SCIENTIFIC ABSTRACT MEANDROV, L. V. - MECHERET, I. B.

• Document Type: CREST
• Collection: Scientific Abstracts
• Document Number (FOIA) /ESDN (CREST): CIA-RDP86-00513R001033210011-9
• Release Decision: RIF
• Original Classification: S
• Document Page Count: 100
• Document Creation Date: November 2, 2016
• Document Release Date: July 12, 2001
• Sequence Number: 11
• Publication Date: December 31, 1967
• Content Type: SCIENTIFIC ABSTRACT

3 / 1 .4 a@-/60/000 lo:,1,2,100 5 /0 20
A' .6 -,.'A' A 3
AUTHORSs Tarnovskly, 1. Ya.; Khaaln, G, A.; F-zieye-,, A@ A,, anI
Meand.rov, L..V..
TITLE& -Plasttcity of some steel graic.--i a,@
PERIODICAL; Iz-eitlya vysshikh uchebrykh zavedeniy. Charraya m6tal,@@rftiya,
Lo, 12, 1960, 63 - 69
TEXTi The @,cnventional laboratory methcds -an cnly g'79 indire:.t data
or, the plaetis'ty in relation to one of the vultt-Ae :)f factors existIng
in r.-3al pre:isi-Irg working processes. It is theref@-re 7fler lelter to use
the simplest t&.st methods - tension and impa-1 1@sndlng, Eighteen alloy
sleel grades cl Jifferent structure group2 an! Eippl',caticns have, teen tested
Using these ccmmon heat tests. The results are presented in tables and
graphs. The !8 grades are divid9d into two groups - "a" and "b" (The
chemical compc9itions are not included). The "all include!33 @' 4 1;11 2 A
U12A), 60C2 (60S2); 18YHBA (18KhNVA); wy,5g (Shn.';SG), - Xl 8WcJT
1Y "N9T) ; 4Y'3 (M13); X17H2.(Khl7N2); H! 2112T @.Khl PNI 2M2T);
,BH2@r'e (Kh'025V).: X25105 (Kh25105); and the lltl@ - P',e (Rlle); X 2 @': H 1. f
Card 1.16,

5 8 /60/000 //0' 2 //00 5/0 20
Plasticity of some steel grades at... Al@ @A'
3
(Kh?'We), 1/13 (lKh13); 4)(14H1482M (41,141114WM); 9A-4el, (EI-4e"). Re.-
lative elongation %) follows two diffar@nt !a-pax a cozitinuc;-e risle fr;-jm
KO t- 2000C (PI g@ I ) a) , and a rise to a maximum and dr-@ af ter 1. t (F;
1, b)@ A common feature of the "b" group, except for K1j,>3N'e, i@@ the high
cartidG c-ontent.. In the Kh9S2 grade 6 changee re43uliarly (Fig 'j c) -
dxops to almoE3*, a half and rises rapidly after the minimum at 900 - ','OOOC.
ReductiDn- cf area %) follows the same 'a-v t,_:t w@th laq-9 !arying ateoluts
b al ues @Ir, the "a" group grades the P grcw@ (-)r stays a,
a,nd ir, the 'It" groip it reaches the maximtir, at 1;000 - 1,100@-C and goes
down. Ar- intense grain growth in the 900 - 1,1000C range is cliaracteristiz
for silch-rome steeil. In most of the stee2 g.,ades Vreached '00% at 1j2000C
or earlier, and 'in some cases it did not exceed 80-90a. Consequently, the
trend of the plasticity indices S and +/at hgh @emperatures @2 practically
the sameg and they are equivalent until the formation of *he ne,-k on spa-@i-
mens, but after it the '-Y value gives a more oomplete p!asticity r-haracteris-
tic. Nevertheless, bot@ factors should be considered ia comtination, The
hall group steel has the highest plasticity through the whcle temperature
range of hc+ pr6esure working, but it must be bcrn in mind +-hat in complex
Card 216

5/146/60/000/012/005/020
Plasticity of sonja steel grades at- A)6't//AI!3
stress.conddtions (e.g. " tube iercing).the prc@erties migh@ be different,
as well as that the obtained 9 and I@ values might not be tr-.;q for *K1.109T,
Kh18N12M2T and Kh17N2 in the case of a high ferrite content. Particular
care Is recommended in selecting the pronefo paraxel@ers (lemperature in
partioular) for the "b" group, for a large part cf theae grades a
high quant1ty of primary carbides and irr.1ludes low-y@eltlng eute@t.,,-,15 in thr,%
Gast structure.4 The impact strength (a,) dr,r wifh raising te9t tempera-
ture from 800 tn 11,250C)C was commo- for all irivegtigatt@i steel grades (F-ig.
2)*. All gradez- (ex.@ept Kh23N18) with a, varying as ' were the m-s, plasti-,,
the spa@imans hant withDut rupture; grades w-th an -,mpac* streng!h varying
aR 2 broke in tests with only few excqptions@ thAy bs.cnged t^ *re grc,up
'It," in tansion tests. The conclusion is that lmpa@t strength 7ariatior, iq
Qp;@@sitQ to the piaaticit4 variation at a high temperature range and cannc,
hi, used for the plasticity indices in thio rase. It must always be evaluat-
ed jointly with dsformation resistance test results in equal *s@', r@onditiona
The rbtained data can be used- to determine the riplim,im temFerature ranire for
d_'fferent steel grades, as well as for the grades Irt.- groups
for 9-imilar techrol;gical treatment. A f,,rther gystamatization -f test da+a
is advised.. Jhq@ra are 3 tables and 2.figuri@;
Card 1/6

Plaastl-31ty cf some oteal b-rades at.-
S'l-481,"6,C)~~00010~2100')10-90 /
A 16 @ /A @ 3 z
ASSOCIATIO14- Usal@o.'.kiy polifekhnicheskiy (Ural In-
stitute)
STJBMILTTEDs Mar@:@h 22, 1960
Card 4/6

MrANMV. L.V.; TARNOVSKIY. I.Ya.; POZDEM, A.A.
Methods for a rapid testing of steel at high temperatnres. Zav.
lab. 26 no.2:201-203 '60. (MIRA 13:5)
1. Urallskiy politekhniclfeski7 institut Imeni S.M.Kirova.
(Steel--Testing)

TARNOVSKIY, I. Ya., prof.; MEANDROVO L.V., aspirant
Mechanical properties of alloyed steels at high temperatures.
Trudy Ural.politekh. inst.no.78:21+-37 160. (KMA 34:5)
(Metals At high temperatures)
(Steel alloys-Testing)

S/148/61/0()0/003/()06/()15
A16l/A133
AUTHORS: Tarnovskiy, I. Ya., Pozdeyev, A. A., Meandrov, L. V., Zhasin, G. A.
Tl=t The d0pendenuo of the defprmation resistance on the ductils proper-
ties of steel in hot pressure working
PHRIODICAL: Izvestiya vyaah-fkh uche-bnykh zavedeniy.. Chernaya metallurgi3ra. no.
3, 1961, 82 - 90
TEXT: Tests have be@eA oeLrried out with the.upxetting of 16 different steel
grades at..900 - 1,2000C and three different deformation ratues: 0.05; 7,5 and 150
sea-1. The article presents details of the experiment, techniques, ',he da'@a ob.&_'n--
ed in the form of.graphs, and derivations of formalae.. The graphx-presert the real
stress value variations with the deformation degree, as well as with deformation
rate at, different temperatures. The gniwth of deformation-resistance lh&rda@-
ing) of some steel grades at LICO - 1,2000C, and a -low deformation rat6 were f,.%,md
to be so insignif:roant that the yield limit or ialtimat4e stiength could'be used as
deformation resistance eharacteriatio, but at. high deformation rates the steel be-
haviour was different, and the con-zlusion was drawn that the effect o@ the de-
formation degree should by all means be taken into acoolint for all the steel types
studied. Me Increase In the deformation rate also considerably raiaed thp de-
Card 1/3

S/148/61/000/00-11/00c,/015
The deperidence of the.. deformait@'on reafstance on A161/AI,43
formation resistanoe. A formula w" derived that, expresses tAi@ behavior of the
maJority of the 16 steel grades with Arafflaient acomracyi
6' = d a + Kln ( 1 +- n (2)
An 0 0
where 6.nn in the deformation resistanaie durl-ng linear, stressed state and rate;
69 - the deformation resistance at, zero deformation-rate; - the deformat-fo--
ralte t 4, ' .4' � 0
during stat o ea.s n - an:v deformation rate.; K - a coeffikient that
depends on the steel glef se4eratare and deformation degree,. in kg/mm2. rns
coefflolent presents in a phys.-Ioal aesse the "to'Agh resistance of metal t-. dafor-
mation". Its connection wift-h the toughness faator in analyzed; and a table is
inaluded giving the =rorricial valjea of K andCp- iialculated fo-r two o: the e"-'2--!-ied
steel grades (at different temperatures and defg.-mation rates) - 18XHBA (-,,8aNvA%
-nd XI8W2M2T (KhI8NI2142T) steel. Zt, is pointed out that the simplified
Ey-equation for flat employed usually Ln pressure working theory
5 1 - 6' 3 - 1.15e g ('5)
does not suffioiently express the real proper-.,i-is of steel at ILJL@h . temperai;!.Arem
The new equation of tough-dufitile state derived from experime-n-!;al da@a is
Card 2/.3

3/148/61/000/0()3/006/015
The dependence of the 4.4-formation resistance on the ... A16l/A133
63 ' 1-156; + I ' an (6)
hl_@e
where Is the mean Uor the entire body volume) value of the toughness co-
Officient"at tbe given deformation momeut, and T' - the extrapolated yield limit
that accounts at any given moment for the degree of the preceding deformation
of the body. Equations are derived also for the case of any stressed state. The
numerical values of the X coefficient render it 3-asy to find the toughness coeffi-
cient for heated steel also under dJ_ffw_,snt,deformation conditions. There are 7
figures and 4 Sovie*-bloe references. .41
A3SOCIATIONt Ural'skiy politekhninheskiy-institut Me Ural-Polyteohn1a Institn'be)
SUBMnVMt July 20, 1957
Card 3/3

,.- TARNOVSKIY, I.Ya4; POWNEV, A.A.; MEANDROV, Love
Physical equations for the mechanics of a deformed Sew in the
press forging theory. Izv.vys.ucheb.zav.; cherimemete no.4:67-78
161. (MIRA 14:4)
1. Urallskiy politekhnicheskiy institnt.
(Forging) (Deformations @Mechanics))

USTIW", V.A.; NEANDROV,-L.V.
Investigating the deformation of a steel-nickel bimetal under
the affect of hot rolling. TSvet. met. 36 no.6.6/v-68 Je 163.
OURA 16:7)
(Laminated metals) (Rolling (Metalwork))

S/133/63/000/002/0W0141
A054/A126
AUTHORS: jkAnk2V.1L-V.- Candidate of Technical Sciences, Ustimenko, V.A.,
Engineer
TITLE., At the Tsentral'nyy nau&.no-issledovatellskiy institut chernoy me-
tallurgii im. I.P. Bardina (Central Scientific Research Institute
of Ferrous Metallurgy im. I.P. Bardin)
PERIODICAL: Stal', no. 2, 1963, 157
TEXT: Atthis Institute and the Test Plant of TsNIICW4 two methods of bi-
metal production were tested: coating by casting and rolling. in packs. The
best results were obtained when rolling 4-layer ayumtric packs with separating
layers, The reduction for such packs - between 1,250 and 9OO'C must be at least
50%; the contact surfaces need no finishing. Oil films must be prevented from
entering the packs to eliminate lamination. The distribution of specific reduc-
tion for the single layers depends on the ratio between the deformation resist-
ances of the layers at given temperatures and on the degree and rate of their
deformation. Between 800 and qOO*C the deformation resistance of CT-3 (St-3)
Card 1/2

S/133/63/000/OOP_/O1i/o1'4
At the Tsentrallnyy nauchno-issledovatellskiy .... A054/A126
grade steel exceeds that of nickel; the opposite occurs at 1,100 - 1,200 C. A
new stainless material.has been developed at the Kommunarskly metallurgicheakiy
zavod (Kommunar. Metallurgical Plant). It consists of large-sized bimetal,
double-layer sheets with a nickel coating. The material Is rolled in 4-layer
packs (240 X 750 X 1,700 mm) on the 2,&)0 stand; Next 11 -4- 13 X 500 -t 1,700 x
x 4,000 -4- 6,000 = sheets were coated with a 2-mm nickel layer and used in mak-
ing equipment for chemical plants. The test sheets diqplayed a 32 - 46 kg/mmF
strength limit, 23 - 32% relative elongation and an inter-layer shear resistance
of 19 - 29 kg/mm2. Upon analyzing, a considerable C, Si, Ni and Fe diffusion
was observed in a 30 - 35 p, thick bader layer. The production costs of these
bimetal sheets are not higher than 28% of the production costs of pure nickel
sheets; the process saves 2,250 rubles/ton and 700 kg nickel/ton of sheet.
Card 2/2

MMDRCNp @.V.; USTIMENKO, V.A.
Investigating the d4'formation of the layers of a,b jftUa during
its working by pressure, Izv. vys. ucheb. zav,j'ir@.. met. 6
no.11:109-112 163.* (MIRA 1?-3)
1. TSentrallnyy nauchno-issledovatellskiy institut thernoy
metallurgii.

MANDROV L.V.; GOLOVAMENKO, S.A.; TARLINSKIY, D.I.4 BYKOV, A.A.
Pack rolling of two-layer stainless &W. Biul.tekh.-ekon.inform.
Gos.nauch.-tssl.inst.naucb.i tekh.tn?@rm. 16 no.8.-6-9 063.
(MM 16-10)

GLADYREVSKAYA, S.A.; _L.V.! GOLUMiatKO, S.A.; BYKOV, A.A.;
KLI11OV, I.Ya., doktor tekhn. nauk, prof., retsenzent;
BIAGOSKLONOVA, N.Yu., inz-h., red.
(Two-layer steel in chemical machine building] Dvukhsloinye
stali v khimicheskom mashinostroenii. Moskva, Mashinostroenie,
1965. 151 P. (MIRA 18:5)

L 36134-66 E'RT(m)/EWP(Y)/T/E7$P(t)/FTI/EWP(k) - IJP(C) JD/WHW
ACC NR. AT6016760 (N) SOURCE CODS: UR/2776/65/000/042/0045/0054
AUTHOR: Neandrov, L. V.; Bykov, A. A.
ORG: none
TITM: Rolling@o_f large-sized bimetalsheets with a cladding layer of highly
deformation-resist
ant/steel If 16
SOURCE: Moscow. Teentrallayy nauchno-issledovatellskiy institut chernoy metallurgii.
Sbornik trudov, no. 42, 1963. Proizvodetvo bimetallow (Production of bimetalo),-45-54
/" E 'rj9 A-
TOPIC TAGS:,icorrosion ra$Lstant steel, carbon steel, bimetal, metal claddLng, met&L
rolling, chemical plant equipment / OKh23N28K3D3T corrosion resistant steel
St.3 carbon steel
ABSTRACT: The article describes the development of the optimalfegime fer the fabri-
cation of bimetal sheets wi h a cladding layer of OKh23N28M3D3T F(BX943) corrosion-
-resistant stainless steelj@(O.06% C, 0.8% Si, 0.8% Hn, 22-25% Cr, 26-29% Ni, 0.4-
-0.7% Ti, 2.5-3.0% Mo, 0.02% S, 0.035% P, 2.5-3.5% Cu) and a base layer of St. 3
carbon steel, designed for the construction of railroad acid cisterns and chemical
apparatus. The principal problem was that of rolling slabs of HI943 steel into 16-30
mm thick sheets prior to their assembling and welding with sheets of the base metal.
Since the temperature range of hot deformation (1100-1170*C) for 91943 steel is much

L 36134-66
ACC NRI AT6016760
lower than for,st. 3carbon steel, forged sheet bars of 91943 steel were hot-rol)ed in-
to thinner sheets at