SCIENTIFIC ABSTRACT NOVIKOV, I.I. - NOVIKOV, I.T.

• Document Type: CREST
• Collection: Scientific Abstracts
• Document Number (FOIA) /ESDN (CREST): CIA-RDP86-00513R001137430003-9
• Release Decision: RIF
• Original Classification: S
• Document Page Count: 100
• Document Creation Date: November 2, 2016
• Document Release Date: July 19, 2001
• Sequence Number: 3
• Publication Date: December 31, 1967
• Content Type: SCIENTIFIC ABSTRACT

L 395~9--n'-6
ACC NR~ APt--')'- -
streng th u r vit I" o P, :' ,I . 1. . I t . I ~ I " - ." I . , , I
transfer is given (), ~'; a - P , I ( " : . :
, : t , -, I I ;' , , '',7
magnetic field, Lnu ;.' ". - I - -LSLII; -' .
Orig. a rt. ha s: i u: , , '* I ,1 ~ . I I
SUB CODE: 2() ' _1"A'~ 'I[ L),." .1 i.f .1. ; t'' I o t
Card Z/2 0

L 35890-66 LViT(l )/ENP(e )/EiNF(m)/ E-'iT(m)/T-2/Eiii;(t)/ETI/EiiP(lk 'IIJP(c) MI,16
ACC NR: AP6010869 SOURCE CODE: UP./0115/66/000/OOZ/0033/0034
AUTHOR: Novikov, 1. 1.
ORG: none
TITLE: Resistance to motion and heat exchange in a pipe with a turbulent flow of
an electroconducting liquid in cross magnetic field
I
SOURCE: Izmeritel'naya tekhnika, no. 2, 1966, 33-34
TOPIC TAGS: magnetohydrodynarrLics, turbulent flow, heat exchange
ABSTRACT: The length of the initial pipe segment, under -turbulent magnetohydro-
Re
dynamic Jloyj conditions, is given by; 10:t% IW D. where Re and Ha are taken with
respect to the pipe diameter. The same formula holds true for the laminar flow,
which may be due to the fact that the initial formulas are approximate. The above
Card I /Z UDC: 532.501.312+536.248

L 35890-66
AGG NR: AP6010869
formula is valid for the cases of strong magnetic fields, with large Hal'/Re ratio.
Undcr stabilized-flow conditions, i. e. , with x >, 1,, , the pipe resistance factor is
given by: c a' ( H. where a' is a constanti the pipe heat-exchange factor is
Re
+ +
given by: Nu %t T (Pr) Re H, Orig. art. has: 17 formulas.
SUB CODE: 20 SUBM DATE: none ORIG REF: 002
Card 2/2 'l-a

PNT(m)/T /E-,'.'P (t)/F r I11-1 (c Y,
L 38973-66,
ACC NR, AP6013366 SCURCE CODE: UR/0370/66/000/002/0131/0136
AUTi'0:1: ;ovikov, 1. 1. (,X'oscow); Pollk.n, 1. S. (21-1,oscow); Kasparova, C. V. (1-:0scow),
CRG: none
TITLE: Effect of oxy.gen on $-phase decomposition kinetics in VT15 titanium alloy
SCURCE: AN SSSR. Izvestlya. Metally, no. 2, 1966, 131-136
TCPIC TACS: titanium alloy, oxygen, metal phase system / VT15 titanium alloy
A2ST?.ACT: Since an admixture of oxyren, which Is an -( stabilizer, should 'Mavc. a
pronounced effect on the stability of the supercooled P phWe In titanium 41loys, it
appeared of interest to determine the influence of oxyge~ldn the ile-composition of
the 9 phase in the thermally hardened titanium alloy VT15- Ontaininp 0.08, 0.16, 0.34,
and 0.53,. 02. The decomposition kinetics were studied-yy- 6bans of metallograohic
and dilatometric analyses and hardness measurements. The sta~~ of an increase In
hardness was taken as the start of separation of the o4 phase.,-,As the oxygen content
of the alloy increases, the supcrcooT_ed__#'phnse becomes less stable, and the lncub&-
tion pcriod of o(-phase separation is shortened at all temperatures; the 0(-phase
formations become more and more dispersed, and there is a rise in the temperature of
transition from uniform decomposition throughout the volume of the fl grains to local-
ized decomposition starting at the grain and subgrain boundaries. Oxygen decreases
Card 1/2 UDC; 669.295

3
ACC NR: AP6013366
t:-.o a~,,ount of cj phase in V-115 alloy, raises the te7perature corresponding to the
max1rr:jm volume decrease in Isothermal holding of the Gupercooled fl phase, and har,
only a very sliEht effect on the Incubation period of w -phase formation. The sub-
grain boundaries In VT15 alloy appear during the decomposition of the ~ phase in the
350-550*C rankle, and as the oxygen content Increases, the subprains show up In the
majority of P grains. Orig. art. has: 6 figures and 1 table.
SUB CODE: II/ SUBM DATE: 10Aug64/ ORIG REF: 001/ OTH REF: 003
Ccr.d 2 /2 /,,., .,~ /-'

SOURCE CODE: UlVOU5/66/000/004/00
AUTFjOR: Movikov, I. I. (Correepcnding im-ember AN SSSR)
ORG: none
TITLE: Laws of translatioral-rotational flow of a viscous incompressible liquid
SOURCE: lzmeritellnaya takhnika, no. 4, 1966, 15-20
TOPIC TAGS: liquid flow, viscou-s fluid, Incompressible fluid, lamixtar boundoxy layer,
turbulent boundary layer, rotational flow
ABSTRACT: This is a continuation of an earlier study (Trudy VVA, 1945) of the flow
of an ideal liquid In a cylindrical tube, knd deals with flow of a viscous incom- /
_pressible liquid in devices such as centrifugal nozzles, cyclone separators, centri-
i7ugalre Wigeietora,~and similar apparatus where individual liquid particles or jets
move along helical lines. The transition from the ideal liquid to the viscous one to
accounted for by deriving equations for the conditions in either a laminar or a tur-
bulent boundary layer. Expressions for the tube resistance coefficient are obtained
for both types of boundary layer. The existence of an upper limit of translational
velocity in translational-rotational motion, first demonstrated in the author's ear-
lier paper, is demonstrated for a viscous incompressible liquid and Is shown to be
equal in the letter case to the velocity of propagation of long low-amplitude centri-
fugal waves. Orig. &it. has: 26 formulas.
SUB CODE: aD/ SUBM DATE: 00/ ORIG REF: 002
ca"d 111 'f
UDC: 532.5

-7-7-
L
(c), 0) Pc-4/Pr-4/pu-4
ACCESSION PIR: AP5003509 lj:",(C) S 6411riO010061011910121
AUM:10--J, Tjovikov, 1. 1. (Ijovosibirsk); Sheludyakov, Ye. P. (Havosibirsk)
T-ITV'4: Enlorimental detexm ination of the of sound 'in saturAed vapors of
beriZOW11 carbon tetrachloride and diethyl ether
SOURCE.: hurnal prikladnoy mekhaniki i tekhnichc~zkoy fiziki,
no. 6, 19&1, 119-121
~TOPIC TAGS: sound velocity, saturated 'vapor, benzene vapor, carbm tetrachloride
vapor, diethyl ether vapor
ABSTRA.CT: The article reports on the measurement or the speed of sound in catar-
ated vapors of liquids having low sueface tension. Thet;e measured values were also
cvn~pared with the values calculated by usin". the theoretical formula. The measure-
ments vere carried'out by the standing wave method on improved equilment, described
elsewhere in the literature. The measurements in benzene were ma-de in the 90-
2150C temperature range, in carbon tetrachloride in the 70-262"C, and in diethyl
ether in the 25-190*C temperature range. The value obtained for the s;ee& of sound
in benzene is in satisfactory agreement with the published data, but for diethyl
there id a deviation of 8% between the experi:mental and published (theoretically
calculated) value, probably due to the different degree of purity of the ether.
Card 1/9

L 43725-65
ACCWSION VRP AP5008509
-he experimental and calcuJatea -Mlws lie within the
7he differences-between It 14
limits of experimental error. The comparison of experimental an& calculAted values
was made for temperatures oidficiently removed from critical temperaturtis at uhich
the theoretical formula is rigorously correct. Nevertheless, there is g(*d suree-
ment even at temperatures higher than thoze referred to In tbis.study. Or1g. art.
has: 2 t1gurca, 1, table.,and 1 formula.
ASSOM-TION: none
tUBMrr=:. 2CJun64 =L: 00 SLM CODE: GP,OC
tio REF wv: oo6 OTMR: 001
Card
-2/2

I r j 'N
ACC NRs AT6024908 N) SOURCE CODES
ATITHORS Gruahkov 0. Yo.; Oovikov, L I.1 Semenovs A. Is.
ORGS none
TITIES Hot cracking pf alloya of the Al-Cu-M-Mn system
SOURCES Alyuminiyevyye splavy, no. 4, 1966. Zharoprochriyye I vysokoproohrqye splavy
(Heat resistant and high-strength alloys), 15-20
TOPIC TAGSt hot cracking, aluminum alloy, copper containing alloy, lithium containing!
alloy, manganese containing alloy, cadmium containing alloy
ABSTRACTS The effect of composition on the hot cracking, elongation, and linear
shrinkage of alloys (in the solid-liquid state) of the systems Al-Li, Al-Cu-LI, and
Al-Cu-Li-Mn, wid also of.. VAD23 Industrial alloy was studied. In the Al-Li system, the
_~d' Li
maximum hot cracking Is display by the alloy containing 0.1% ; on the wholev the
dependence of hot cracking on composition to qualitatively the same as in other eutec-,
tic-typo binary syoew. In the ternary AI-Cu-Ll alloys, hot cracking docronvor, with
rising lithium content; tho highor tho copper contont, tho atrongor the influenco of
the lithium admixture. In tLIloys of the quaternary aystom Al-Cu-Li-Mn, lithium do-
creases the hot cracking, but manganese Incronsojit considoraUly by affecting the plaa-
ticity in the solid-liquid state. In VAD23 alloy, similar changes In the content of
012931/66/000/004/0015/0020~
ard 114

L 4 _1R(C'1__ -
ACC NR, A71'6024926 SOURCE Co~~l UR/2981/66/ooo/ooi4/oJ70/0114
AUTHORI SemonovVA. Yo.; Novikov, 1. 1.; Zolotarevskiy,_ V. S.; FAmin, A. 5*
ORGs none
TITLEI Effect of manganese and drconium on the hot cracking of alloys of the Al-14g-
Zn system
SOURCE$ Alyuminiyevyye splavy, no. 4, 1966. Zharoprochny-ye i vysokoprochnyye splavy
(Heat resistant and high-strength alloys), 170-174
TCPIC TAGS1 manganese containing alloy, zirconium containing alloy, aluminum zinc
alloy, magnesium containing alloy, brittleness
ABSTRACT: The object of the work was to determine the effect of ',",n and Zr on the hot
cracking of alloys of the Al-lr~g-Zn system containing various 1-1p,,/Zn ration. The Intro-
duction of Hn into the alloys was found to cause a substantial increase in their hot
cracking because of an expansion of tho temperature range of brittleness, a decrease
of the elongation per unit length, and an Increase In linear shrinkage. Addition of
0.12-0-25% Z.r to alloys of aluminum with magnosilam) inc, and manganese increases
their resistance to the formation of crystallization cracks because of a narrowing of
the brittleness range and an increase in elongation Dor unit length in this range.
It is rocomnended that a high Zr content be used in the filler wire In welding Al-y'g-,
Zn-typo alloys, and that the 111n content of these &Uoys be maintained close to the
,_-Card 1/2

L o8298-67 EW(m)/9WP(w)/EWP(t)/ET1/EWP(k) IJP(a) JDAW/Jlf
ACC NRs AP6031720-- (A)--- -SOURCE CODE'- UIC/0370/66/0001005/0107/0110
AUTHOR S (Hoscow); Novik, Fo So (Hoscow)l In eqb "u,
Go Vo (Hoscow)
ORGI none 113
TITLE: Plastic deformation f alloy in solid-liquid condition
SOURCE: AN SSSR. Izvest iy Hetally, no. 5, 1966, 107-110
TOPIC TAGS: aluminum alloy plastic deformation, solid liquid state
deformation, aluminum copper silicon alloy 9 alloy phase diagram, alwninum
base alloy, solid state, liquid state, ductility, tensile strength, elongation
ABSTRACT: The effect of quantity of liquid phase on the ductility of
aluminum alloy containing 2% cop er and 2% Si has been investigatedo
Specimendl-~ mm in diameter, homogdUzed a-t _0.9_-~-Relting temperature and
electrolytically polished, were subjected to tensile test in the tem-
perature interval betwe folidus and liquiduso Above the solidus
temperature, the binary tectic (a + SO begins to melt and appears
as liquid phase on Rrain boundaries causing embrittlement of.,.7alloy.
From the solidus temperature to 560C, the amount of binary/ebtectic
changes in#LRatficantlyl there is little liquid phase between grains,
no sliding along grain boundaries develops and the elongatio" has
approximately zero value. At 570C, the melting of binary eutectic is
Card 1 / 2 UDCo 669.715'3'782

ACC NRI AP60361,41 SOURCE CODF: UR/0370/66/00(,/006/0101/0109
AU-AHOR: NoVikov, I. I. (Moscow); Shashkov, D. P. (Moscow)
........... .
ORG: none
TITLE: The effect of melting and annealing conditions on the brittle-to-plastic
transition temperature of metallic compounds
SOURCE: Ali SSSR. Izvestiya. W-tally, no. 6, 1966, lol-log
TOPIC TAW: intermetallic compound, brittle compound, ductile compo und, brittleness
ductility transition temperature, gas impurity effect av~Aea-k.y%~ '-rAAL%~
ABSTRACr-. Cast specimens of A13M92 (37.3% Mg), CUA12 (53.45% CU) ! and Cu 3Si (6.6% si)
compounds melted in air, in a vacuum of 5 .10-4 mm Hg, or in air with an air--Gteam
ruxture passed through the melt. (to obtain compoLrids with various gas contents) were
subjected to bend tests at temperatures of up to 600C. All compounds were found to
have a very narrow (only several degrees) temperature of transition from brittle to
ductile behavior; specimens melted with air-steam passed though the melt had the
hignest transition temperature (about 650C for Cu3Si) and the highest microhardneas.
SO
Vacuum-melted compounds had the lowest transition temperature (about 500C for Cu3
and the lowest microhardness. Regardless of the melting conditions, the room-
I temperature microhardness of the grain boundaries was 20-40% higher than that of
the grains, which can be explained by the segregation of gas impurities along the
MW-LJ39--4,0151019

ACC NR, AP60361441'
grain boundaries. The grain-boundary microhardness of specimens annealed at various
temperatures gradually decreased with incroauig annealing temperatures, an(; with
annealing at transition temperatures, became equal to the grain microhardness. This
showed that the transition from brittle to ductile behavior of the investigated
compounds was associated with the resorption of gas impurities. The harmful effect
of gas impurities on the ductility and grain-boundary microhardness was confirmed
by annealing the compounds in air and in vacuum. The transition temperature and
grain-boundary microhardness increased with prolonged annealing in air due to a
higher content of absorbed gas impurities, but decreased with prolonged vacuum
annealing,which lowered the content of gas impurities. Orig. art. has: 7 figures
and 1 table.
SUB CODE: 11,,*UBM DATE: 25Ddec64/ ORIG REF: 008/ OTH REF: 001/ ATD PRESS: 5108
Card

ACC NR: AP7002863 ( N )---- -SOURCE -CODE: - UR/014 9/66/000/006/0110/0115
AUTHOR: Novikov, I. I.; Shashkov, D. P.
ORG: Dopartnont of Metal Science of Non-Ferroun, Rare and Radioactive "j-,talc, Moncovi
:nr't i t;l "!, 0 11tI and ~ljoyp Mukov-Li~ ~n-titujltj~tjli i splavov. Kafedra metallo-
Al~
y(,,,,--,ya L!svo ~-.yI i I ~a ioakt V A OV
ILE: The inli'LreftL and tile impurity ~ri.Lleness of metallic compounds
SOURCE: IVUZ. Tsvetnaya metallurgiya, no. 6, 1966, 110-115
IOPI C TAGS: -7otal compound. single crystal compound, polycrystal compound,
.~--4 brittleness, Y, n ~ I r i nn. I 1W E r.-0 d 1.
77 01
A3STrACT: Tn a general case, it can be assumed that metallic and intermezali'c
compounds have iniicrent and volume and boundary impurity brittleness. ExperimenLal
data show that F;as impurity segregations along grain boundaries, which cause
boundary i:~,purity brittleness, play an exceptionally important role in the brLttle
failure or compounds. To determine the nature of the brittle-to-plastic trans~.tion
of ir*azallic co.-.pounds without boundary impurity brittleness, high-purity sini;ie
crystal and polycrystal (the latter obtained by the levitation melting of the former)
iron, cobalt, nickel and manganese silicides were subjected to tension and benc,
tests and electric conductivity measurements at temperatures up to 800C. Th e
transttion of Lhe polycrystalline compounds through the temperature threshold of
impurity brittleness with heating was found to be associated with desorption of the
.-Card_ 112

ACC NR: Ap7002863
gas impurities along the grain boundaries. Nisi, YhSi, FeSi, and CoSi single
crystal corrpounds had brittle-to-plastic transition temperatures of 630, 81G, 920
and 950C, respectively, compared with 900, 1140, 1240 and 1310C for polycrystalline
compounds of the sane composition. The difference is explained by the absence of
boundary impurity brittleness in the single crystal compounds. The brittle-to-plastic
transition of aetallic compounds, as well as the observed drop in the electric
conductivity which accompanied it, are explained by the disappearance of oriented
interatomic bonds. The embrittling action of gas impurity segregations along the
grain boundaries is explained by the formation of additional oriented bonds within
the near-boundary zone of crystals. Hence, both the inherent and the Impurity
brittleness can have an identical, in principle, nature resulting from the existence
of oriented interatomic bonds. Orig. art. has: 5 figures and 1 table.
SUB CODE: 11, 20/ SUBM DATE: 05jul.66/ ORIG REF. 010/ OTH REF: 004
,-Cord-.---2/2-

ACC NR, AP7002704 SOURCE CODE3 UIV6115166/000/012/0025/0028
AUTHOR: Novikov, I. I.
i ORG: none
TITLE: Specific hoat capacity in the critical point
SOURCE: Izmaritelinaya tekhnika, no. 12, 1966, 25-28
TOPIC TAC45: spocifio hoat, oritical point
AB3Tit;,C'1 : General and simplo consideration:; :ir-j fcrt.h froi~-i which ;iri
can be made that the isochor~c spocif ic hea'. of -my 5ubstance' in t~k(! 7,- 1lc;il l'oln!"
is Lri-fi-nity. T~Lree examples are examined Which show that by com:"Ir.,%~'.
series which represent thormodyn.Lnic quantities at :;Ome polnt!j or
phase-equilibri-Lin curve, the fact that the isobar~,c s;~r!cific hoaf.
infinity can be easily proven. A sirlilar ~'Ippl'0,10L usod for tho ~,,inchorlc ,j;.o!c.f'c
heat. The tomporature T at the phaso-equillbrium pointq ~Is repre.,;entt~d an a ic-,;er
series of v - vc and s - sco where v is voluino and s ontropyl subscr,,,. c stand.9 for
critical. It in further proven that the 13ochoric specific hoat a.nd dl it~~
derivatives turn into infinity at the critical point. Orig. art. has: 35 formulas.
SUB CODE: 20 / SUBM DATE: 25AUg66 / ORIG REF: 004
Card 111 UDC: 536. 3

ACC '~R: A,,~6018586 r4onogranf,. R
NOVI k ov
illya Izrielovich
Hal. crac,einv, oC nonferrru.-, -7,,-'.a1 5 and al!~~ys (Goryachelo.-,",(,v~
1..1;v(_,tnYkh metallov I !;Piav~,v) Izd-vo "Nau,,a", 1960'. 2
111 'IF, - , biblio. 3,500 C0j)ie5 Pl"-Aed.
TOPIC TAr',S : ,12oy cor- alloy,
.,positj_,j., e r'"U S A briittl(,no3s,
corrocdor., ten~;ilv test, br1ttle,-,-:,~,
PUP,PO';!: AND COVERAGE: Thl:i cjow. `1 for
production engineers, metal lurfrl,.jt~, , 'oundry en;rlneers, and
s pe c Ala 1 Is ts .It may also be ujeful to senior students of -,c.1-,o013 of
hiii,her education, who specializi.- In inetallurrry and machlne-buli(lln~r.
The book deals with problems of hot brittleness and suscep1.'_`J,1k.1'.ty of
metals and alloys to brl+-tle integranular failums caused ty "he
presence of liquid phase at grain boundaries, which often occurs
during casting and welding, and may also occur during high-temperature
treatment under pressure, heat treatment, and operation of parts made
of heat-resistant alloys. The effect of alloy composition and
structure on their strength, ductility, and linear shrinkage In nolid-
liquid state is discussed as well as the nature of hot cracks and
L-co 0 UDC:__�69.2/8;621.746.76:621.79~.0_;__.

ACC NR- AM6018586
methods applied to reduce hot brittleness. The book contains data
on the effect of chemical composition on hot brittleness of binary
or multicomponent alloys with an aluminum, magnesium or copper
base, and also Includes data on testing the resistance to the forma-
tion of hot cracks of nonferrous alloys used in Soviet and non-Soviet
countries.
TABLE OF CONTENTS:
Introduction -- 5
Part I. Mechanical Properties of Alloys in
Solid-Liquid State -- 9
Ch. I. Methods of mechanical tests of alloys in solid-liquid state -9
1. Tensile tests at melting temperatures -- 9
2. Tensile tests at crystallization temperatures -- 20
3. Bend and hardness tests at melting temperatures -- 25
Ch. II. Strength of Alloys in Solid-Liquid State -- 29
4. Failure of alloys in solid-liquid state -.- 29
5. Tensile strength of alloys in solid-liquid state -- 45
Card-2/-6-

ACC NRi AM6018586
6. flardness of alloys In 59
Cn. III. Ductility of 1~lloyr, in 5tate 63
7. Temperature dependence of ailloy .,Ioniration In soli'd-liqu.'d ~-,tate
63
8. miechanism of alloy plast. (Icrornat Lon In uolld-liquid,
9. Effect of phase transform,i%'on rate on t1w temper;iture cirpendence
of alloy elongation In z~olid-liquld state -- 77
10. LImito of temperature interval of brittleness -_ al
11. Effect of structure on alloy ductility In solid-liquid atate
91
12. Effect of chemical composition of ductility of alloys in solid-
liquid state -- 104
13. Effect of deformation rate Cn ductility of alloys in solid-
liquid state. Creep at melting temperatures 115
Part II. Hot Brittleness in Alloy Casting 124
Ch. IV. Linear Shrinkage of Alloys at Crystallization Temperatures
-- 124
14. Methods of investigating expansion preceding shrinkage and
linear shrinkage at crystallization temperatures -- 124
Card 1/6

At-16018586
Expansion or alloys preceding shrinkage -- III
16. Linear alloy shrinkage at crystallization temperatures -- 146
Ch. V. Resistance of Alloys to Hot Cracking -- 162
17. Nature of hot cracks and temperature range of their formation
162
18. Heating the crystallization cracks by a melt -- 179
19. Evaluation of hot brittleness of alloys based on their
mechanical properties and linear shrinkage (criterium of
residtance or crystallization crack formation) - 188
20. Cast samples for hot brittleness test -- 196
Ch. VI, Effect of Composition and Structure on Hot Brittleness in
Alloys Casting -- 212
21. Effect of shape and grain size on hot brittleness -- 212
22. Effect of gas content an alloy hot brittleness 215
23. Effect of alloy composition on hot brittleness 218
24. Methods of reducing alloy hot brittleness -- 232
Ch. VII. Hot Brittleness Jn Casting Aluminum, Magnesium and Copper Alloys
(reference data) -- 239

ACC NR.A,%1,6018586
25. Hot brittleness or aluninurr. alloys -- 259
A'.-Cu, Al-LI, Al-,'4r,, AI-Xn, AI-Zn. Alioyz based or.
system: Al-Cu-Li, A!-Cu-X,7, A1-Cn-,,,g-Ni-Fe AI-Mv, and
AI-Mg-Si-Cu, Al- Mr,-Zn and Al-Mg-Zn-Cn, Al-Si-Cu-, A,.-SI-Pe.
Commerical aluminum, and alloy of various systems. Industrial
cast aluminum alloys sur
,gested content of iron and silicon In
industrial wrought aluminum alloys
26. Hot brittleness of magnesium alloys -- 254
Mg-Zn. Alloys based on Mg-Zn-Zz system. Industrial cast
mar,nesium alloys -- 2514
27. Hot brittleness of copper alloys -- 256
Cu-Ag, Cu-Al, Cu-B, Cu-Be, Cu-Ca, Cu-Co
Cu-Cr. Cu-Fe, Cu-Mg, Cu-Mn, Gu-NI, Cu-P, Cu-Sb, Cu-Si, Cu-Sn,
Cu-Zn, Cu-Zz, Cu-CoBep Cu-Crz Zr, Cu-NIBe, Cu-NI-Al, Cu-NI-SI,
Cu-SI-Al, Cu-Zn-Si. Industrial copper alloys
Appendixes -- 265
Appendix I. Mechanical properties of alloys In solid-liquid state
-- 267
Appendix II. Linear shrinkage and metal and alloy expansion preceding
shrinkage -- 285

ACC NR, A146018586
References -- 292
SUB CODE: 13, ll/ SUBM DATE: 3oDec65/ ORIG REF: 209/ OTH REP: 115/
1 6
i
ICard 6/6

GUTNIK, M.A.; BORISOV, L.F.; NOVIKOVt I.K.; SPASSKIY, N.N.; OVCHINNIKOV,
A.N.; STOLYAROV, A.B.; KLAVLt, A.V.; GAIXINA, V.I.; ShALFEE-YEV,
7. 1.
Overall mechanization of decorative grinding and polishing oper-
ations. Prom. energ. 17 no.9:6-3 S '62. (MIRA 15:8)
(Grinding machines)

L."iihCV, i. h.
"Oreenization of the Traininp-EAMI(It, 1011111 Work in UL"i 6,'hoolt,," LI-j:1kIIIztItfjIp,
U-hobno-Voopl! tit ol 'no~ lftdjof~ v ;Molu, 1,1
Trcnfjlntion M-672, ~?-? Jul '~'

Akb 14
AUTHORS: K. , Engir.,-- r T.' N Cand I, a. e
cal Sciences; Sh-jresnevskiy, I.S.
TITLE% Ceramic materials aj neat --,ArrierG in
processes
PERIODICALi Khimicheskoye
TEXT: The article cQntuinj u detailed d~-scri:ti--n of
investigations c---.,.du-,ted -,,itn a wide ranje of materials 1..,. crier t
determine the best heat carriers for hijh-tem~.erut'ure :,ruces e:.;.
tory ,nd industria. tests rere conducted and the fo-cring
tainodt The beat ceramic heat carrier2 shou.1d be mtde of
material, baked und si.tered. For madi ;~: temporatures oucf,, mater,.aIE3
clay an
would includet chamotte (based on refract~.ry d cna-otte
and kaolin with baking temperatures f 140~' (.JL, 14 C
p ectively, and the "Ural i t" ceramic mat eri al ; f or h ign te::.: 't
Card 1 2

S/ I C"./
Ceramic materials a:, .eat ca.-riers... DC,-.'./ DII
corundum (based L.ur(., ri I umin~i:: u! : ite-cc b d
minum and silicon uxides). and A:
borundum, 40-50% hi,~-h-aluminum.-oxid.-,,
0 C, '-) C
I, r~ -COC und C"
tamperatures of 17LO 1'20-16~~ 14-C
compositions (sof ten,n~- jtur,.
stability and are reiatlve.y The us o f ri.,;
carriers with an additi-,-, of zrccn,-u:..
rare earth element- -:~ also 'O'd
grai. -les 0, viith ur. a dit i-r, f ~'O*' Zr.G. 7f.e: 'I a,
f Ali
3 tables nd 1 r
four En,,Iish-'Lan,.'uII,-,'r* referenc(-'~~ Lz'el C.L. :I*ort-,~,
v.2c,j, no.7, 194,- Ki. i-ic.. , "i r'L I r*- r, c,, tj n
wood, "Petrol Pruc'.03" no. 12, 1;)r,;
En' C!,
1~49, pp 25-31-
Card 212

PAUKShTF-LI, B.p'.; IL)VIKOV, I.K.; GALIM, Kh.T.
Pesu-ts of the organization of an aneethesiGlOgiCa-- 3e=11~1~ -7
Mogilev Province. Zdrav. Bel. 9 no.2.62 F'63- (,~- 1'-, 7)
(140GILEV PROVINGFAIMSTUSIA)

- - I 1 .1 -
.. ~ * - - 7. . " ~. . I .

!L- 6212!IZ65 Pc-4/Pr-4 JAJ/R~-'
ACCESSION NR: AP5015885 UR/0030/65/038/006/133211337
66.092.193
AUTHOR- Novikov,'tl. K.
TITLE: Flectrothermophorle
jyoja-of-hydrocarbon-j3!ock-for-th"tims4
zhurnalvruda
ioy khimfl, v. 38, no. 6, 196.6, 1332-1337
TOPIC'TAGS.- electroe'racking, olefin, acetylene, petroleum cracking, hydrocarbon
conversion, pyrolysis
ABSTRACT: A method is proposed for converting potroleum stock into lower olefins ,tnd
acetylene by means of m1crodischarges arising during the continuous motion of carbon
acking in a dense layer between electrodes supplied with alternating curr
, ent. Ile
P
technique differs from earlier ones in that a packing moving in a continuous flow between
stationary electrodes is used. It permits a continuous conversion in column-type vertical
reactors. The intensity of the microdischarges depends on the quality and fractional

GDIameu m R reg=r VnM a_IIIEA =SchaMe denalty,- ElGrArothermophorie craeldng of.
Card
L- 62194-65-,
ACCESSION NR, AP5016886
butane at 120 V showed that the concentration of unsaturated hydrocarbons increases with
decreasing contact time and Increasing voltage at the electrodes. Electrothermophoric
cracklng of liquid petroleum stock produces a gas In which the content of olefins and
hydrogen is higher than that of the gas obtained by cracking gm,cous hydrocarbon stock.
This to apparently due to the fact that liquid hydrocarbons, which oDns!st of long paraffin
ch", widorgo cracking nwre readily than do propane and butane molocules. Orig.
axt. has- 3 figures and 3 tables.
'ASSOCIATION: Novokyubyehovskly filial MISS (Novokuybyehov Brnch,
SUBMIT,TED. 09Dec63 ENCL:00 SUB CODE: FP, CC
NO REF BOV: 005 OTHER: 003

110VIKOVP I.M. , gornyy inzh.
Improving the parabolic bunker. Gor. zhur no.7:76-77 Jl 161.
04MA 15:2)
1. flavo-Troitskoye rudcrupravloniye,, SWinakaya obl.
(Ore handling---Equipment and supplies)

NOVIKOV, I.M.; SAPRONOV, V.A.; ONISHENKO, Z.V.; SWKOVA, ~.P.;
D'ELISKAYA, Yu.R.; BALASHOVA, T.L.; Prinimall uchastiye:
KALI III CHEMKO, VJI.; LIT`VI,'a--NKO, L.A.
Granulation of butadiene-styrene and natural rubber in the
Dniepropetrovsk Rubber Tire Plant. Kauch. I rez. 22 no.12:
44-48 D 163. (ICRA 17: 9,
1. Dnepropetrovskiy shinnyy eavad (for all except Kalinichenko,
Litvineriko). 2. Dnepropetrovskly filial Nauchno-issledovatell-
skogo instituta shinnoy promyshlennosti (for Kalinichenko,
Litvinenko).

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actcriol-Ics ui tile 1~erlt pulli'l, 1"'' 11;IIJI are -w I !;j
tributions to the ud~,~,. fjade oy 1- Ye. it'-
Alek,scyev, S, IN. iw~,icixv, A. it.
_YLL-rLellm,
Rotankov) V. D. Rusov, N. V Sar-rchc-v I Ye. S. h orotcv, P-nd Yu. A.
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