvel
-0:
.00
'00
.00
11414111
"046
too
WIF
0
of '00
tie*
u a 1, '0 it T M W 1 it is 'j is a 2 1 v
It 0
0 4 IS 0
0144 0 00 0 00 *0 0 40`1 0 0 0
o 0 0 0 0 0 0 0 0 0 o 0 q 0 4 0 0 0
00
**
00 A
00
09 it
5
i
d X A
k
K
0
w & N
""s
"
s an
.
4*uaw
.
a
p
-
of 4 Cbm. IML SOM0147. W
'
oo at CA in VqWd ak w Oj is do* So spatmba" of
1 aw ak cw to ume a(viswuhle lubrkma(A in Uw
00,1
00 .3 rnmpmm'oa UAL H. T.
060
06
00
00
JUL "r
tow %I. A.
-
--
--
-.T- V- rI-V'r-
1 v
u 0 1, '0 4" 1
1 w 4
pw 0
i
i ~j 0 a
0 0 t, a a
0
-*O-oo 0
00-
s ~
000 see* o*oo****6oll* 009000000 4006 * 0 0 0 0
*-*A-O 0 0 0 10 0 9-0-0 0 0 0 0 0 *a * 9 0 0 4 0 0
o 00000 .0-0
.40
-09
-00
goo
too
coo
goo
We 0
gas
see
to 0
1 -1 4 it a it M
A
1
go
00 X Mamg* a wtion of 64 otalft "wt ad it tatak fWad"
in
tbQ--atbotr*Pk". A.A.41.1olsib",A.A.Tyatu.
We. STO L It. 1,yukin. N#11-Owyo i Keram. 11tom, 19",
No 7 'd Cerawo. Alweddis i4o, till (in J, j w. I
oil, j -k-; - 39, NIL 6) - - 11w tim, of wrvk* 4 a lank
I fwuam Is dwtd. nmtly by the wcw of the main vvull.
go- fWInIjilY *two the vault requimtepair the furnacv #nLut
00 be -0 -EAed befoev it ma be repairril. At ilia
R
OTALLWGCAL WIN&TWIl CILAWWAY44
It 100'14~ "It a.. a"
4 -_ t--;l--1r 4-1.. 1-111-1
U IS At WD is o"11,111004 omits' '401" it$
016 -6 0 0 0 0 0 0 0 0 0.0 0-0 0 0 0 4
Oteas, eass pkat, for the Aral thnc, a we 41 The vowU
"as complettly verANced withOtit MOWS# tht 6RU00- so
That It th of the furil4kv is 27 in. anti tho Width of 10
TIM
.00
-
1.
tKITd. fourlh~ and filth imirs -4 hW%M 0 tWVA4 00.
.00
The tetup. 01 lite futlacr 411111590411 to 701' to NO*- TOO .00
aftlies at the fourth pair of boners wM Uthest dws. 4a
air wav, suppil"t therethinugh into t1se fonows lis cad ths
-11144. Meanwhile. the temp. Is the F"Wnak cbumw .046
the IIIIIIAM WAS V-01111, prop"S. wel Mfift Owc bomiW4
k W40 ADM
l1
%
h
4*y Wor
e PvvtwLra
t
thruttyawtion. When ti
as
W the #i"% dcvrvowd to W, the da
and the temp 40*0
.
I
Section *04 collap"ll dirwtly cato Ilit glaw At mo*
time the 114" hot C'""l to Stick extent that the dr-PPIP4
4110411
briek &I not ittivic to it. Asbettiva Sheets w1re then W-
wriod to fv"c* t4 the I hint armt fifth smikas. T
- UICOMP.
IV
W 0#0
in the aff-A no ilia VWLAI)A%l wvSkwd"olied to I
t
i
t
t
ft d
I
h .
*
bris "A
o rvusi
e wi
on
"
n
o t
pmoltiM rojity
clean it out. Mcbmkiing the new fourth wVA*m e
w4vilinnilk 600
Xbro. Dusins this tint* the temp. at the &It and 9*0
pair 4 burners wws kept at M)' wO at The sixth wW
iwvrnllv 1wir at MWP. The teInp. Its the rescoarstars twas
000
:ke furalraml."), fort", lbAillukimp"It"
nuslQUIl In OW Wasift
re was
ass
tlEr
thmusbaut ark ~ %%m the rebuililitil of the 1wath 49e
Section WAS finisw the ttmp~ underneath it was abmt
k1railuitily the temp. of the f*bWlt Section was
f th
r
1 Ow fwlhw
i
I
l
li
d
h
t
t
i
h
sr,
at
w
o
e.
aw
t
a
o
es
4
ra
tilwa
t
1
The 01111ft fuln"V WAS thell rvhmtgd by "alliq the I
,
7;
to
1
.1) to IKW at a rate of IW per hr., am Iran Ow
pt 201 W hr. Tim vvimmiting of the twusce am 00
plix)tcd in W by. The entive Work took 6 &P. 1110
details tit the work are dc"he& M. JP. R.
~
-
11111111 me" Ali
-
Ai to two 0 v 'tir"ji
0#3-0 vi- _
as 6 6 0 0 0 a 46 0 a a 0 a 0 0 0
A A 1 4, T 11 11 It to to 16 to 's 'I&' it is Pl-1 it it to u u is h
L_X A _J_ IL 1. S, A Q '01. 1- I__1L_d v A a of 41 to a d to
00 A 0 L 0 E
oe
00 .00
*
040
ir
:: t
1"m I"* to In" brisces and rearedalt gualsels.
_00
00 2i.
At AA 1). 1. P(MIMMLOY. Mello i Nera m.. 3
I_M=ipold repair of tank Imam has been *00
.00
~
00 ate In befinvirt Vnion since
i
l b
h
k
x==
100
00 A ca
etween
t T
e wv
* per
Pr
e0 culol mpairs can to raind to M) to 33 moriths, uIth two
100
winkolool and two w thm Lot repairs being toutile during
-
s the f
tin
i
f
ki
M
hi
I
k
woo
so ret
r
&a
n ista
v
g o
t
ng om
Irpa
s P`
Into I= a milon of Ow tank turimin &a d1iormlinued toy
coo
00 arsted front the
d thbeectim km
thelo
o
i
00 com
urmem
o
ng
p
undamaged wolo" by mftm of an "besilloo ah"s whirit k QVo
erst re In the %ectloot
The troto
U
"vered into thor furasce
S
00 Ll
1 .
.
p
to be ".1red drops rapidly to 30, to fit)*, which It talk. r-O 0
00. facturyfcirworking. MmkvM repAks art purlicuWlyad.
d
i
h FO 0
00 a
0 Z, r t
t gas an
vantalms when it is mat necessary to repa
stooks pawAges. air and gas valves, hottoon of the tank
furnme. wood bridge striwtures In the Foutcault Channel goo
too
W With them It Is necessary to stop the gat Completely and Ze 0
2 , the fu7nace stood Fourcault channel for cold repaim
vto p
W=01 Ing Up after repairs with-
out H Z.K.
.00
too
A W a I L A 1191AWACKAL tITERATUSI CLAIS&FKA1008o boo
It:
WOO
U IS Al 10 At i 4
OR a 11 to OF it It Is 14 a It It it it 0 ka A 1 14 a,
0 0 0 0 04 0"6060 of
ooooo:ooooooo*OOOOIOOooeogoooooo
0000001000000 000000000000100000000000090*69 of
GOLUBEVI Aq LEONOV., K.
Methods ofspeedy repair of glass tank furnaces. Tr. from the Russian.
p. 203
Vol. 6, no* 9, Sept, 1955
SZKLO I CMWLEKA
Warszawa
SO; Monthly List of East European Accessions (EUL), LC,Vol. 5, no. 3
March 1956
GOIUBbYO,A,A.; LHONOV. 1.7.
There should be an impovement In the design of tank furnace throsts.
Stek I ker. 12 no*11:10-.15 N 135- Oan 9: A)
1.89yuxoteklostroy,
(Glass sianuf mature) (ftrnaaes)
o6214
50) SOY/64"*59-6-6/28
AUT1LQRSt Zabotin, K. P., Morozov, L. As,.Kryukov, I. Y., Frantinakiy,
A. A., Golubev, A. A.
TITLEs Continuous Method of the Copolymerization of Batyl larylate
With Acrylonitrile in Emulsions
PERIODICALt Khimicheskaya promyshlennost', 1959, Nr.6, PP 406 .- 487 (USSR)
ABSTRJkCTs The product obtained by the copolymerizatio'n'..m'epticned in the
title is used in the manufacture of artificial leather, in
etc. Pablications mention a sewi-continuous
leather dyein
,
method (Re- or this polymerization. Here, a continuous
f
5
method is described, which ban already been proposed for the
copolymerization 1~of divinyl with styrene (Ref 2). From the
scheme given (?ig ) it'is seen that a tube reactor is used.
The following composition in parts by weight is used as reaction
mixture: butyl acrylate: 54, "sulfonol" (emulsifier)t 2,ammonium
persulfate (as initiator)s 0.10 acrylonitrilei 16, water: 100.
The reaction mixture was introduced into the reactor at a
rate of 1.2 1/h and 1.8 1/h respectively, and the oopolymeriza-
Card 1/2 tion was carried out at approximately 80 . In order to prevent
GOLUB j A.A*,L red.; OVOD~ M.Ye.9 red.; BORISOV, B.L.# tekhn. red.
Nanual on the construction and repair of tank and pot glass
Au-naces] Rukovodstvo po stroitel'stvu i remontam steklova-
renrqkh, vannykh i gorshkovykh pechei. Pod red. A.A.Golubeva.
Fioskvap 1zd. PKB GISteklal 1960. " p. (KIRA 15: 1)
1. Goeudarstvenrqy nauchno-iosledovatel'skiy institut stekla.
(Glass furnaces)
ABM40VAP MI., kand. mad. nauk; GADASKINA, I.D., prof.; =Ma,
_A F
kand. med. nauk; DANISHEVSKIY, S.L.) prof.; ZILIBM,
Yu.D., kand. med. nauk; LAZAREV, L.N.., kand. khim. nauk,-
LEVINA, E.N., doktor med. nauk; IMT, A.O.; INUBLIVA) Ye.I.;
doktor biol. nauk;~--LYKHINA, Ye.T., kand. biol. nauk;
MINKINA, N.A.p kand. mad. nauk; RUSIN, V.Ya., kand. mad.
nauk; SALMON, L.S.0 kand. med. nauk; SPERANSKIY, S.V.,,
TRAKHTENBERG, I.M., dots.; FILM, V.A., kand. biol. nauk;
TSIRKp K.G.j kand. mod. nauk; CHEKBOVA. M.P., kand. med.
nauk; GRIVA, M., red.; LAZAREVp N.V.jzwl.deyat.naukijprof.,
red.; LEVINj, tokhn. red.; BASINA,.M.Z.., tekh,4.pVd,,-
[Toxic industrial substances; handbook for chomicts, engineers
and physicians] Vrednye veshchestva v prowyshlennosti; spra-
vochnik dlia khimikov, inzhenerov i vrachei. Izd.4., perer.i
dop. Leningradx Goskhimizdat. Pt.2.(Inorganic and metallo-
organic compounds] Neorganicheskie i elemtntorganicheskie sor
edineniia. 1963. 619 p. (MIAA 17:2)
ACC NR; AT7000309 UR/0000/65/000/000/0515/0526
AUTHOR: Golubev, A. A.
011G,: None
TITLE; Experienceland prospect-ts for use of synthetic materials in marine structures,
machinery and fishing uquipment tor ships of tho commercial fishing fleet
SOURCE: Nauchno_t~lchnicheskaya konforentsiya po ra4vitiyu flota rybnoy promy-
shlennosti stran-chlenov SEV. 2d, Leningrad, 1964. Ryboloynyy flot (Fishing fleet);
sbornik trudov konterentaii, v. 1. Leningrad, Izd-vo Sudostroyeniye, 1965, 515'-526
TOPIC TAGS: shipbuilding engineering, fishing'ship, synthetic mat-zrial, economic
organization
ABSTRACT: Dissatisfaction with demonstrated performance characteristics of materials
traditionally used in shipbuilding, such as steel and light alloys, has prompted the
introduction of synthetic materials in the commercial fishing shipbuilding industry.
The properties of certain of these synthetics are listed and their advantages are
discussed. Specific examples are given of the proposed uses of synthetic materials.
The scientific and industrial tasks facing the member nations of the Council of
iMutual Economic Assistance in connection with the exploitation of synthetics in ship-
building are given special attention. Orig. art. has: 9 figures and 3 tables.
SUB CODE: 13,11/SUBM DATE: 15oct65
-Card
77=
GOIUB,~;V, i.A.
Var"fatfon of the pbys�~mj propertleB cf ba-sic wid
rc,c',.-3 wf.,h depth. Trudy VSEG2-.1 1()4:-,'152--15'1 164,,
(MIRA -18,,!)
GOLUBEV, A.A., inzIn.
Heat and fire resistance of plastics. Sudostroenie 30 no.803-36
Ag 64. (WRA 18s7) ~
GOLU~~.,,.A,tA.04 ZIVKMCI]p O.S.; MINCMKOVI YU,P,
Develop a state standard for tubular springs. Standartizatsiia 29
no-lIt56-57 N 065 (MIRN 19d)
ZARINSKIYv V.A. I MLK3A p V.A. VGOLUBEY9~AaPt-
Meaourement of the pH by meanff of slootroden made of lithium
glaos, 74v,lab,' 27 uo,W~3-225 161. (MrRL 1413)
1. Inotitut gookbimii i waliticheskoy khimii izieni V, It
Vernadekogo AN S&M.
(Hydrogen-Lou concentration)
,,GOLUBEV,_A~P~; SHATS, S.Ta.
Regularities in the charactarlatids of tubes vith-secandary
emission. Irv. vys. ucheb. 2av.1 prib. 6 no.5111-19 163.
(MM 16: 11)
1. Rokomandovana IAningrUdfl*WixMwMo-U-zhenarnoy kraano-
znamennoy akademipq imeni Mochayakogo.
j,
GOLUBEV, A.D.; SHATS, S.Ya.
Design of amplifiers using a secondary emission tube. Izv.vys.
ucheb.zav.; prib. 6 no.6:3-9 163. (MIRA 17:3)
1. Rekomendovana Leningradskoy Krasnoznamennoy voyenno-vozdushnoy
inzhenernoy akqtdemiyey imeni A.F.Mozhayskogo.
GOLUERY, A.F., inzh.; IOGINOV, I.G., traktoriBt.
I I
XUO-fiktic driving of the B-80 tractor. Mekh. i elek, vote**
sallkhez.. 17 no.1:4,6-48 159. (MIRA 12:1)
I.Pavlodprokeyd oblastneye upravleniye sellakego khozyaystva
(for Goltbev) 2.3tvkhez"Irtyshakil," Pavlodarskoy oblasti
(for Loginov).
(Tractors)
GOLTJBEV, A.G.; STEPANOVAx V.N.; YURGENEVp L,S,
Gas-heated,,.single-ratort gas generator. Avt. prom. 27 no. 4:42
AP 161. (MIRA 14:1+)
1. Nauchno-isoledovateltakiy tekhnologichookiy institut
avtombbillnoy promyshlennosti.
(Gas producers)
wC P
GOLUMT., A. I.
"New Method of Guiding Large Ships through Locks," Rech. tranap,s 12j No-4s 1952
o 1-0 (3 (-- V,
3-58-2-25/33
AUTHORS: Gorokhov, V.M., Professor, and Rozhdoetvenskiy, B.P. Dotsent
TITLEs A Conference of Instructors in Fedagggles and Psychology
(Soveshchaniye prepodavateley pedagogiki i paikhologii)
PERIODICAL: Vestnik Vysshey Shkoly, 1958, # 2, page 78 (USSR)
ABSTRACT: From 17 to 19 Ocotber 1957, a scientific-practical confer-
ence of instructors of the chairs of pedagogics and psychology
of the universities and pedagogical institutes in the Middle
Volga and the Urals region was held in Kazan'. Representatives
of 3 universities and 9 pedagogical institutes, directors and
chiefs of the teaching sections of secondary schoolop colla-
borators of the Tatarskiy institut usoverBhenstvovap'iya uchi-
teley (Tatar Institute for the Development of Teachers), and
others participated in the conference work.
At the plenary sessions and meetings of the 3 sections -
pedagogical, psychological and history of pedagogics -
25 reports on various questions of development of the Soviet
school were heard. M.P. Shabayeva, Senior Scientific Collabo-
rator of the APB RSFSR, submitted a report on the them* " The
Soviet School and Pedagogics Over the 40 Years of Soviet
Card 112 Power". Candidates of Pedagogical Sciences N.A. Polovnikova
A Conference of Instructors in Pedagogics and Psychology 3-58-2-25/33
and A.I. Golubev reported on the organization of polytechnical
edu-ca-T1-on--Tn--tE-*Tatar and Mordvinian Autonomous Republics.
Candidate of Pedagogical Sciences B.P. Rozhdestvenskiy and
G.A. Petrova spoke of the organization of aesthetic education
in the schools of the Tatar Autonomous Republic; Candidate
of Pedagogical Soisno*s A.A. Vanshteyn discusaed the mutual
relation, between theory and practice in teaching pedagogics.
The Kazan' conference decided to establish a permanent
organizational bureau for preparing and conducting conferences.
ASSOCIATION; Nazanskiy pedagogichookiy institut (Kazan' Pedagogical Institiate)i
Kazanskiy gosudarstvennyy univeraitet imeni V.I.U11yanova (Lenina
(Kazan' State University im.V.I.Ullyanov (Lenin))
AVAILA13LE: Library of Congress
Card 2/2
GOLIJBEV9 gakLey 4vanovich; uVIMEV, S.Sop kand, tekhn. naukq reteenzent)MGANOVO
V-.O.,inzh.red.j DOBRITSnTAqR.I.q teklm.red.; GOPJ)EYKVAq L.P., tekhn.rod.
(Labyrinth pumps for the chemical industry] Labirintriye laasooy dlia
khimichookol promyshlonnosti. Koskvap Oos. nauchno-tekhn. izd-vo
mashinostroit. lit-ryp 11961--- 72' & (MM 1428)
(Pumping maebinew
GOVJUV, A. 1.
Main trends for the development of public health in 1959-1965. Zdrav.
Ros.Feder. 2 no.2:3-9 F 158. -, '\ (MIRA 11:3)
1. Machallnik Planovo-financovogo upravleniya HinisterBtva zdravo-
okhraneniya SSSR.
(PUBLIC HUNT)
Vassar ney* konferen-31ya pO trenlyu I Inusu v rinhInakh. -kd,
19.x
014rodIxamIch ya tooriya weazicl. Opory skol'zhenlya. SrArka
"a
maIerlmly (Hydrodynamic Theor7 of Lubrication.
I smazoeb.T.
Slip bearings. 1~brl;lktion and Lubricant Materials) Moscow,
s
0
l
8
e
Xzd-va AX 335R. 422 . Errata slip Inserted. 3,
0
cop
printed. (3ories. Its: Tr-4dy. v. 3)
Sponsoring Agency: AARdemlys nauk SSSR. Institut mashinovedonlya.
Reap. Zds. for the Section 'Hydrodynamic Theory of Lwbr I"ti --
and Slip Bearings': Is. M. Gutlyar,- Professor, Doctor of Tech-
Ical Sciences. and A. K. Dlyachicov. Professor. Doctor or Tech-
a
* Reap.
n1cal 'clonces. Ed. for the Sectlon,*LubrleatlOn and
Lubricant Materlslah 0. V. Vinogrsdov. Professor, Doctor 0f
- M. Ya. Llaban v
Chemical Sciences; Ed. of Publishing House.
vch. Ed.: 0. X. Gus'wova.
T
MP=t This collectlom of articles In Intended for practicing
engineers and research scientists.
COVERAGE: The collection. publjs~~ *iy titi
Ted*nlya AN S= (Institute of Science of Machines, Academy
or Sciences =R) contalza vabors Presented at -he III
Towmayoxnays konrorentstya po trartlyu I IXnosu v mashlnAkh
(Third All-UnIon Conference an Friction and We&, In Machine$
iftich was held AprIl 9-15, 1958. Problems discussed were In
~5 smIn &roast 2) Hydrodynamic Theory of Lubrication and
PrIctlon Bearings (Chairman: U. 14. Out'yar, Doctor of Tech-
n1cal Sciences, and A. L. D-yachkov. Doctor of Technical
Sciences). 2) Lubrication and Lubricant Materla2a (Chair%=.-
G. T. VLnogradov, Doctor of Chemical Sciences); 3) Dry and
Souridary Priction (Chairman- 15. V. Deryagin. Correspond
!"
Xomber of the Acadozy or Sciences USSR,and I. V. Kragell
U',
DamtOr Of Technical Sciences); 4) Wear and Wear Resistance
(ChaLr"ant M. X. Krushebov, Doctor or Technical Sciences; and
5) Priction and Antirrictionn Materials (Chair-on.
I- Y. Kragollxkly, Doctor or Technical Sciences, and
N. K. KrujibchovlDoctor or Technical Sciences). Chairman of
the "moral assembly (on the first and last day or the con-
fqx4nace) was AcadomIclogn A. A. SLagonrevov. L. Yu. Pruzhanckly,
'd The
tMm9aCt1Qn8 Of the conference were published In 3 volumes of
wWcb the Present is the third- This volume Contains artLtlea
4Mcermed with the hydrodynamic theory or lubrication, sliding
betsuringS. and lubrication u3t*rials. A41IOng the topics covered
am. modern development& in the hydrodynamic theory or lub-
rl"tlon. experimental methods for investigating the performance
Or b*ArIng0 under various conditions, the Mechanics Of lubrlca-
t1an under varicuts conditions, the design of bearings for dif-
forent epplIcattorts, the theory and practical applications of
-lubrleatlng materials. LnelvdIng T1$COUa-pl&3tIC lubricants,
calculation methods used In the design or bearings for turbo-
electric generators and other heavy machinery, experimental data
on t2w lubricating characteristics or many different lubricant
~tcri*20, the effects Or additives, operating and environmental
cOodItIODs, corrosion, and accelerated weer testing. Many per-
BOrAlItles are mentioned In the test. References SCCOMp8ny cost
*r the articles.
Investigation of Friction Processes in
11wavIly Loaded 5ndirg Bearings of Rolling Kill* 17
1=,r,_ *_ 'IIu I the Instead, Nation 0e . Viscous Incom-
.I. Id Between cLos*iy Located Moving Surfaces 25
On the Motion af a Viscous Incompressible
Bearing Gaps In the IA=Inar and Turbulent
P1 OW Rogimes 30
0 -4
at, OA
A, -4
V
0 0. "0' U "a as
.5
0 C E V t00 10 11
0.
V.
41 00
U
.4 A. .9 U
98 4
-it i , -, - " , -0 , ~ t. ~v . : i, -. z .9 C
~2' at ~
-0 v 59A, g E ,
a
0 9 -a P.
C.
v
r... 12, U. A S U" U. 11 t
0
Cos.,- S
8 U a vd 8 1 k I
C v A
E P
&U
t -~MWRZ" v v
vro A ~,4,djs - a - s-. . . .5 1! 2 .0
Ir,
40 a .0
.9 -0 v Or -0 -0 .0 0-- .5
X", ij *s a! tn 0;! C 0 I.V 11 4 r r 11 "N U C-
U 0
Ow a .6 V4
a
Is: i -0 Wmr A. "R "t S.,j~j3V..'a ~t
04 0. .5.
A". C C6 ~O 0 r.
-0". 01.1 A 0 9 -9 :- --- ,
8
0 9`
oce."O" .
,a Z 2 0 :1" v 5 o
V "a 'a ."a as
S~qoj C A 0* 0
~~o 0 900 0 a! 4 0
a 19p,0. 14 NU
d" ivfl ,
3i
19
A.I,
Iffacrt of the heat on the lubricated friction in unloaded annular
lubricant layers. Tren. i isn. mash. no. 121181-2(Y+ 158.(KIRA 1l-.8)
(lubrication and lubricants--Testing)
GOLUBEV
Plane steady flow in bearings of viscous noncompressible fluids
havicg variable coefficient of viscosity. Tran.'i isn. mash.
no. 121205-223 158- (MIRA 11:8)
(Bea ringe(He chino ry))
(Lubrication and lubricants)
KOROVGHINSKIY, Mikhail Viktorovich; EWSHOROV, K.K., prof., doktor
tekhn.nauk, ratoensent; 00 nd.takhn.nauk, redo;
TAIROVA, A.L,, redoizd-v ; SUCLOVA, T.F., takhn.red.
LTheoratigal basis of sliding bearing performance] Teoreti-
chaskie oanovy raboty podshipnikov skollzhaniia. Hoskys, Gas.
nauchno-tekJ2n.izd-vo mashinostroit.lit-rye 1959. 402 p.
(MIRA 12:12)
(Bearings (Machinery))
GOLUEEV, A.I.; PAVLOV, B.V., inzh., retsenzent; KARGAROV, V.G.,
sh., red.; MAKAROVA, L.A., tekhn. red.
(Modern seals for rotating shafts) Sovremennye uplotne-
niia vrashchaiushchikhsia valov. Moskva, Mashgiz, 1963.
214 p. (MIRA 37:2)
GOLUBEV, A. 1.
"Development of Flow and Thermal Effect During Liquid Mriction." Cand Phys-
Math Sci, Moscow State U, Moscow, 1954. (KL, No 1, Jan 55)
Survey of Scientific and Technical Dissertations Defended at USSR Higher
Educational Institutions (12)
SO: Sum, No. 556, 2.4 Jun 55
3Z(3)
SOVI I IZ-59 -3-5115
Translation from: Referativnyy zhurnal. Elektrotekhnika, 1959, Nr 3, p 117 (USSR)
AUTHOR:.' Golubev, A. 1.
TITLE: Mo~ltltlft-67TAi-2-2000130 (Moderytizatsiya VAB-2-2000/30)
PERIODICAL: Elektr. i teplovozn. tyaga, 1957. Nr 12, pp 7-10
ABSTRACT: A new construction, a supply schemeand a control scheme of the
VAB-2-2000/30 high-speed circuit breaker were developed at the
"Uralelektroapparat" plant. The time of current drop from full load to zero
is 0.003-0.007 sec for railroad-type converter installations. The minimum
time from the moment of tripping pulse to opening of the VAB-2-2000/30
contacts was 0.002 sec for the new construction.
K. V.A.
card I /I
GOLUB.EV, A.I., kanMls.-nat.pauk
Butt aealing. Trudy VIGH n0,24:-102-124 159,
(sealing (Technology))
04IRh 12;8)
o p
S/lWl/000/002/001/008
A11O/AO33
AUTHORS: -Golubev, A.-I!,.Candidate of Physics and Mathematics; Freydisman,
G. M., Engineer
TITLE: Labyrinth pumps.for corrosives
PERIODICAL: Khimicheskoye maschinostroyeniye, no. 2, 1961, 9 - 12
TEXT: The article deals with low capacity and high pressure labyrinth
pumps designed and tested at the VIGM (All-Union Institute of Hydraulic Machinery),
by A. I. Golubev (author's certificate No.126748, June 16, 1958). The pumps are
based on a multiple thread screw which rotates inside a bush with reversed mul-
tiple threading. Labyrinth pumps are similar to pumps working on the spiral self-
lubricant endless screws principle, the only difference being that screw and bush
are multiple threaded. Their operation is analogous to vortex and labyrinth pack-
ing and they operate in low viscosity fluids. Experiments proved that the threaded
bush operating in water increases the pressure 7 - 10 times. The efficiency of
labyrinth pumps is similar to that of vortex pumps and superior to single stage
centrifugal pumps operating in underload conditions. A flirther common feature
between labyrinth and vortex pumps is the marked dependence of their performance
Card 1/8
23146
s/184/61/000/002/001/008
Labyrinth pumps for corrosives A11O/AO33
on their radial and end clearances repectively. The adVantages of labyrinth pumps
are: simple shape of all metal and non-metal components; absence of mechanical
friction between screw and bushing; flexibility of construction apparent in the
proportionality between pressure and the length of flow-area, and higher suction
power. Labyrinth pumps were included in the nomenclature of "Wing Pumps for the
Chemical Industry. Standard Series". In accordance with this nomenclature the
Tsentral'noye konstruktorskoye byuro gidromashinostroyeniya, TsXB GM(Central De-
signs Office of Hydraulic Machinery) developed about ten labyrinth pump models
for test purposes. Some of these have already passed tests and were sent to pro-
duction plants. Beside the TsKB GM, the following organizations have participated
in the project: Shchelkovskiy nasosnyy zavod (Shchelkov Pump Plant); UkrNID~hIMMASh
and the VIGM. Figure I shows a 1.5',1-2n (1.5Kh-2P) labyrinth pump made of faolite
"A" plastics and intended for the handling of corrosives, the pump works at a pres-
sure of 65 m liquid column and 1.8 I/sea. capacity. Screw (2) and bush (3) have
two symmetric threadings which results in a dual suction and relieves the rotor
from the axial force, apart from ensuring satisfactory performance of the gland
under the suction pressure. Figure 2 shows the performance of such a pump with
a screw diameter of 100 mm. The W-3-6 (lKhP-3-B) labyrinth type immersion pump
Card 2/8
23146
s/184/61/ooo/oo2/001/008
Labyrinth pumps for corrosives A1IO/AO33
used for hydrofluoric acids works at a pressure of 10m of liquid column and 1 .3/h
cap. and iv shown in Figure 3. Suction pipe (1), screw (2) and bushing (3) are
made of Monel metal. The pump has graphite bearing bushings (5) operating on
acid lubrication and stuffing box (7) for the sealing liquid. Figure 4 shows
a 1.5%-2A-2 (1.5Kh-2A-2) labyrinth pump used for hydrocarbons with resin admixt-
ures at 180 - 2000C operating at a pressure of 65 m liquid column and 1.8 1/sec.
capacity. The screw has two symmetrical threads and relieves the rotor from
axial stresdes. The male and female threads of the screw operate jointly with
static threads of suction pipe (1), gland body (7) and bushings (3 and 5). The
inain parts are made of carbon steel. As the pumped liquid -tends to crystallize
at normal temperature, the pump casing is equipped with pre-heating jacket (4).
The escape of poisonous gases is prevented by stuffing boxes (8 and 11) and her-
metical connector (9). All three pumps have been designed by the Central Design-
ing Office of Hydraulic Machinery. Figure 5 shows a 1-5X-20 (1.5Kh-2I) labyrinth
pump made of acidproof 9W629 (E1629) steel and designed at the Shchelkov Pump
Plant for operation with corrosive hydrocarbons. The pump operates at a pressure
of 100 m liquid column and a capacity of 3 0/h. Contrary to pumps above des-
cribed bearing bush (2) relieves the rotor from axial stresses. The intake is
radial, the pressure axial and the pressure pipe is near the outlet. Due to the
Card 3/6
23146
s/184/61/000/002/001/008'
Labyrinth pumps for corrosives A110/A033
described layout of suction and pressure pockets the gland takes up the intake
pressure only. 1.5Kh-2I labyrinth pump replaces three-stage centrifugal pumps.
Its characteristics are the following: the maximum efficiency is 26% while the
reference point efficiency is 22 %. In view of the low delivery, these tro types
of pumps are similar in efficiency, but labyrinth pumps have a higher efficiency.
Besides, vortex pumps cannot be made entirely of E1629 steel, whose toughness
during friction in the face clearances leads to galling and breaking of the oper-
ating organs. Experimental testson I.5Kh-2I pumps are nearly completed after
which the pump will be sent to a plant. Several pilot models of IKhP-3B and
1.5Kh-2A-2 pumps are still under construction; one passed tests and is now used
in the phenolacetone production. The 1.5Kh-2P pump is undergoing service tests
with 20 % hydrochloric aoid. The above mentioned designs do not exhaust all
possibilities; analogous operating principles crn be applied in the design of
dynamic rotary shaft packings, e.g., for pumps del ivering butadiene rubber. These
so-called labyrinth impellers would prove particularly efficient at high veloci-
ties of the rotainj shaft, as the pressure drop transmitted to them is proportional
to the circumferential velceity square. There are5 figures.
Card 4/8
GOLUEV, AleRsandr Ignatlyovich; *~J]K, I.V., red.
(Iligh-speod automatic uwitcheal ayst-odo-Istvulushchle
avtor.atichosk-le vykliuchatell. 2., perev. izd. Moskva,
I~erglja, 11)(-/,. 23') P.
F 17: 10)
OOLUBV, Aleksandr Tgnat Ilevich; ZHDAMV, G.B., radaktor; UMONOV,
radaktor.
(High-speed autowtic switches] Bystrodelatiuiushchie avtomati-
cheakis, vykliuabstali. gookya, Goo.onarg.izd-yo. 1955. 191 P.
(Blectric ovitcbgoar) (MLRA 8:9)
ASTAKHOV >
j. A.G.; V"SOVp V..V,.;
YEDCRUISM, N.V.
A system for the autcmatic, control of Nel proportioning
processes In sintering plants. Met. i gormorud. prom. n0.4:
12-13 J3,Ag 165, (MIRA 18:10)
41114 6 *
Z
90 t
00 'd
Off
of
21
a I L A ATALLUMOKSIL 1,1114411tolit CkASSIFKATICH
vQ-T J4(
G-u 1; 7v - i
to 0 It it a III Kiln liffmall
0 0 e 0 0 * 0 a 6 6 4 0 0
::.:-o 010 0 0 0 o o *. 0 0 6 0 00 04
11 4717-P
. "'k, - L 7, -tv
Idaud" tho Chou" PAWO Of OWIN by IFUgivation In 11olutims of
Omul&W. 0. 1. Ahimor and A. 1.
A p 14 " CA 19 3 9, 1 & 10 1 a 2 9 (1 n I u Wam a n/) ; Th HAP -b sj," i it 410"IL KK h6i -Ni ).I J--
Jill Humimi.] 11w best immilvating wAutlow are: (i) il-v.K.L~r,o,
rximmum I hr., tind (H) N'-K,Vr,Ol + lHoIN-CrO, clip-mitre
Ire
I hr, I'll(, flnP366 I,( 4161,1wr aflor Auvit imaivillitto oh, rt-am* shalily III 4ir
4411AM111 Sill dittr 11illidt" suld Its kulutillus t'fX"" \*.(,I -f '11flis-
N41111i " .. (I-14N.110. Anti 01N-11,14(j, Tht, dit-mical i-tability
'-f G~ it sLit.-r the abilve treateurnt, jarticutarly after 1frALlatill
Als
'Afth N." OIN-Cro,
dij r t mim-nt
14
fit)
fA I 1 4 04 0 A 4 IN 0 it 4 3~ a IF
I~
Ac
0 # 0 61164 0 0 0 0 0 6 0 0 0 0 * 6 0 0 4 0 4
0000104 4 0 0 0000 0600 es 0 0 0 41~
goo
rive
'Fes,
goo
gee
moo
tjoo:'
GOLUDEV, A. I. i .Lab. corrosion an] Electroc~;emlstrYp
1-joscow Inst. lion-ferrous Metals an(I G01( )
"A StUdY o'L' the Corrosion llroces~ics on a 110clel Local Liement. I."
Zhur. Fiz. Khim.j 11o. 31 1946.
IN
ip
it It V
W
U Z
AA
R
X a 1- a
.
II
A ,
,
-
-
tit AND t"0 "Yg~* -*-*-o 4t. 04 a
s;j
ptactilci Oka "Opefillis t.44.
cog' moilaola
0 TM rAld W_ 00 Xb**bU Ali*" 1bW.OtVWW4 XW#I$ &IUW in a"
1946
3
Fi
KAi
811
V
M
)
k
l A
1
~
00 or.
j.
law mu
m.,
.
flaw. (
.
. A
,
). to
, (
, vftr (
303
di
ti
f th
i
"
40 i
al
d
h
ib
l
R
A
00 a .
-W-(
e
o
Ar
on o
n
us
.
t
t
u
mil.
e equ
rtential surtaom 4M liftes of fafm above mhort-eircult.4 dectmics situated
d
l
l
00 1 n Electro
zJno wrrv itivi-stigstiml in a so
ution
es of Ocipper am
't'
01-1 ~ 01,I)ON
1-
It' IS
of ;r
'kvtnA" '
i
I
1
%i
110
AM
f
"
II
049 41
! .
-
i
1
r wi-
t
*
n
um
I
.
40
.
I
i
Nati itattlim. As a rule 1bo firld (if Oki 4xwl 4,imcit wpAtUtuortad. liin't
1
9
displatvd In dw dLft44(m of the imvide or *Omido itt im~,,wdmsuo wid, Wit
I
: A
0
1 1
0
%" 'lot UAWOWbOUndATYPYtOntillt ItW"Ck'dn)jKWiti1OtOtMI4ttOr
l
f
l
f
d
=
0 0 ~
11 eouti.
the fir
d *&a In the direetIm o
the Anule an
Ow.
Wnt o
f
'rho prater thQdIeplaortmank
argativo when In tho d1eq-tillon of tlx# mthociv.
66 a of Uw thid. the gmter wam Q. diffi-mnw the Xoneral " Niundan-
potentials. The krightofthutield wrArqualtoRpi,ml. b4irtho MA111% Urthe
l Itingths of the anodo and cathtxIt-. -,X. A. -"C:z
ANTALLUROKAL LITINAMAt MAMPICATION
.00
.00
-00
-00
600
200
use
a**
too
00
:00
*go
MOO
woo
10 1 a tw 0 1 x 0 0 0 1 2 9 v
Is . . 01 Of 160-:0,
00 4 0 0 * a 0 * 0 0 0
1: 13 m tj little
A a A V _?_,2 I - b
Alf tioucol .,..
*XjK4,wf pagmusk at that'llilkw.-ftapamb of an Awy (zi-IM0.
ftpw-LWA, &W A. 1. (;Wu1jevpu1 G. V. Akimov 11f,impt, r(Nd.
(1kk jjlW."'&k (2).
~=Idd) Arod. 8cf, I'* *",, I
Flev potratillId 1A.1w1*11 I)b",A r1iting In t1l,w mischniect"Al, tin fAr.") wrr" .00
"Itive #q. 1-d 21 o. .00
alloys (Njnc IM-7, Irtm 1,W6 - odcroscol* eop"4'itilly
nwam]r", bv uxing at, ,I,p&mtjj# whic-h Included 6.r,,s fw llbe linc-irm .06
modified for such rAc*Au1v"w"t" Tho 'Rit"ti'll ~ ,mvnt, and tbu
*0 alh)). xhow that thts comimund FcZnj is tho mthA'c '"I
04D - I
tine cutmic tb,- wk4c conlInment of spinicri-ot-11 bortned in a -tit. hydro.
go ehkwic acid mOuthwil. TIw I*JtrlltiAl vaet* front thr mArt. towarall the .00
00 .09
nDvfu&ItMsw'aetj4vI OtbhWt'tmw4x Awntlit) rue"ured in
thim tAw twing
Zth the utber alloys.-V. K.
J,
00 4r
j.4o 0
_00
100
0 It goo
r
Ile it It it 4 It of rl 1 $4
GOLUBIW, Aw 1.
USSR/Chemistry - Zinc, Corrosion of
Cftemistry - k;lectric Charges
May 1947
I'Microgalvanic Elements on the Surface of Corroding Zinc," G. V. Akimov, Corr Mem,
Inst Phys Chem, Acad Sci USSR;-A. I. Golubev, All-Union Sci Res Inst Aviation Materials,
3 pp
I'Dok Akad Nauk SSSR, Nova Ser" Vol LVI, No 6
Describes experiments which give full corifirmation of hypothesis made by Do La Rive in
V30 on action of microolements.
PA 5n5
GCLUEEV, A. I.
981-1 1-1-01
A 111-L. IL
4
0
too
60
00
AiSM-SLA *I-,AktU 461 CAL LITCRATWR CLA $13P KA1100
u is if PO is it-
L AL t I-A-
2. AlWyo of the S som OUAS. (in RUSSIAll A. U
UMATI RddftVk0i KNITUt (JOWtUl Of Ono-
L
--a m ). v. M, Sept. 1949, p. I I I& 1126.
L mg;
cuffootion falstAnce of (he Iffletnictallic voililloolki
Mating akMir PlAill
thV IMMIMiCS ill
d6we system was Invejapied. Off the
w
a themy conualun CTArking of tilcu, j&II4j)% is
developM.
zoo
too
so*
age
too
7-r.-Zz
41
GOWEN, A. 1.
"Investi,gation of Galvanic I-Ilicrocells on the Surface of Corrodin.- Alloys," Thesi3 for
degrE--e of Dr. Technical Sci. Sub 5 Jun 50, Voscow Inst of Lonferrous 'Meta13 and Gold
imeni 1-11. 1. Kalinin.
fjp Sumary 71, h Ser) 52, Dissertati2ns Preaented for Degrees in Science and Engineerin?
IN Moscow in 1950. From Vechernywja FLoskva, Jan-Dee 1950-
-SoaFon Cracking of Aluminum Alloys.
"Research in Coroasion of Metals (Isrledov,~niya Po Kor-rosii Metallov)" *
L,hemistry, (USSR Academy of Scie:-.ces, Moscow-1951.
Publishcd by--Inst. of Physical -
Translation --- ATIC-79062-D
F-TS-bO3O.-A/V-
7
MLTI'331,77, A. 1.
RUSSDI.
iST7:R!,770 AVLAMPONNOY
:~.'OjL'Z()ZjC,'T7= PT:CTSFI~qy ,T
,A 3 W C,
ON !i.-,AL 0 3
. 'op!
121 P. ILUJ3. DDI'31PS. T.ABU-!,S
"LTMIZA-732,11". P. 121 - (122)
615.8
.R91
USSR/Solid State Pbysics - Phase Transformstions in Solids.. F-5
Abst Jo=al: Referat Zhur - Mika, No 12$ 1956, 34744
Author: Golubevp A. I.
Bstitutiont None
Title: luterci7stallite Corrosion and Corrosive Cracking of Aluminum Alloys
O-rigimal Periodical., Korroziya metallov i metody bor'by a ney., Moscovj, Oborongiz,
1955, 257-270
Abstract: None
/,O.p / - 1 -
A I.: TUMANOV, A. N.: FILIPPOVA, A. P.)
"Behavior of Structural Components of Aluminum Alloys in the Process of Chemical
Oxidation and Ancdizing in Sulfuric Acid," and with MAKAROV, N. A., SAMIU01AW-1,
L. N. :
"Filling the Pores of Oxide Film Obtained by Anodic Oxidation of Aluminum and Its
Alloysy " Korroziya i azshchita metallov (Corrosion and Protection of Metals),
Moscow, Oborongiz, 1957- 3~6 p.
FURPOSE: This book is intended for engineering, technical, and Scientific
personnel, at industrial plants, research inotituteo) and design offices working
in the field of corrosion-protection of stainless steel, high-streng-th structural
steel, and light-alloys.
j A. I.; CIEBOTAREVA, 1. 1.;
to
"Investigation of the Processes of Anodizing Aluminum Alloys in Oxalic Acid,
Korroziya i azshch1ta metallov (Corrosion and Protection of Metals), Moscow,
Oborongiz, 1957, 366 P-
PURPOSE: This book is intended for engineering, technical, and scientific
personnel, at industrial plants, research institutes, and design offices
working in the field of corrosion-protection of stainless steel, high-strength
structural steel, and light alloys.
SOV/137-58-11-21151
Translation from: Referativnyy zhurnal. Metallurgiya, 1958, Nr 11, p 188 (USSR)
AUTHORS: Golubev, A. 1. , Tumanov, A: N. , Filippova, A. P.
TITLE: Behavior of the Structural Components of Aluminum Alloys During
the Process of Chemical and Anodic Staining in Sulfuric Acid
(Povedeniye strukturnykh sostavlyayushchikh alyuminiyevykh
splavov v protsesse khimicheskogo oksidirovaniya i anodiro-'aniya
v sernoy kislote)
PERIODICAL: V sb. : Korroziya i zashchita metallov. Moscow, Oborongiz,
1957, pp 328-341
ABSTRACT: The behavior of various structural components of cast At alloys
during anodic (A) and chemical (C). stairdng was investigated. A was
continued for 40 min in H2S04 Of 200 g/liter concentration at 180C
and a cathode cd of 0.6-1 amp/dm2. It was found that alloys cast
under pressure are anodized at a higher voltage than chill-cast
alloys. C was conducted in a solution containing (in g/liter):
Cr03 3 and NaZSiF6 3 at 18-200 during 10 min. Before the C and A
a part of the surface of the alloy was etched in a 0.50/o HF solution.
Card 1/2 Successive metallographic analysis of the specimens after etching,
SOV/137-58-11-23151
Behavior of the Structural Components of Aluminum Alloys (cont. )
C, and A made it possible to establish that in case of a greater Cu content (4,15~6)
the alloy consists of a solid solution and the chemical compound GuAIZ. During A
a film forms only on the surface of the solid solution. The chemical compound is
etched away. Upon investigation of alloys containing an appreciable amount of Si
it was established that the anodic film is then also formed on the surface of the solid
solution only. The surface of Si crystals remains unchanged. Upon either chemical
or electrochemical treatment of alloys no discernible oxide film could be discovered
on the surface of the Si crystals. Addition of up to 10.46 Zn to Si alloys shows no
appreciable effect on the behavior of the alloy during A and C. Alloys containing Mg
have, along with the solid solution, an Mg2Si component which is completely dis--
solved during the A of the alloy.
Y u. P.
Card 2/2
SOV/1 37-58-10-21376
Translation from: Referativnyy zhurnal, Metallurgiya, 1958, Nr 10, p 132 (USSR)
AUTHORS: Cbebotareva, 1. 1. , Golubev, A. 1,
TITLE: Investigation of the Processes of Anodizing of Aluminum Alloys
in Oxalic Acid (Issledovaniye protsessov anodirovaniya
alyuminiyevykh splavov v shchavelevoy kislote)
PERIODICAL: V sb. : Korroziya i zashchita metallov. Moscow, Oborongiz,
1957, pp 342-353
ABSTRACT: In the process of anodizing of Al and its alloys (AMg, AMts,
and D16) in 30/0 oxalic acid a decrease in anode cd is observed.
For example, during the anodizing of Al and AlMg for 2one
hour, the cathode cd decreases from 5 to 1.4 amp/dm ; in the
course of anodizing of D16, it decreases from 5 to 2. 8 amp/dm2;
the thinnest films (F) form on the D16 alloy, and the thickest
ones on the AMg alloy. The porosity of the anodic films was
determined by the gravimetric method, i. e. , by filling of the
pores with oil. The greatest porosity was observed on D16
alloy and the least on Al. The rate of dissolution was estab-
lished for the dissolution of oxide F in 370 oxtlic acid proceed-
Card 1/2 in8 simultaneously with its growth. The highest rate of
SOV11 37-58-10-21376
Investigation of the Procf!sses of Anodizing of Aluminum (cont. )
dissolution of anodic F was observed for D16, ...e lowest for Al; this is
explained by the different porosity and development of the surface of the F.
The electrical insulating properties of the F can be considerably improved
by filling the pores with 1154-grade (TUMKhP IQ 13-43) glyphthalic-oil
lacquer.
L. A.
1. Aluminum alloys--Processing 2. Oxide films--Decomposition
3. Thin films--Porosity 4. Oxalic acid--Performance
Card 2/2
SOV/ 137-58-9- 19601
Translation from: Referativnyy zhurnal, Metallurgiya, 1958, Nr 9, p 210 (USSR)
AUTHORS: Golubev, A.I., Makarov, N.A., Samokhvalov, L.N.
TITLE- -T-.he-BqTMff"g009~,o_f Oxide Films Obtained by the Anodic Oxida-
tion of Aluminum and its Alloys (Napolneniye okisnykh plenok,
poluchayemykh anodnym oksidirovaniyern alyuminiya i yego
splavov)
PERIODICAL: V sb.: Korroziya i zashchita metallov. Moscow, Oborongiz,
1957, pp 354-367
ABSTRACT: The causes of the appearance of "white spots", which form
upon the building up of an anode oxide film (F) in tap water at
90-950 were investigated. It is assumed that the process of
building up of F in water acidulated with HZS04 should be re-
garded as the chemical reaction of the solution with the oxide
F. The "whiteness" (W) may appear as a result of insufficient
time for building up the F or as a result of its treatment in
water at low pH (2.8-3.9). In the latter case, probably, the
oxide F reacts not only with water but also with the S042-
forming on the walls of the pores of the AlZ(S04)3 and other S-
Card 1/2 containing compounds which contribute to a stronger
SOV/ 137-58-9-19601
The Building Up of Oxide Films (cont.)
adsorption of water or lacquer solvent during the building up and subsequent
coloring. This causes the appearance of W. The local distribution of W
might be the result of an unevenness in the thickness and porosity of F. W
does not appear upon the building up in water at pH 4. W appearing earlier
disappears upon the second building up at pH 4.5. A new method for color-
less building up anode F on plated material in a solution containing 10 g/I
NH4N03 and 0.05 g/I (NH4)ZHP04 was developed. V. G.
1. Aluminum--Oxidation 2. Oxide films--Development 3. Electrolytes--Properties
4. Sulfuric acid--Applications , 5. Water--Perforrrance
Card Z/Z
PHASE I BOOK EaWITATION SOV/4535
Vaesoyuznyy sovet neucbno-tekbnicheakikh obshchestv
Mezhkristallitnaya korroziya. I korroziya metallov v napryazhennom sostoyanii
(Intercrystalline and Stress Corrosion of Metals) Moscow., Mashgiz., 1960.
358 P- 3.,000 copies prii3ted,
Ed.: I.A. levin ciencee* Ed. of Publishing House*.
., Candidate of Technical 8 1
1.1. Leenichenko, Engineer; Tech. Ed.: V.D. Elfkind; Managing Ed. for
Literature on Metalworking and Inatrument Naldng (Mashgiz): V.V. RzhavinSkiy,
Engineer; Editor~al Board: I.A. Levin, Candldaie~ of Technical Sciences
(Chair=).. V.P. Batrakov, Candidate of Technical Sciences., V.M. Nikiforova,
Candidate of Technical Sciences, and A.V. Turkovskaya., Candidate of Technicel
Sciences.
PURPOSE: This collection of articles Is intended for technical personnel concerned
with problems of corrosion of metals.
COVERAGE* The collection contains discussions of intercrystalline corrosion of
SQ;iess steels and stress corrosion of carbon steels, lov-alloy and stainless
steels, and light-weight and nonferrous alloys. The tendency of steels of
Cardr~
Interc:Mtalline and Stress Corrosion of Metals SOV/4535
various composition and systems to corrode under certain conditions is discussed
and the nature of corrosion and corrosion cracking Is analyzed. No personalities
are mentioned. Most of the articles are accompanied by bibliographic referencesj,
the majority of which are Soviet.
TABLE OF CONTENTSs
I. GENERAL PROBLEMS
Arkharov., V.I., Doctor of Technica'1 Sciencesp Professor, Intercrystalline Internal
Adsorption of Dissolved Admixtures and Its Significance for Intercrystalline
Corrosion Problems 3
GoLqbff-'.-A.I, The Role of rntermetallic Compounds in Selective Corrosion
Processes 15
II. UMOTALLINE COMOSION OF STAINLESS STEELS
Cheskis,. Kh. I.., Candidate of Technical Sciences.. 3.I. Vollfson., and Yu. S.
Medvedev., Engineer. Effect of Slow Heating on the Tendency of lKh18Nqr
Steel Toward Intercrystalline Corrosion 27
C ard, 2A.9-
DID, Iosif Lovovich; Qjg~~IA ~I~oktor takhn.naUkt otvoredep
retsenzent; IOPA, L.A., prof., doktor khim.nauk, reteenzent;
VEMKIff. S.G., prof., reteenzent; BAMITMM, A.L., red.izd-va;
KAKOI, Te.T., takhn.red.
[Atmospheric corrosion of metals] Atmoofernaia korroziia matellov.
Koskva, Izd-vo A)wd.nauk SSM, 1960. 371 p.
NmA 14:1)
(Corrosion and anticorrosives)
PHASE I BOOK EXPLOITATION SOV/5749
Golubev, Andrey Iovich
-- ----------
Anodnoye okisleniye alyuminiyevykhoplavov (Anodic Oxidation of
Aluminum Alloys) Moscow, Izd-vo AN SSSR$.1961. 198 p. Errata
slip inserted. 2800 copies printed,
Sponsoring Agency: Akademiya nauk SSSR. Institut fizicheskoy
khimii.
ReBp. Ed.; I. L. Rozfnfelld, Doctor of Chemical Sciences; Ed.
of Publishing House: A. L. Bankvitser; Tech. Ed.: G. N.
Romanov.
PUB-POSE : This book is intended for electrochemists and metal-
lurgists, and for technicians and specialists concerned with
anodic treatment of parts made from aluminum and its alloys.
COVERAGE: q-%e book has been designed to fill the need for a
aystematized survey and summing up of the voluminous literature
r
Anodic Oxidation of Aluminum (cont.) SOV/5749
on the various ohemical and electrochemical methods for tree-'-,-
ing and finishing the surfaces of aluminum and its alloys. It
zerveB also to report on the laboratory investigations of the
author and his colleagues who, throughout their experiments,
i,sed the same alloys under rigidly determined experimental con-
4itlons (volume of solution, electrolyte temperalure, mixing
r-1-ficieney, etc.). Particular attention is given to the process
of anodizing aluminum alloys and to the physicochemioal properties
of anodic films. Problems of the corrosion of aluminum alloys
and methods of preparing a surface for anodizing are also con-
sidered. The present work is based for the most part on studies
made by the author In collaboration with A. N. Tumanov, N. A.
Makarov, and workers at (unidentified] factory laborat,-.ries
1. 1. Chebotareva and A. I. U anskaya. A. N. Tumanol. and N. A.
Mak-arov assisted In Mr.. 2 8 and 9; 1. 1. Chebotareva, in
, 7, t~
Ch. 6; and A. I. Utyanskaya, in Ch. 4, The author thanks I. L.
Rozenfelld, Doctor of Chemical Sciences, P. A. Akoll.zin, Doctor
of Technical Sciencesj A. V. BelobzheBkiy, Candidate of Chemical
Seiencea, A. P. Filippova, A." N. Samokhvalov, P. IT. Strekalov,
Card 2/6
Anodic Oxidation of Aluminum (Cont.) SOV/5749
and M. N. Roa?ldn. There are 112 references: 48 Soviet,
41 ~nglish,22 German, and 1 French.
TABLE OF CONTENTS:
Introduction 3
Ch. 1. Corrosion of Aluminum Alloys 5
Aluminum alloys 1 5
General corrosion of aluminum alloys % 5
Theory of intererystallite corrosion and of corrosion
cracking of aluminum alloys 17
Ch. 2. Preparation of the Surface of Aluminum Alloys
Before Anodizing 27
Degreasing and pickling of the surfaces o4V alloys 27
Theory of the electrolytic and chemical processes for
polishing metals 30
0 a", 3/b
GOLUBEV, A,..I j_BEWBZIfESKIY, AN,; IlIKILLULOVSKIY, YuJI
"Theory of corrosion and metal protection" t7 N.D. Tomashov.
Reviewed by A.I. Golubev, A,V. Be-Lobzheskii, 1U.N. Mikhailovskii.
Zhur.fiz.khim, 35 n'o.12:2825-2826 D 361. (MIRA 14:12)
(Metals-,Corrosion)
(Tomashov~ 14D.)
~7,
TOMASHOV, N.D.,, doktor khim. nauk, prof., otv. red.; GOLUBEV* A I
--0' iU
doktor tekhn. nauk, otv. red.; PALEOLOG, Ye.T.-,-sn-a~.-
nauk, red.; ALITOVSKIY, R.M., kand. khim. nauk, red.;
MIROLYUBOVp U.N., kand. khim. nauk, red.; ARKHANGELISKAYA,
M.S., red.; ISLENTIYEVA, P.G.,, tekhn. red.
(Corrosion of metals and alloys] Korroziia metallov i aplavov;
sbornik. Moskva, Metallurgizdat, 1963. 382 p. (MIRA 16:5)
(Corrosion and anticorrosives)
ACCESSION NR: AT4013988 S/3070/63/0001000/0193/0195
AUTHOR: Golubev, A. 1.
Strokalov, P.V.
TITLE: Semiautomatic Installation for measurement of potential on the surface of alloy
microcomponents
SOURCE: Novy*yc mashiny*1 pribory* dlya ispy*tanlya motallov. Sbornik statey. Moscow,
Metallurgizdat, 1963, 193-195
D
TOPIC TAGS: alloy surface, potential distribution, surface potential measurement,
microgalvanic couple, corrosion, aluminum alloy, aluminum corrosion, nickel aluminuni
alloy, nickel alloy
ABSTRACT: The corrosion rate of alloys frequently depends on the presence an(I ci~cctive-
ness of microgalvanic couples on the metal surface. An installation has i,cen coil: ~ ..-~ leted
by the authors which is capable of determining and recording potential dUrnrci,:cs between
alloy-structure components several decades of microns large, with a precisiua up to fractions
of a millivolt. The Installation is illustrated in Fig. 1 of the Enclosure. Electrogalvaaic
Card 1/4~,-
t2
ACCESSION NR: AT4013988
potentials between the structure components of an alloy are measured, using the compensation
method, bya cathode voltmeter having an input resistance of appro)dmately 150 megobins
and provided with a high-resistance potentiometer PPTV-1. The cathode voltmeter repre-
sents a simple electrometric amplifier, fed from a battery. The test specimen, having a
smoothly ground surface, Is mounted In abath filled with electrolyte, une3rneath a microscope
on a micromanipulation table, permitting observation of a desired region on the specimen
surface. A,capillary is fastened to a micromanipulation column and is filled with electrolyte.
The tip of this capillary can be located at a close distance over the spot investigated on
the surface of the specimen. For electrochemical measurementB, the internal diameter of
the capillary must be several times smaller than the dimension across the crystallite
investigated. At its other end the capillary is enlarged and is connected to a calomel half-
cell. The body of the specimen is connected to the negative pole of the input side of the
cathode voltmeter by an insWated conductor. The positive polo of the cathode voltnieter
input side is connected to the negative pole of the ~otontiometer PPTV-1, the positive pole
of which is connected to the calomel half-coll, closing the galvanic chain. The high-
resistance potentiometer, together with the cathode voltmeter, permits compensating the
Card 21W,-
ACCESSION NR: AT4013988
major part of the potential difference between the calomel half-cell and the metallic electrode
on the specimen surface. 7be remaining smaller part of the potential difference Is ampli-
fied in the cathodo voltmeter and can be measured on its output side by a microammeter or
galvanometer with a luminescent scale. When used together with the microammeter M-95,
the obtainable sensitivity of the cathode voltmeter Is from 100 mV to 0. 2 mV per division.
The potential of each investigated point of the specimen i~ determined by reading the decade0i
off the potentiometer, and the units on the scale of e microammeter. A photographic
device is focused on the luminescent scale of the Oroarnmeter and records the uncompensaW(l
potential changes on the surface of the specimen, while the specimen is moved horizontally
underneath the stationary capillary tip by operating, at certain Intervals, a sclsyn coupl'cd
to the micromanipulation table. At the same time, the selsyn actuates a drive in the photo-
graphic recorder, causing a movement of the recording roll-film, synchronous with the
horizontal dislocation of the specimen underneath the gapillary tip. For example, Fig. 2
of the Enclosur'8 shows curves of potential distributton of the surface of a specimen of
aluminum-base alloy with 8% nickel In. 0. 1N NaOft at room temperature, obtained with ~ho
above described Installation. The structure of the alloy consisted of the eutecLic AI+NiAI3-
Card 3/0~
ACCESSION NR: AT4013988
Different size crystals of the intermetallic NiAl. were scattered on the background of the
eutectic, In the investigated alloy, the intormethIlic phase represents the cathode, and a
potential difference of 12 mV has been measured between the anodic background and the
intermet.dlic phase. It has been found that this potential difference decreased with time
(see Fig. 2 of the E nclosure). Orig. art. has: 3 figures.
ASSOCIATION: Institut fizicheskoy kh1mU AN SSSR (Institute of Physical Chemistry,'
AN SSSR)
SUBMITTED: 00 DATE ACQ: 2OFeb64 ENCL: 02
SUB CODE: MM NO REF SOV: 000 OTHER- 000
ACCESSION NR: AT4043074 8/0000/64/000/000/0204/0221
-A I 19inberg, A. M.
AUTHOR: Grachava, M. P., Golubev,
TrrLE: structure of opaque oxide films on aluminum as indicated by electron micro-
scope studies
"SOURCE: Mezhvuzovskaya konferentaiya po'anodnoy zashchite metallov ot korrozii. let,
Kazan, 1961. Anodnaya. zashchita metallov (Anodic protection of metals); doldady*
koderentaii. Moscow, Izd-vo Mashinostroyonlye, 1964, 204-221
TOPIC TAGS: anodized aluminum, anodized aluminum alloy, anodic oxide film, anodic
film structure, electron microscope structural analysis, carbon collold'replica method,
metal hydroxide penetration, film filling effect, current density, anodic film pore, film
pore dimension. aluminum "ooo, aluminum AOO, aluminum AD-1, aluminum alloy
g, aluminum alloy D-1, aluminum alloy D-16, aluminum
AMts. aluminum alloy AM oxide
film, aluminum corrosion
ABSTRACT: The mechanism of formation and structure of opaque oxide films was
attkiled 6n samples of aluminum "000, AOO, ADI and aluminum alloys Dle DIG,
-1/3
V: ACCESSION NR- AT4043074
AMto and AMg (compositlons given). Samples were prepared by chemical degreasing
and bleaching (30% KNO *), then anodized in various baths under different conditions of
J temperature, voltage, Aration and pit'. Structural analyses of the films obtained
-colloid replica method and a magnification of 22000:1 on an electron
utilized the carbon
microscope EM-3. It was established that opacity is not governed by sample composition,
'nor can it result from penetration of metal hydroxides into the film pores or t6a fitting
of films, but probably depends on film structure and the corresponding quantity and
dimensions -of -the pores. Stepwise modification of the current density facilitiates formatign
Of an opaque film. The presence of pores and a cellular structure was confirmed. The
latter Is rearranged as the current density Increases by stages; the oxide cell dimensions
increase in the cell formation area and the number of 6ella per unit of surface decreases
J corr~apondlngly. Pore diameters In the surface layers of films vary little durhg
oxidation. A sharp discrepancy develops between the number of cello on the metal
surface and the number of pores on the external surface of films. Ile number of pores
becomes greater than the number of cells when the currAnt density is Increased by stages.!
2/3
Card
lip 0
ALI - lip r
L '2005-66 -WTwi~tMt) -A
AZZ NR, XT6013788 tA) SOURCE CODE: ua/0060/65/000/0007/0059/0079-
AUTHOR: Golubev, A. I.; Ronthin, M. N. J/
ORG: none
TITLE: Electrochemical and corrosion behavior of aluminum-base binary alloys and
intermetallic compound 9
SOURCE: Korroziya metallov i splavov (Corrosion of metals and alloyo)o no. 2.
Moscow, Izd-vo Metallurgiya, 1965, 59-79
TOPIC TAGS, 'Aluminum base alloy, binary alloy, electrochemistry, corrosion,
intermetallic compound
ABSUACT: The binary Al-base alloys investigated contain components which are alloy
additives (Fe, Nis Ti. Cr, Mn, Sb) and their principal phases are Al-base solid
solutions and the corresponding intermetallic compounds (IMC) (FeA13, NiA13, CuA120
Mg2A13, TIA13, AlSb). Special experiments established that the potential-time
dependence for isolated DIC crystals in a real binary Al alloy virtually coincides
with the potential-time dependence for the corresponding synthesized homogeneous IMC.
Standard electrochemical and corrosion tests along with the plotting of polarization
curves showed that IKC (except Mg2A'3) are cathodic phases while Al is the anodic
phase. The Al-IMC Al B Y pairs in the alkali medium are more active than Al in pair
with the B component Uf the corresponding 114C (B is the cathodic component). 1KC
COM 1/4
potentials occupy intermediate values with respect to the potentials of the compo-
nents of binary Al-base alloys. The corrosion behavior of IMC may be markedly
affected by the component remaining at the surface in the process of the selective
dissolution of the compound. E.g. during the dissolution of FeA13 in O.lN Naoll
during the first 40-50 min its potential becomes somewhat displaced in the positive
direction while the corrosion rate increases at the same time. This is a consequence,.
of the increase in the cathodic surface area of Fe in the process of the selective
dissolution of the DIC. After the potential E = -0.890-0.920 v is reached -- whi~ch
corresponds to the passivation potential of FeAl on polarization curve 2 in Fig. I
-- there occurs a sharp increase in the potential and decrease in the corrosion rate
of this IMC. The anodic reaction with the most negative potential in these condi-
tions is the magnetite-formation reaction:
Me + $OR- Fe304 + 4H20 + 80;
0
Ecalc. , -0.847 v.
Hence it may be assumed that the passivity of FeAl 3 is due to the formation of Fe303
at the surface of the fine-disperse iron remaining after the selective dissolution of
Al from this IHC. Hydrog6a overvoltage for L14C of the Al B type in alkali (Naoia)
and neutral (NaCl) media is lower than for the cathodic cL;Onent Gf the corces-
ponding compounds when b b in the rexion of Tafel curves, An analysia of the
-AIXBy-- 4--l-,
------ ----
Card 2/4
-[-'ACd-NRi-- -AT601378a-- -
ej
4i .1.0- -
0 !
curveli
to
altminmi-- 2 Fe-Al q 3
in OAN solution of at 25"C
Na&
CIO.
log i (ma/CM2)
Card 3/4
ACC NRi AT6013788
anodic behavior of INC shows that, from the electrochemical standpoint, the diasolu-
tion of such compounds as CuAl or KA12 in the presence of their self-dissolution
2
potentials cannot involve the simultaneous passage of both components into the
solution. These findings should contribute to the formulation of a unified theory of
the corrosion of alloys which 4akes into account the special features of the corrosioj--
.of solid solutions.146eutecticsiand IKC -and their combinations which enterin the
structure of any alloy. Orig. art. hast 12 figures and 6 tables.
SUB CODE-- 020/ 013
SUBM DATE: 19Jul65/ ORIG REF: OTH REF:
V.
Card 4/4 _Xc_
AMOR:-.-Golubev, A. L
ORG: none
Ul K2rovi~j Y~L- _H.
TITLE: Corrosion 9f aluminum and titanium in clearance gaps
SOURCE: Korrozlypnuetallov i splavoV (Corrosion of metals and alloys), no. 2.
Moscow, 1zd-V0 Metallurgiya, 1965, 351-358
:TOPIC TAGS-. aluminum alloy, titanium base alloy, copper containing alloy, sea water
corrosion,.oxygen, shipbuilding engineering/AVOO aluminum, AMg-5 Al alloy, DItp Al
alloy, VT-lD Ti-Cu alloy
ABSTRACT: The article deals with the processes of the decrease in 02 concentration i
clearance gaps, the effect of 02 and pH value on electrode potentials, and the work o
macro-corrosion pairs, as investigated by a previously described method (Vlanovskiy,
1. B., Korovin, Yu. M. ZhM, 1962, 35, 8, 1753). On Al and Ti alloys exposed to Be
water the 02 concentration in the clearance gaps sharply decreases to an insignifican
level owing to the intense rate of con3umption Of 02 for passivation processes in
narrovi gaps; in the case of Al, if this level falls below 0'5 mg 0 per liter, the
potential gets displaced by 500 mv in the negative direction, and ths leads to the
formation of differential-aeration pairs; the attendant hydrolysis of the anodic
1/2
.products of corrosion causes the pH value in the clearance gaps to diminish from 8.0
(normal value) to 3.2-3.4. This, in its turn, leads to an increase in current in-
tensity owing to the decrease in anodic polarizability. Thus, for pure aluminum AVOO,
in the presence of an:.02 concentration cf 0.1 mg/liter the current intensity of the
,;differential-aeration"Spair-..is 10 0a; if, however, given the same 02 concentration,
the pH value decrease6 to 4.0;-the current intensity o increases to 18 pa.
,~ the pa
A similar pattern is observed'for the Al alloys ARg-5tand D16.t As for Ti, it was
found that, while it did corrode to a slight ex-tent in narrow clearance gaps, it re-
--mainvas-highl c a sistant-An-sea wa-t#-r as~-it--is- -under other conditions;
thif -durrin Lifiddi-c--p-o-la-ri-z-a-t-i-o-n- pH -.;value- does-- -n-o--t-----d-e-c--r-e--a-se---i-n --the--
thereasow is t
C16a'rance gaps of Ti. Cu~treated Ti is somewhat more corrosion resistant, specimens
of a Ti-Cu alloy.'(VT-lD)\Were tested for 18 months in sea water and it was found that,
while some chara6t_e_r_f_s_ETc- corrosion &rose an the barnacle-encrusted areas, the depth
of this corrosion was insignificant -- of the order of 0.01 mm; even this slight
corrosion, howeverp can:be eliminated if the use of Ti to protect the underwater part
of-ship's hulls against barnacles is combined 4ith the application of ultrasonic
vibrations, Orig. am-hasa
5 figures.and I table.
na
7
Z
_jA, -1.1;' 4
?
T~
2/2
16
N S
________L-28543_66---'EWT(mjM- EWA(d-)/EVP(U
roC!, i-An-IGD---- j 78 S~4
ACC NRt AT6013810 (N) SOURCE CODE: UR/0000/65/000/000/0366 03
S4.-
AUTHORt-.Golubev, A. L; U Korovin, Yu. H.; Se V. F.
ORG: none
TITLE: Effect of hydrogIn sulfide on the corrosion of stainless and carbon steels
SOURCE: Korroziya. metallov L splavoV (Corrosion of metals and alloys), no. 2, Moscow,
Izd-vo Hetallurgiya,-- 19651 366-378----
TOVIC TAGS: stainless steel, carbon steel, seek water corrosion, hydrogen sulfide,
hydrogen ion / IKhl8N9T stainless steel, lKhl3 steel, St. 3 carbon steel
ABSTRACT: H2S in the sea is produced by sulfate-reducing bacteria which proliferate
on barnacle-encrusted ship hulls and subsurface structures. In this connection, for
stainless steel the effect of H2S on electrode potential was investigated as a cri-
terion of corrosion resistance of the steel. For carbon steel, the effect of H2S on.
both the electrode potential and the self-dissolution processes was investigated. The
experiments were performed in the presence of 02 concentrations of < 0.1 and 9.0 Mg/
/liter, variation in pil value from 8 to 2 and variation in H S. concentration from 0
to 100 mg/liter, 02 was removed by blowdown with N2 extractei from air. The air,
flowing via flow meter I (Fig. 1) and safety flask 2, entered cylinders 3-5 contain-
ling an alkali solution of pyragallol in which it was relieved of most of its 02. The,
Card 1/4
ACC NRi AT6013810.
io
Fig. 1. Diagram of setup for investigating the effect of hydrogen sulfide on
the electrode potential in the a:bsence of oxygen:
-1- flow meter; flask-, 3, 4, 5 absorption. :cylinders;,'_k_-: tubular
furnace; LVLLf _~hsie_'Way Y4~j~.. 8_-.t_es_t...vessel; ..9-magneticstirrer; - 10 !!._samp1er;_
12, 13 - safety flasks; 14 - vessel for producing H 2S; 15 - separatory funnel;
16 - two-way valve; 17 teat specimen; 18 --,electrolyte; 19 calomel electrode
20 - potentiometer
C,rd 2/411,
NR-j____A T6013810
I" remaining 02 was absorbed in tubular furnace 6 containing copper chips heated to 6000
C. The passage of air was facilitated by rarefaction produced with the aid of a fore-
-pump, with the rate of air inflow- being determined by flow meter lo Pure N entered
vessel 8 via ~'thre-e way.valve 7.To accelerate the process of 02 removal, the2solution wa
stirred with magnetic stirrer 9, The samples were collected via tube 10. H2 S was pro-
duced by reacting HC1 with a titrated Na 2S solutiono The electrode potentials were .
measured by means of the P-4 potentiometer and anodic polarization curves we5e plot-
ted by the potentiostatic method on using cylindrical specimens of IKhIBN9TPlKhl3 4
and St. 3 steels. The experiments were performed in Black Sea watei--(pil. ~B.ZT.-f
Findings: H2S and the intermediate products of its oxidation definitely affect the
electrode potentials and corrosion of stainless and carbon steels. Thus ' as the 112s
concentration of sea water increases the electrode potential is displaced in the
minus direction owing to the sharp decrease in 02 concentration stemming from the con
sumption of 02 for the oxidation of H 2S. When the PH of sea water is
S; 3 - 35 mg/lRer control
t. H 2 H2S; 4
wo 04 experiment without H S
2
d
~Q -,4
current density 1, pa/cm2
tration of-sea water is.-- in the absente of 0 the faster the corrosion rate of
steel,becomes. If 0 is present In the solutioq~ ~.Ithe corrosion of carbon steel with
increasing R2S concintrationinitially deer-e'a's"es*owing to the decrease in 02 content,
but-later it increasesi Orig. art. has: 7 figures$ I table.
SUB COM, 'I%-ILWIOTI;I. S=.: DATE: 19ju165/ ORIG RM 018/ OM REP.- 001
Card_4/
7-1
BYUYRINP A.I.;,OLUBEV, A.I.; NEKRASOV, V.Po; CULCY, V.M.; OLIKHOV, I.N.;
-,- ...... . .
I v
XGLKHODZHAYT,, A. .
Making boreholea with. smaller diameter at the -i:keli Mine. Gor.zhur.
no.8:27-30 Ag 165. (MTRA 18z10)
L'2623-66 94T(m)/EPF(c)/ETC/F-iG(M)/T/i7ill)(t)/UrIP(z) /0',W(b) IJP(c) V3/JDAW/WB
1ACCESSION NR: APS011364 UR/0365/65/001/002/0199/0206
620.196 C
.AUTHOR: Golubev. A. I.; Ronzhin, M. N.__
!TITLE., Electrochemical and corrosigR
2perties of intermetallic compounds based
_yE
;on aluminum 5) 14
';SOURCE: Zashchita metallov, v. 1, no. 2, 1965, 199-206
JOPIC TAGSZ corrosion resistance, electrochemistry, electrode potential, inter-
:metallic compound, aluminum, nickel, 5~pprj titanium, magnesium, chromium, man-
,!ABSTRACT: Electrochemical d corrosion properties of intermetallic compounds
ViA13, CUA12, TiAl3p AlSb, M92Sb3, CrA17, MnA16) and pure metals were stud-
led in two solutionst 3% NaCl and 0.1-normal NaOH. The ratio of electrolyte
~Volume to sample surface area In a cell varied within 200-250 ml/cmZ. A saturated
Icalomel half-cell served as a reference electrode. Generally, in alkaline and neu-,
itral solutions, the hydrogen overvoltage on intermetallic electrodes is lower than
o
n
the corresponding Rqre metal ectrodes. In 0.1-normal NaOH solution, the maxi-
;mum potential difference betvee~ the pure components of the intermetallic compounds,
Card 1/4
L 2623-66
1ACCESSION NR: AP5011364
'was 1-15 mV. The electrode potentials of intermetallic compoundad have values in-
between the electrode potentials of the pure metals. The kinetics of
dissolution of the intermetallic compounds is a function of the electrochemical
propertie3 (anodic and cathodic behavior) of the pure metal constituents. In the
region betweed the self-dissolving potential of the intermetallic compound and the
steady-state potential of the cathode component, the anode behavior of the inter-
metallic compound is a function of the properties of the anodic component. The
cathodic properties of the anodic component show up first at very high potential
values. As a result of selective dissolving, the corrosion of the intermetallic
compound is largeJ-r determined by that component which concentratep on the elec-
trode surface. The hydrogen overvoltage, (-E in reference to a nomal hydrogen
electrode) on the intermetallic compounds and pure metals vs. logarithm of current
density, i, is shown in fig. I of t -he Enclosure. The dependence of the eleletrode
potential and the rate of corrosion of FeA13 in 0.1-noimal NaOH at 250C upot time
is shown in fig. 2 oi the Enclosure. Orig. art. has: 4 tables, 3 figures,
ASSOCIATION: Akademiya nauk SSSR, Institut fizicheskoy khimii (Academy of Sciences,
SSSR, Institute of Physical Chemi!Lt ~)Ix,-:~,
SUBMITTED: 06Oct64 --F.HL% t02 SUB CODE: KH, GC
NO REF SOV: 003 OTHERt .007
Card.2/-4---
L 2623-66
'AtCESSION MR.- AP5011364
ENCLOSURE: 01
4* C3 0.- %
cc
44
ir
tv
CArd 3/4
ag
ACCESSION NR: APS011364
ENCLOSURE,', 02
-4 rA4
44
Q cp 0 0
V
0 c:
0.0
en
Ij 0 dA
-c ILI c"
F-4 cl
0 1
04
Card 4A
GOLUBEVI IGITATOV, N.N.
Studyling the rrf~-es-3 Of arf)-
-st
ZuL
Sulfuric and o-yall- 47- R A
TrIstitu+, fizicheskoy khlr
1. .
L~14443-66. EWT,(l)/EPF.(U)-2/T-?/ETC 60-6 WW/Dj
NR: AP6002970 SOURCE CODE: UR/0286/65/,100/024/0144/0144
INMITOR: Golubev, A. I.
7-5
ORG: none
TITLE: A lab)Mi:nth Rump. Class 59, No. 177284
SOURCE, Byulleten' izobreteniy i tovarnykh znakov, no. 24, 1965, 144
TOPIC TAGS: vacuum pump, pump
.ABSTRACT: This Author's Certificate introduces a labyrinth pump based on Author's
Certificate No. 126748. The device is designed for use as a vacuum pump. Expansion
tanks are mounted in the space to be exhausted at the inlet and outlet of the pump.
A recirculation tube connects the expansion tank at the outlet with the working cav.
m
I
1 and 2 - expansion tanks; 3 - recirculation tube.
-8227 6 JD
7-6
P
AC-CNR, --'AT6013,796 Mum CODZ: UR70000/65/000foo f WNW
AUTHOR: Ronzhin, H. No., Golubev, A. L
ORG: none
TITLE: Studies of the passivity of iron, nickel and copper n an alkali medium
SOURCE: Korroziy& metallov.i splavov (Corroslon of metals and alloys), no. 2,
Moscow, Izd-vo Hetallurgiya, 19650 166-179
TOPIC TAGS: corr 9-ion, Plectrochemistry, iron, nickel, copper, electric potential,
sodium hydroxide
ABSTRACT: This investigation, performed with the aid of potentiostatic and
galvanostatic methods, deals with the anodic behavior of Fe, Ni and Cu in 0-1N and
1N NaOH at 250C, and was carried out with the aim of elucidating the mechanism of
dissolution of the intermetellic compounds FeA13, HiAll and CuA'2 (cf. p 59 of this
issue). The change in the potential with time was rec6rded by means of an 31-19
o6cillograph. Findingst Three potential delays were observed on the 3-T (potential-
time) curve of the reduc the thin,
,lion of the oxidation products of Fe forming under
drying film of 1N NaOH)Sblutions The values of thezz delay potentials are in
satisfactory agreement with the values of the equilibrium potentials of the reactions:
the firlt delay El - -0.790 to -0.810 v --, Fe(OH)3 + 3ezt Fe + 30H ; thesecond
delay H - -0.890 v -- Pe(OR)2 + 2ej= Fe + 20C; and the third delay EJ --0.950 to
Card 1/2