SCIENTIFIC ABSTRACT MATVEYEV, G.A. - MATVEYEV, I.B.

• Document Type: CREST
• Collection: Scientific Abstracts
• Document Number (FOIA) /ESDN (CREST): CIA-RDP86-00513R032932930002-8
• Release Decision: RIF
• Original Classification: S
• Document Page Count: 100
• Document Creation Date: November 2, 2016
• Document Release Date: June 14, 2000
• Sequence Number: 2
• Publication Date: December 31, 1967
• Content Type: SCIENTIFIC ABSTRACT

IROLMOFSKIT. Geargly Yovgon'Yevlch; HATUM. G.A.. rodaktor; VOILMIN,
I.P., tekhnlcheskly "daktV-. M~*aw-O~'w
[Phyiolc&3L and chmical processee is best sMineer',ugj Fisiche-
ski* I khluicheakie prots*ssy v toplossergetnike. Reekwa. Go@
energ. Isd-ve, 1955. 143 P. (NLRA 9:5 i
(Hvt%t aMineertag)

M11 7- Va YE- V 19.,
HATWIEV, G. A. (Ed.; Doctor of Technical Sciences)
Moscow. Energeticheskiy institut
Istorlya energeticheskoy tekhniki SSSR v trekh tomakh. t. 1: Teplotekhnika
(History of Power Engineering in the USSR in Three Volumes. v. 1: Heat Evioneering)
Moscomp Oosenergcizdat, 1957. 479 p. 5,000 copibs e-,xinted.
Ed.-Compiler: Konfederatov, I.Ya., Doctor of Technical Sciences; Authors: BadylIkes,
I.-S., Doctor of Technical Sciences; Belindkiy, S.Ya., Candidate of Technical
PCI ; Gimmellfarb, X.L., Candidate of Technical Sciences; Kalafati, D.D."
Candidate of Technical Sciences; Kertselli, L.I., Professor; Kovalev, A.P., Doator
of Teabnical Sciences; Konfederatov, I.Ya.., Doctor of Technical Sciences; Lavrav,
V.N., Doctor of Technical Sciences; Lebedev, P.D., Doctor of Technical Sciences;
Lukinskiy, V.V., Doctor of Technical Sciences (deceased); Petukhov,, B.S., Docior
of Technical Sciences; Satanovskiy, A.Ye., Doctor of Technical Scienuets; Sementnkc,
N.A.p Doctor of Technical Sciences; Smel-Initskiy, S.G., Candidate of Technical
Sciences; Sokolov, Ye.Ya., Doctor of Technical Sciences; Chistyako%., S.F., Canlidate of
Technical Sciences, and Shcheglyayev, A.V., Corresponding Member, U-.')'SR AcaderTi of
Sciences; Editorial Board of set: Bellkind, I-D., Doctor of Technical Science.-5;
Qazurov, Doctor of Technical Sciences; Golubtsova, V.A., Doctor of Technical
Sceinces; ZolAarev, T.L., Doctor of Technical Sciences; lzbash, S,V., Doctor of
Technical Sciences; Kirillin, V.A., Corresponding Member, USSR Academy of Sciences;

Konfederatoy, I.Ya... Doctor of Teehnical Sciences; Margulova, T.Kh., Doctor of
Technic&l Sciences; Meshkov,, V.V., Doctur of Technical Sciences; Petrov, G.H.,
Doctor of Techrdcal Sciences; Sirotinskiy, L.1., Doctor of Technic&2 Sciences;
Styrikovich, M.A., Corresponding Member, USSR Academy of Sciencesj and Shneyberg,
la.A... Candidate of Techi-dcal Sciences. Ld.: Matv G A , Doctor of lechr.~L-
cal Sciences; Technical Ed.: Medvedev, L.Ya.
PURPWE: The book is intended for technicians in all brarrjbes of' heat engineerin[..,.
COVERACE: This book presents the developaient of the basic bralwhes of heat engineering
in the Soviet Union and it is the first volume of 3 volumes eutitled History ef the
Powr Technology in the USSR. The first chapter gLves a coiie-Jee history of the
development of heat engineering from its very ueginning to the middle of the 1.9th
Centw7 when the fundamentals of the theoretic;.a heat engineering were estZb1i.3hed.
A detailed Lescription of the development of heat engineering in pre-Revolutiorary
Russia is given in Ch. 2 to 5 and its status before 1917 is described. In the! main
part of the volume,, Uh. 6 to 160 the development of tmriouu branchea 6f the Sciriet
heat engineering is presented. The theoretical fundamentals of heal, engineeri:-ig,
of manufacturing boilers, turbine installatiobs of heat power plants, district
heating, heat control, automation of thermal processes,, and cooling techniques ars
covered extensively. Each chapter is supplemented with a bibliography. The tovk
is illustrated with photographs, charts and diagrams, worked out by the authors of
-the respective chapters, At the end of the book there is a chronological list of
significant events in the development of heat engineering.

WA T Y ~'/ F
AUTHOR: Markov, N.M. and Matveyev, G.A., Candidates cf TechnAP,
Sciences.
TITLE: On detmnini-ng the flow rate of the opera-Ang medium thrOLLgh
the ring (cascade) oIL' turbine blcAes (K -7oprosu ob opredelenii
raskhoda pabochego beshcheFtva cherez venets (reshetka'
turbinnykh lopatok.)
FERIODICAL: "'EnergomkLghingstroenie'l- (Power Machinery ConstTuction)
'
15, (U-S.S.R.)
1957, No. 2, PP- 14 -
ABSTRACT: Exis-tl-ag methods are reviewed and a nqw method is prop,,sed
D
which is based on uti.lisi-ng the epures of the pressure (spee
distribution alonL, the contour of the profile. Th3 increasing
initial steam parameters bring about a considerable decrease
of the flow surfaces in the first stagee of the. turbines and
lead to a reduction of the height of the blades in these
turbines and, thus, to a decrease in the efficiency cwing to
the inciy~ase of the relative importance of the end losses. For
reducing their influence, blades with snall outflow angles
(8 to 11 ) of the stream are used. It is shown that, for
such cascades, utilisation of experimental data of the outflow
angles of the flow may lead to considerable errors in deter-
mining the rate of flow cif the opexating medium. Modern,
experimental, aerodynamic methods enable determination of the
outflow angle of the flow with an accuracy of + 3.1o and for
-
of flow of
such accuracy, thearror in determining the raVe
the~-operating medium for mall outflow angles may reach

01
On determining the flow rate of the operatin medium ?hrough
the ring (cascade) of turbine blades. (Cont.5
10 - 145. The here described method enables a more accu---ate
determination and is partly based on utilis-I-ng the loss
coefficient, which can be determined in wind tunnels wish an
accuracy of about 3%j for such an accuracy, t~ie factor
entering in the rele,rant equation will not exceed 0.01~, for
a value of 0.03, of -,;his coefficient of 0.03.
1 figure. 1 Russian reference.

Ivi # 7-Y t-F- Y "15-- v)
KATISUT. 3.A.. kaudida"t tekhniahoskikh neuk; KAWA-SYAR. Tu.O.. ~insheDer.
A
Dotermining friction and wind". losses In hyd"turbIne rotors.
Sudostroenl* 234 no.6:17-15 Jo Is?. fKLRA 10:-7,
(Marius turbinme) (Hydraulic turblm~*)

SOV/96 -5
AUTHOR: Styrilrovicti, M.A., Corresponding Member of -he
Academy of SciencesJSSR
Ratv Doctor of Technical 9cierice
Popyrin, L.S., Engineer
TITLE: The Selection of End Pressure ("Vracuuir) for
Regional Electric Power Stations (Vybor 1~onec!-nogo
daN*leni,,a dlya GRES bol'shoy moshchnostil
PERIODIC,U: Teploenergetika 1958, Nr ILI, pp 4?-46 (USSR)
ABSTRACT: In designii36 large power stations it is not usual
to make individual prescriptions for the! ter)Knical
-nd economic features of the condensing equ-*pment
~2d water-supply systems. On the contrary, to
secure the greatest possible standardisation, the
turbine manufacturers make a single type of
condenser for a givell type of turbine. .9 will b e
seen from Table 1, aLl Soviet turbines now produced
or projected are intended for a vdcuum of
0.03 - 0.035 atm and have condensers with a
specific steam loading in thLe range 35 - 46 kg/m-ar.
The power station water-supply is desiened 'Ln
Card 1/4 accordance with the munuf"ctiz~erb data or Vae

SOV/96 -5 p -11-7/)
Th.- Selection of End Pressure (Vacuum) for Lurge Re&jional
Electric Power Stations
condensers. This leads to irrational results; in
a number of' large power stations with turbines of
,~100 MW locc-ted in various climatic regioi:3 :-,.nd
burning fu,-ls of different costs, identic~dl
condensers are used as observed in Table ?. The
turbine manufacturers should now provide a range of
condenser sizes for each type of' turbine. Fuel costs
are particularly important in this matter since they
may rangm 'rom 140 roubles per ton in the Euxopeein
part of the country to 10 roubles per ton in Siberia,
Local climatic conditions and, therefore, cooling-
water temperature, vary widely. Cooling-water
conditions are at present simply tw-ea from an
All-Union standard. Determination of the vacuum
from tiae annual mean Cooling-water temperature 6ives
rise to consideraDle error and it would be better to
use monthly mean figures. The coi-ditions trat
should be assumed for technical and economic
Card 2/4 calcu.1ations on condensers are tl-~en discussed. In

SOV/95 -5 8 -11 -71? 1
The SelectiGn of End PreEsure (Vacuum) for Large Regional
Electric Power Stations
determining the power consumption of circulating
pumps, allowimce is made for a considerable reduction
in output durin,, the Winto-r sftason. Fig.?. giapEs --tie
relationship betweer power expenditure on circulati,)L-
pump drive and power loss in the-, -~-aruine resulting
from impaired vacuum for three different cl.-',-matic
regions of the country. The method of makiiZ
economic comparisons between different types of
condensing conditions is explained. Replacement and
repair costs for two variants are compared --n table 3,
A graph showing various condenser characteri-9tics a.,;
a fu:Tiction of fuel cost and cool ing-wat:!r totimperature
is iLiv;~Ya in Fig.3. The increased ustf'ul output of
electricity as a function of tho- oooling-water
temper.iture and fuel costs is seen in Fig.4.-. The
results of calculations of the best water-irel ocity ii-,
the condenser are plotted ir. Fig.5. The fo ,lowing
conclusions are drawn from the calculations. The
optimun. vacuum in the condenser of a turbine type
Card 3/4 PVK-100 depends considerably on the cooliij4,)-water

SOV/96-5 8-.11-7/?-'
The Selection of End P-essure (Vacuum) for Large Regional
Electric Pt-ar Stations
tA,mperat-are and the price of fuel; it razZes from
0.0'75 atm for a cooling-water temperature of 6 C
and-expensive fuel to '6.45 atm for 15 C and cheap
fuel. The standard condenser supplied by the
Leningrad Metal Works for turbine type PVK-?00 does
not permit the greatest economy to be obtained
particularly in southern regions or where fuel is
expensive. A further two or three types of condenser
should be designed for thic, turbine and characteristics
are recommended. Various other recommendations of the
same kind are made about condens.-tr design. T~aere are
5 fii~ures, 3 tables and ':~ literature rL-fererces boti, of
whicia are Soviet.
ASSOCIA"TION: institut -~,' SSSR (Power In-:-,titute,
Academy of SeDences, USSP)
Card 4A

MWfZW, OsoM& Aleksayovich; IMANKINA, T.F., r9d.; fATCHIM- Y6-T--
-'tokhn.red.
r rge thermal power plants] Mogho" teplovye elektrostentsil.
,LD
goakwa, Isd-vo *Znanie." 1959. 30 P- (TsesAnsnoa obihoheatvo
po rai;prostranonilu politichoskikh i nauchnykh onanti. Ser*40
Stiulm i tekhnike, no.19) (KIRA 12:8)
(Ilectric power plants)

AUTHOR: Matve-.,ev, G.A., Professor SOV/26-59-1-22/34
TITLE: Ways of Power-Engineering Developnent in the USSR
(Puti razvitiya energetiki v SSSR)
PERIODICAL: Priroda, 1959, Nr 1, PP 73 - 82 (USSR)
AMTRACT: The wuthor gives a brief survey on the electrifit~a-
tion of Russia after the October Revolution. In 1957,
nearly 210 billion kwh of electric energy were pro-
duced in the USL;R, 233 billion kwh in 1958. Of this
power, about 70% is used for industrial purposes. By
1960 electric-energy production is to reach 320 and
by 1965 500 to 520 billion kwh. (grph 1). In order
to meet this last figure, the capacity of the elec-
tric power stations is to be 108 to 112 million kw,
which requires a capacity of 60 tc 65 million kw to
be provided for in addition to 'the existing 50
million kw. The present annual accretion rate of 5
to 6 million kw is to rise to 8 to 9 million kw dur-
ing the individual years of the now 7-Year Plan, and
to 10 to 11 million kw toward the end of the plan
Card 1/7 neriod. By 1975, the production of electric energy

SOV/26-59-1-22/34
Ways of Power-Engineering Development in the U."M
Is to reach 1,200 billion kwh or a total power plant
capacity of 200 million kw. When the Volzhskaya GES
',Volga Hydroelectric Power Plant), having a capacity
of 2,100,000 kw (20 turbines operating), was put into
operation, Khrushchev pointed out Thai 'k'-he construc-
tion of large thermal power plants during the new
plan period will be more important than that of hydro
-power plants. While the construction of the Volga
Hydroelectric Power Plant took seven years and the
cost per installed kw was about 4,000 rubles, the
construction of a thermal power plant of a smilar
capacity would not exceed 4 to 5 years with a cost
of 600 to 700 rubles per installed kw. Consequent-
ly, the electric power stations with a total capacity
of 60 to 65 million kw, to be built by 1965, will
consist of thermal power plants with a total capaci-
ty of 53 to 55 million kw and hydroelectric power
plants with a total capacity of about 8 million kw.
With respect to the country's consumption of the
Card 2/7 principal kinds of fuel for industrial purposes, the

SOV/26-59-1-22/34
Ways of Power-Engineering Developm,~-nt in the USSR
swing will be from coal to oil and natural gas
(table 1). Hydroelectric power at present contrib-
utes 18.7% or 40 billion kwh of the USSR's power
production, thermal power over 80%. Stress will be
placed on the conbtiniction of thermal power plants,
while hydroelectric power plants will assume special
importance in certain areas. A survey of past and
recent turbines and boiler unJts (Figures 3 and 4)
shows that both grew in size, capacity and useful
parameters to equal any similar product of any firm
on earth. The establishment of.powerful condensing
stations will permit the construction of ever larger
power aggregates. By 1965, the unit capacity of the
thermal condensing stations will grow to 2,400,000
kw and that of turbogenerators to 300 to 600 thousand
kw at steam Rarameters of 2L'0 atmospneres, a tSmper-
ature of 580 0 and an intermediate heat of 565 C.
These conditions will increase the importance of con-
tinuously operating coi2 boilirs suitable for oper.-
Card 3/7 ation in the supercritical parameters of pressures

SOV/26-59-1-22/34
Ways of Power-Eng-i-gering Developmeit in the USSR
over 225 atmospheres. These boilers for 240/580'/565
will comprise 30% of the new installations by 1965.
The plan provides for the installation of 100 tur-
bines of 100,000 kw each, over 100 of 150,000 and
200,000 kw, over 40 of 300,000 kw, and 3 of 600,000
kw each. The capacity of one of the latter would
equal the total capacity of the Dnepr GES, or that
of 10 Volkhov GESes, while three such turbines would
equal the capacity of all electric power stations - Ln
Russia in 1913. Automation and remote control and
man) other technical andmebalwa improvements will
be added, while expenses will be lowered, construc-
tion time reduced and fuel consumption lessened. The
Yuzhno-Urallskaya eleklvrcstantsiya (South-Urals Elec-
tric Power Station - fig. 8) is a good example of a
present-day large thermal power plant which may serve
as a model for other projects. The use of natural
gas for fuel u.;.-poses will bring forth the installa-
tion of gas tur~bine units of about 3 million kw ca-
Card 4/7 pacity. Outsid-:~ of the general energy system ~isol-

SOV/26-59-1-22/~A
Ways of Power-Engineering Development in the USSR
ated gas-turbine electric stations with aggz-egates
of 2q to 50,000 kw each and a combined capacity of
100 to 200,000 kw are planned. Sever such stations
would have an aggregate capacity of over 1 mill'-on
kw with no wors6 indices than steam-turbine stations
have. The installation of 9 electric power stations
of the open type of an aggregate capacity cf 4 million
kw and of 11 stations of thi half-open type of about
14 iuillion kw is imminent. ProjeSts on steam para-
meters of 4GO atmospheres and 700 and still more
powerful units for condensing stations are under way.
Their production requires new ty- s of steel. The
plan also provides for the instWllation of hydrosta-
tions of a total capacity of about 8 million kw .
The ratio of the projected Yenise7rskaya GES (Yenisey
GES), 6,000,000 kw and turbines of 300,000 kw ,
seems to be much more effective than those of exist-
ing hydro power plants (table 2). It will have a
mean a:~nual energi7 output of about 35 billion kw/h
Card 5/7 at a cost price of about 0.4 kopeks per kv/h. The

SOV/26-59-1-22/34
Ways of Power-Engineering Development in the USSR
Volga cascade of 12 GESes (Figure 8) will have an
annual energy output of 30 billion kw /h a year. The
Siberian GESes are of paramount importance for the
establishment of a united energy grid for Siberia.
The USSR's first atomic power station (Figixre 9/'
of 5,000 kw cqWity consunes about 30 grams of fuel
for its energy production in 24 hours as compared
with 100 tons of' coal that would be required for a
similar non-atomic station. At the and of 1958, con-
struction of the first section of a large atomic powei
station of -.00,000 kw, to become a 600,000-kw power
station upon completion of all planned sections, was
started. T~ie 1956 to 1960 period provides the ssart
of construction of atomic power stations of an ag-
gregate capacity of 2 to 2.5 million kw. Several
Card 6/7 atomic power stations of 400 to 600,000 kw each

SOV/26-59-1-22/34
Ways of Pcwer-Engineering Development in the USSR
are to be built in regions that are far away from
any fuel deposits. There are 5 graphs, 2 diagrams,
2 photos, and I Soviet reference.
ASSOCIATION: Energaticheskiv institut im. G.M. Krzhizhanovskogo
AN SSSr /Moskv'a (The Power Engineering Institute
imeni G.M. Krzhizharovskiy of the AS USSR /Moscow)
Card 7/7

SOV/96-59-4-6/2...
AUTHORS: Styrikovich, M.A., Corresponding Member of the Aeadeny of
Sciences of the USSR 9
VqJJ,V G.A., Doctor of Technical Sciences and
_M~~
r
opyrin, L.S., Engineer
161ITLE; Selection of the Best Unit Outputs for Single and
Two-shaft Turbines (Vybor optimal"nykh yedlnichnykl~
moshchaostey odnovallnykh i dvukhvalInykh turbin)
PERIODICAL:111eploenergetika, 19599 Nr 4v pp 31-38 '.USSR)
ABSTRACT: The advantages o-J-0 using very large turl)ines are first
discussed. The problem then arises of when to make. tkiem
with one and when with two shafts. Th4 common Soviet
practice of making single shaft turbines of up to 4or MW
with a --imtim number of extauate does not adequately
take account of actual operating conditions in the
majority of regions of the Soviet Union. The maximun
that can be obt-ained frola a single exhaust
,mdensing turbine with 6 .2
C.0 -i-ven initial steam conditiona
and regenerated cycle is governed by the flow of steaa
through the section of the last stage of the turbine.
In the next few years the turbine manufacturers will ise
Card 1/4 last blades 940 mm long at 3,000 rpm which give an oul;let

SOV/96-593-4-66/2'.
Selection of the Best Unit Outputs for Single and Two-shaft Turbiaes
area of 7-3 sq a. Fcxther inciease in the total exha-u~Et
section and consequently in the turbine output can be
obtained by subdividing the steam flow in the last stages
of the turbine. There are twu practical ways of doine
this: either by increasing the number of exhausts to
three or four for a single shaft turbine or by using two
shaft turbines. The advantages of thase approaches a3i*
considered in relation to normal cooling water
temperatures. The influence of fuel cost on the best
size of turbine iE also considered. Technical and
economic calculations were made for a turbine type
PVK--400 in the f ive variants illustrated in Fig.1 in
order to determine the best final steam conditions and
the best value of loading of the exhaust section of tbD
last stage. The first variant uses a single shaft thl)
sect~lnd and thiri use twc shafts each running at 3j,600 L-Pa
witn 6 and 8 e3duusts respectively. The fourth and filtb
variants are two shaft sets running at different speads.
Card 2/4 Curves showing the variation in output of these variant;s

SOV/96-59-4--6/21
Selection of the Beat Unit Outputs for Singie and ~Kuo --shaft Turbine-.,
as the pressure in the condenser is al"Plered are given in
Fig.2. The factors that were taker, into account in the
calculation are described, they include the cost of the
turbine, the cost of the generator snd the cost of the
foundations. These cost data are-collected together in
table 1. The construction and operatIng costs are
compared using eq.4 with a pa,7-off time of ten yiars.
Efficiency and output curves for the different variants
are given in Fig.4. When the final steam eondltions thi-
have been adopted for currently produced and proposed
future sets, which are given -in taliJkLa 2, are compared w-*.th
the optimim values, ass Fig.% it vrill be found that thl:
turbines of t-he Leningrad ~nd Khar1kov Works cover a ve::-y
narrow z=6ge of variation of the magaitiAes that govern
the f1jaKI, steam oouditione and this reduces the efficie::Lcy
of powr stations using these turbines because
insufficient attenti~)n is paid to actual operating
conditions. Curves relating the bast limiting output o:.'
a single shaft turbiae with the pri2ie of fuel and the
cooling water temperature are gi-ven in Fig.5. It is
Card 3/4 seen that in a number of regions of the Soviet Union th:1

SOV/96-59-4-6/21
Selection of the Best Unit Outputs for Single and Two-shaft Turbiw s
limiting output of a single shaft turbine ranges as
follows: 200 - 250 MW for the South-West and Central
E - 400 MW for Sibe ria and the S-outl
'uropean part and 350
The best limiting output for two shaft trurbiries with
various total exhaust areas~, fuel prices and cooling
water temperatures are given in Kg.6. It will be seen
from this figare that in different regions of the Soviel
Union the b6st ma3d-mum output of a two-shaft turbine
varies over a wide range or, to put it szotbw wW for a
turbine of a given output the tntal axhaust 'area of the
last stages should vary over a wide range to suit. diffe:,ent
conditions. There are 6 fiVives, 2 tables and I Soviet
reference.
ASSOCIATION:Energeticheskiy Institut AN USSR (Pvwer Institute
Ac.Sc. USSR',
Card 4/4

STMEDVICE. N.A.- X
9 _ATWW, G.Atdoktor t9khn. -aank; POMIN, L.S.,
lush,
Seleating the 9-A pressure and passage cross sections for the last
stage-i of high-mpacity st"m turbines. 21sk. sta. 30 no.3-.34-40
Mr 159. (KIRA 12:5)
1,ChIan-korr*sp=d*nt AN SSSR (for Styrikovich).
(St"m turbines)

--,_ I- NLTFBBV. G.A..prof.
Comrse of the development of electric power In the UAS.Sel.
ft-troda 48 no.1:73-ft J& 159. (KIRA 12: 2)
I, Suergetichaskly Institut Igent G.K.Irshishanovokogo AL SSSR.
Makm.
Olloctric power)

MA2VMV, G.A.,4oktor tekhn.nauk prof.; RELYATEV, Y.I.,inih.
Cholco of optimm gas velocities In tubular air probeaters of boilej
sjvtemm. 1sy.vy9.ucbeb.z&v.;6nsrg. 3 no.10:88-92 0 160.
(MIRA 13:11)
I. "nergeticheakly Institut Imeni Q.M.Irzhishanovskogo AD SSSR.
(Dollars) (Air prehasters)

'STMIDTIMI. N.A. 1 PATTWW, G.A., doktor t*khn.nauk; MYA 0
Terev lash.
Selecting the optival temperature for flue gas*s of
power boilers. Teploonergettim 7 no.7:27-32 JI '60.
(MIRA 13:7)
1, Inergeticheskiy Institut AN =SR. 2. Chlen-korm-
pondent AN SSSR (for Styrikovich).
(Boilers)

MLTV919V.. G A. daktor tekhn.nauk; BELIAKEV, V.I., insh.
-M=-L-
Choice of optiim= gas velocities in food-water sconmizers.
glek. sta. 31 no.9:16-19 S 160. (MW 14:10)
(Boilers)

Mgp~a, Georgiy A3.9knoyevich; NOVMVI, I.I.,, red.; HATWWWA, A.V...
redo
(Power equipoont of Munic electric pmor plants; steam
genorators and flame stoam superheateral Inergooborudovanie
atomWkh alektroatentaii; parogemoratory i agney" paro-
peregrevateli. Pod red. 1.1.1,ovlkovae Momkwav Goseizd-vo
lit-r7 v oblasti atovool -mk,2 I toldro' ij, 1961. 197 Pe
(MIRL 15: 1)
1. Chlen-korrespondent AN SM (for Rivikov).
(Atmic power plant&-Squipwout and hupplies)

ar
AUTHORSs
TITLEs
3/124
,/62/C*0/008/015/030
1006/1242
Hatveyev,, G.A. and Ivanov, P.D.
The prospects of ostabl.L..hini.; naval paver installc tions on
the basia 3f =gnetohydrodynamio interaction
PERIODICALi ReferzAtivnyy ztaitrnal, 'fiskhanikap n0.89, 51, abstrict 8B330.
(Sudoatroyenif, no.2, 1962, 32-36)
TEXT: The possibility of' utilization of marpet0hydrodynamic inter-
action for direct conversion of heat (puclear or hyd--!ooarbon) into electric-if
eneorgy is discussed with regard to mval power Installations. Basic i3qua-
tions which characterize the flow of nonducting-gas in the presence of elect-
ric and nmgnetic f.elds are Considered as arf illustration of wagnetohydro-
dynamics t'ti power conversion. Some information is given on the mechanism of
the electrical conductivity of gas and an means for its increase. A basic
4iagras of a power inotallatioa which utilises a voLgnotohydrodynamic genera-
tor is given as an illustration*
1A
[Abitrider's OA:
Card 1/1

HATMV G.A, doktor tekbn.nalix, PW.,' PIKM,, V-Tu-jv lnzho
v
Problas emworning the cholm of the optlaom temperature of feed
water. Tepl%Pv~A-*cFtlka 9 no.8--'.-3-75 Ag 162. (MIRA -25:7 "
1. (Steam turbines)
(Fecd-wnter

MATVEYLPV, G.A., kand.tekhn.nauk; IVANOV, P.D., inzh.
Prospects for the creation of marine power plants on the Wisis of
Magnategaadynamics. SWostroenie 28 no.2:32-36 F 962.
(MIRA 15:3)
(10arine engines) (Xagnetohydrodynamice)

PAIRKOV, Nikolay Mikhaylovich; PATRASHEV, A.N., doktor tekhn. nank, prof.,
zael. doyatell naukl I takhnfirl BSFSR,, retsenzent; PATVEYEL
-- w
G A kend. tekhn.nauk, red.; SINDNOVSKIY, N.Z.p iVO&I -va;
iRKNiFAYA, O.V., tekhn. red.
(Theory and design of turbine stages] Toorlia I raschet tur-
binnykh stupenei. No,.3kva, ~kqhgiz, 1.963. 154 P.
(MRA 16:81
(Stem turbirses)

--,
Deteridning the period of contact for byperboloid Pears in case
of Itw and point tooth contact. Trudy KAI mv.81, 29~34 163.
1 taA l8t4)

G.A.. doktor tekb!~,~ M.YAIEV, V.I., inth.
T*dm'tn'l and evessals basis for choosing gas velocities In
triAdt ones and artme superbeaters of bDI24ir systems,
Topl"nergetika 10 no.7:12-16 JI 163, (KMA 16 t 7)
1. lnergvtl~ebeakly inatitut ~% L-shishanovskogo.
(Boi*rs)

YROOLARIV, V.P.; BOGACkIEV, I.N.; Prinimal uchastiye MATVKYKV, G.A.
Phase trans formations and hardcaing during the plastic deformtion
of an iron-manganese alloy with molybdenum and tungsten addition
elements. Fiz. met. i metalloved. 18 no.3:4.7-3.-427 3 164. (MIRk 17111)
1. Ural'skiy politekhnloheskiy Institut ineni Kiro-ya,

AM'
4te
41
t
.4-m q
-disor.atlowl fantors on the -dptl~ characteristics
boi n no.6t78-81
ler
t
A,61 (WRA 180)
AN SSSR..
g

IAA'l'v'E)TV , G ik. , dok tor lskhn. na', k, prof. ; ~11! I V.n. p lr7h.
:~Ih(~ ice of an rr't * '--m net-jv-~: a rp- ~~- - of ?.f -- - - '-f - -
Meaia of tne -as su:--e C':- a 5.eam-'- -~ -.;-- .
11 ga - . - .
no. :5-7 F IhIj. .. 1. - .
1. Fnergetiche..kiv ir.~7tltut imeni K.-zriizhancw.,~.v- ;:'0.

DZ,4k'ALOV, S.A.; LEVOUCH', R.A.; SUYETNOV, V.V.; I~L7-'M ILI
otv. red.
[Heat of the earth and its practical uti.-Uzation] Teplo
Zemli i ego praktic'neskoe igpollzovanie. Moskva, Nauka,
10/65. 108 P. (MIRI 1819)

AR6031076 SOURCE COIDE: UR/0277/6610001007/0067/6367
/?
)THOW
AT )Wv4w*w. 0. A. 17
7TrLZ:. Slipping of 9 in a hyperboloid transmission
WURCE: Ref. sh. MashiLtr mat konstr i raschet detal mash. Gidropr, Abs.
7.48,454
REF SOURCE: Tr. Kazansk. aviats. in-ta, vyp. 87, 1965, 172-160
TOPIC TAGS: gear, gear slip, transmission gear, hyperboloid transmission
ABSTRACT: Problems of determining the magnitude, velocity dik ection, and
characteristics of relative slipping of tLe qide surfaces of gears in hyperboloid
transmissions are discussed. On the basis of results of investigat-ions, it is
concluded that the tooth of a hyperboloid wheel must have a sufficiently high degree
of wear resistance. In the case of a theoretical point contact, when the aid
e
surfaces of gears in one of the wheels are formed by the relative --notion of a
straight line, and in another by a relative motion of a low-curvature curve tan-
gential to it, the nature of slip is determined by the slip of the point -Ontact. The
point contact of the side surfaces leads to somewhat adverse conditicns for an oil
Card 1/ 2 UDC: 6 21. 83 3. 5 2. 001. 5

ACC "R' AR6031075
wedge which in turn reduces the thickness of oi-I film. In practice, following the
fitting of gears, the point contact becornes a linear contact in which, due to
functional wear of the gears, th,: lengtL~ of the contact line increases, approaching
the length of a straight line of contact. Theoretically, the point characteristics of
the contaci eliminate the possibility of gears working with the contact at the
extreme points of contact straignt lines. In the case of assembly and manufacturing,
ernors, this provides better conditions for the function of gears and a more rtable
thickness of the oil film, [Translation of abstract!,
SM CODE: '13
CAWd 2 2"~

NkTv=v G.I. (Stupinop Viodkovskays. ablanti)
oil doctorclo ordem Worawle, 5 no,8s32.Ag 159, (mm 13: a)
(TCMCO HOW

15-57-3-3846
'"ranalation from: Referati rjyy zhurnal, Geologiya, 1957, Nr 3,
p 193 (USSR)
AUTHOR: Matveyev, G.
TITIZ: New Constructions of Hydraulic-Feed Bits for Drilling
in Weak Rocks 'kNovyye konstraktaii gidromonitornykh
dolot dlya bureniya v myagkikh porodakh)
PERIODICAL: Novosti neft. tekhniki. Neftepromysl. delo, 1956, Nr 6,
pp 4-6
ABSTRACT,* Oil Drilling DIvision of the All-Union Scientific
Research Institute has developed a bit, ~S-M (21% mm
in diameter), with lateral perforations for the driillng
fluids. The drilling muds are led to the hole bottom
through a pipe, which is twide In one piece with paddles.
A strong jet of drilling fluid Is directed toward tte
peripheral part of the hole bottom, flushing it. Large,
widely spaced teeth are arr&4nged on the surface of the
cutting tool. The teeth In the last twD rows are stag-
Card 1/2 gered. The axis of the cutting tool is displaced 5 mm.

New Constructions of ltydraulic-Feed Bits (ConL.)
15-57-3-3646
To prevent clogging, the cutting tool is provided with a central out-
let (rozzle). The bit is provided with an Interchangeable head, per-
mittin ase with both turbodrills and rotary drills.
U2
M. G. M.
Card

15-57-3-3849
Translation from: Referativnyy zhurnal, Geologiya, 1957, Nr
p 193
AUTHORS: Matveyev, G. I. Travkcln, V. S.
TITLE: The Construction of a Bit Wi-iich Helps in Maintaining
the Gauge of Drill HCles (Konstruktsiya dolota, ulach-
shayushchaya kalibrovku skvazhin)
PERIODICAL: Novosti neft. tekhniki. Neftepromysl. delo, 1956, Nr 6,
pp B-10
ABSTRACT: All cutting bits "lose" in diameter because of wearing
of the peripheral teeth, and the drill holes acquire
the form of & cone tapering downward. Consequently,
when a new bit is lowored the shaft of the hole must be
enlarged, which leads to premature wear on the cutting-
tool bearing. The Oil Drilling Division of the All-
Union Scientific Research Institute has made several
experimental bits with strengthened bearings. They
allow only a minimlim slippage of the head of the peri-
Card 1/2 pheral teeth in the cutting tool. In planning the bit,

The Construction of a Bit (Cont.)
15-57-3-0`849
the minimum angle for the teeth was taken as 11301. The angle of
inclInation of' the shank to the axis of the bit was taken as 500.
In the new bits the points of the cutting tool. , which gauge the
hole, are so closa to each other that the diameter of the hole is
uniform throughout. Industrial testing has shown thct footage of
cutting with the bit is increased on the average from 18 to 20
percent. During the testing it was observed that the diameter of
the hole remained constant. The whole series c2 bits used for en-
larging the drill hole were lowered to the bottom of the hole one
after the other without encountering an obstruction.
Card 2/2 M. G. M.

M-AIVEYEV, G.I.j BARABASHKIN, I.I.
Jet bit for geological explomtion dri1ling. Mash. i neft'.
obor. no.1:5-11 163. (MIRA 17:1)
1. Mentrallnoye konstruktorskoye byuro Ministerstva geolo-
gil. *i okhrwW nedr S3SR,

MRTVEYV:V, &~K-
LESKIN, D. F., IWVEYIN, GG. K.
LESKIN, D. F., I-IATVEYEV, G. K.
Lumbering
Loading logs with a KT-12 tractor
Mekh. trud. rab. 6 no. 5. 1952
Monthly List, of Russian Accessions, Library of Congress, iiugust, 1952. UNCLA&-'.IFILD.

SGURCE 00M vitI6156/4 000 OWO 7770000'
AP6029673
Krasnikov, X. Yo.; Kushakevich, S. A.; Tokmak",
Kazaday, 1. A.;
shilin, 0. X.; Grit.;enko, Yu. P.; Ma G. I*
~tvc7l'v~
.............
ORG: none
TITLE: Adoption of rPlAing large round profiles from titanium lays
CS: Tavetn37e metallY, no. 8, 1966, 77-80
OMi
S
TOPIC TAGSs titanium a'.1oy, metal rolling, metal forming
ABSTUCT& 'The rolline of 1&&r(;e diameter (25 - 60 =a) titanlia alloy stock was otudied,
Prior to rolline tho apocimens were heated for 10 min in 'an induction furnace up to
temperature of 1270-137TIC, and for 5 min in a silit furnace at a temperature of 127
-1370K. A schematio of +,h* rolling scheme is presented (see, Fig. 1). The rolling
mrgin was calcuUtwd after the formula of N. Ye. Krandkwr and No P. Skry"in
(To-retrIM notallro, 1965, No- 4)
x
W+ 01
. - . J,
where A h In Us absolute oarpressions 'D6,7 width of now before passage, I and h -
hoiatt of sone before and after passage roe otivelyq w4 r - the radius of the
working xoUare It was tend Mat Us data Were 1A #004 46reSISSMS with
Cwd IL2 VIM lele~ &A~ A

L 106SC-67
'ACe
APU"673
1/7 r- *7 r-.211:1 r-?j -I
oil
01
Fig. 1. Schematic for rolling large round profiles an 2~lplllnq G~~45~ 1
the above equation. The degree of sold filling for hexaganalp aquAret and OVILI
specimeni waj calculated after 1. Ts. Ta;;;vakiy (Formoiamensaiyo pri Plisticheak*Y
o7brabot3ko motallov, Motallurgisdat, 1953)- The remlts are tahslated- It U 000-
eluded thct r6lling of large d4amister sto* made of titadvia anays TTI-1 P V73-1, OT4
5, W5-1-A-26, V-T8,- V215o VV.49,and otbers yields FMAUoto with salwictivir
i'. aachnnicaliirop~r'tie'se Cp%g. SVC bass I t"le ) Cra0we and '04Mtsbus.
C.,d 2/2 SUB ODDES 15/ SM DAM ;;:;~ OR= MWs 00 OU MW8 00i

SOV/137-58-'I--14?02
Translation from: Referativnyy zhurnal, Metallurgiya, 1958, Nr 7, p 34 (USSR)
AUTHORS: Matveyev, M. A Matvevev, G. M.
TITLE: On the VeterminatiDn of the - e"Fr-nddynamic Properties of Sorne
Silicates (K opredeleniyu tcrmodinamicheakikh svoystv neko-
torykh 3ilikat.ov)
PERIODICAL: V sb.: Fiz. -kh'M. GAnovy keramiki. Moscow, Promstroyiz-
. dat. 1956,- pp 504-506
ABSTRACT: The formation of a silicate of the type NaZO,nSiO2 is broken
dowu into two processer, namely, tbc tormati-ons of the bonds
Si-0 and Na-0. Modification of 9-ermodynamic properties of
&Z, AH, and AS (AG) in the process of formation of NaZO, nSiOZ
i.s registered approximately as &Gn = &GNa+ n&GSi where
AG" is the variation of the property in the formation of the given
silicate, AGSi is the variation of the entropy in the formation of
Si-O bonds in the metasilicate, and 4GNa is the var;ation r. the
entropy during the formation of Na-0 bonds in the metasilicate;
it is assumed that WsSi and AGN does not depend on n. AGNa
aind AGSi are fou-ad with the aid of tabulated data for meta- and
Card 1/2 arthosilicates; these values are used for other compositlons.

SOV/137-58-7-14202
On the Determination of the Thermodynamic Propertici of Some Silicate!
0 0
The calculations produced: ASNa - - 2.4p ASsi = - 2.1. entropy units. for
Na70 - 3SiOZ: ASNaO *3SiO2 = 51.6 entropy units, &H=-790.4 kcal, AZ= -741.3
kca .1. 2
P. sh.
1. Silicates-Therffiodynamic propertieL-~
Card 2/2

NINT v GeV*
RMANIon"p betwom the mitrwtuftl =a a proportles of
fluottes, ftAy NMI uoo24r,,.03-236 1 0 (KM UsO
0
i'milostels

5W)
AUTLORs- Matveyev, G.M. 5 3-5E-e-22/'TC
TITLE: On the Computation of the Thermodynamic Fr~-pertJes of Binary
Compounds in Silicate Technology (0 rasche"e termndinamicheskikh
s,y,oystv binarnykh soyedinaniy silikatnoy tekhnologii)
PERIGrICAL: Izvestiya vysshikh uchebnykh zavedeniy. Khimiya i khimicheskaya
takhnologiya, 1958, Nr 2, PP 135 - 141 (USSR)
ABSTRACT. The use of thermodynamic methods in the physical chemistry of sili-
cates is obstructed by the lack of necessary data. For this reason
the Droblem men.ioned in the title gains high importance. In the
presant paper an approxiaste computation method of some thermo-
dynamic properties of criatalline compounds for systems of the
MeO - RO2 and hIeD - R20 3 type which play an important part in sili-
cate technology is described. All compcunds of the mentioned type
are heterodynamic compounds (Ref 1). The concept of heterodynamism
makes possible the separation of 2 parts in any compound of the
mentioned type: a) of a main (skeletca) part and b) of a side
(cation) part, which are to represent the main structaral units.
The method is based on the possibility to divide tne formation pro-
Ca:.-d 1/4 cess of a compound MeO.pRO 2 or MeO.p7 203 from elements if.to 2 stages:

Oft the Computation of the Thermodynamic Properties
of Binary Compounds in Silicate Technology
1) Formation of the main structure (skeleton) by R-O biAdings,and
2~ Formation of the side (cation) pait on the bas-s cf iveaKer Mia-0
i L
b,ndings. If the number of the binding Me-ions (at a consta!.t r%olar
content of MeO) then remains ccnstant the change of the. thexv:,-
dynamic property (G -) in the formation from elements --.,g ---;o-,!:- _~eter-
mined by the molar content of ROI. At the increasing ral-i-,
RO2
i~_80 the bindings within the structure are not ub.iectec ~_ ~~n.v
fundamental change. For thia reaeon the assumption i3 , ~ that
the change of any thermodynamic property during the f"ormati,)n )f a
compound MeO.pRO 2 (or MeO.PR 20 3) will be due to its 3han,ge .~.n the
course of the formation of the fundamental structure ar.e, the change
in the course of the addition of Me cations. 1cc3rdi-g to the suove
oonsiderations this will be constant for all corpounds :)." the
series MeO.pRO 2- '!herefore the differenre of the properties .-'n the
formation of these compounda is determined by the cot,res~ondin&
differences of the propertieg during the forma,ion of' the furida-
Card 2/4 mental structure of the mentioned compounds. Sirce t..-.e diffe-rence

On the Composition of the Thermodynamic Properties SOV/153-58--2-22//30
of Binary Compounds in Silicate Technology
Card 3/4
AM the changes of the thermodynamic properties for the main struc-
tures of the compounds MeO.RO 2 and MeO.pRO 2 (or MeO.PR 20A) is
determined only by the total numbet of the R and 0 atoms partici-
pating in the formation of these structures it can be saia that
the change of any thermodynamic property in the formation of the
main structure will beAGP - pAG' (1), where &Gp andAG denote
R R R
the changes of the properties in the course of the forma--ion of
the main structure of MeO.pRO 2 and XeO.RO 2' In view of tk~e above
fact the change of the 'property during the addition of th.e Me ca-
tions (Ref 2) will be constant for all compounds of the series
MeO.pRO 2 (or MeO.pR 203 i.e. Const (2). Thus, the thermo-
dynamic properties of any other compounds in the system M90-RO 2
or M90-R 203 can be determined on the basis of any
thertiodynamic property. This theoxem is explained
examples. Further equations are deriveL wh.,.ch make
2 value3 ef a
by meana of
possible the

On the Composition of the Thermodynamic Properties SOV/1 53-58-2-2,,:/ 30
of'Binary Compounds 4n Silicate Tech"ology
determination of the thermodynamic properties of any compounj at
their formation in the -;orresponding system. The suggested m-~thod
can be applied also dir-actly for the tabla values of corresponding
properties. Figures 1 - 4 reveal a geometrical interpreta-.foz! of
this method. There zre 4 figures, 2 tableks,and 11 referei,;.?s, 5 oil
which are SovicL..
ASSOCIATION: Moskavskiy khimiko-tekbLnologicheakiy institut im. D.l.Wendeleyeva
(Moscow Chemical and Technological Institute imeni -D.I.Mendeleyev)
Kafedra obshchey tekhnologii silikatov (Chair of Generai Si-Ii2ate
Techrology)
SUBMITTED: October 5, 1957
Card 4/4

KMWnj, Vladbdr Ivr.Aovlcb I
f MATTMX Gs~ MMAylovlob;
MAMY-MMSYAX,, Mr monk,, prof. j
BABMVICS, I.A., r*C tsd-va; RODSMMO TAg U%hn. rad.
[Thermodynamics of silleateslTerwdin-1ka allikatoy. Pod ob-
,shebal red. O.P.Mchedlova-iletrosiana. lbskva, Goestrolisdat,
iL962. 265 p. (MIBA 160)
1. Chlen-kq;"spondsat Akadsmil stroltellstva I arkbiteVOW
Ukr.SSSR (fer Mehodlov-Petros)sa),.
(Silicates-Thenadymaq properties)

MATWERVO M.A.0 prof., doktor takhn.naukl X&TWEYEV. G.M., doteentp
kand.tokhn.nauk
Me obanistry and toobnoVVy of comentO by R.&L-ta. Reviewed
by N.A.Iktvftv,, G.N.Y&tvoov. Stroi. mat. 8 no.409-40 Ap
062o (KM 1518)
(Cemn';;) (Bart&, R.)

MiTVEYZVg G.H.; GkNIKIRZH, V,Ya.
~-
Thermodynamic ana4sis of reactions in rjolid phases in the system
Na2O - SiO2e Trudy MKRTI no-37t44-48 1-2, (MIRA 16:12)

--EMMA-~)ktov"U, U.N.11 tATVEZV, M.A. [Jktsvaeu, N.A.)
Thermdynamic analysis of solid-phaw reactions in the oyitem
S'." - SM a. S102. Vestri AN BSSR. Ser. fis,-tokh. nav. no.3t
59-62 163. (MIRA 16: 10)

NMUMUN-pEnx)Smj, 0. P.; K4MVEYXVp G. INL; WORN,, V. S.
-------
"Invest1gatIon of mor3et1cm of 6wIwJLfIcwtIm poceems as a motbod for
suayum glass structum."
ropwt svibmitted fbr 4th AU-VAIm Ccnf an OLruetwm of Glass., Imningrad,
16-21 Ik-. ".

W-TVE,YEV, M.A. [Matsveeu, M.A..I~ ItITVTXEV,, G.M. [Matsve(u, H.M..,
Chemically stable alka L glasses for the manufacture of
fiber glass. Vestsi AN BSSR. Ser. fiz.-tekh. nav. no.1:6,6-77 164.
.18:1)

ACCESSION NRz AP4040 S/0063/64/009/003/0.-754/0355
~505
MSORSs VatylM, 0 Matveyev' X. A.
Lik L
2 systea
'ZiTM Thermodynamic analysis of solid pbase reaotims iu the B*0-540
F
!'SOURCEs VaesoywmcW* Irki-14heskoys obahahest". Mairnal , v. 9, no. 3. 1964,
1354-355
TOPIC TAGS& ref3r.:--tory material., beryllium oxide, silicon dioxide, ber7llium
silios;te, beryllium silicate enthalpy, Isobar poi;ential, beryllium orthosilicate
ABSTROON The present investigation was undertaken because the interaction of
w:L+-'h S:LO is of gireat importance in tkik production of refractory aat:-rials and
elass. he thermodynamic analysis of Be2SiO4 and B*SiO of the forw -~tion from
3
oxides was conducted. After the therm3ohemical data were assembled, I;h* enthalpy of
BaSiO formation froa the oompozents was osloulated by using tba equir;ion
T, from &r, earlier paper by G. M. Natvayev
AH5,50. (ARMOM. AHAN.80)
(Tra4* WWI in. D. 1. Mandeleyeva, No. 24, M.. 1957, P. 2.3~).~ ..T#e d R - t(T) and
AZ . f(T) were calenliated for the two basic reactionst '&0+SK6-1j~0-Si0q . .
cmd 1/3 zko + 306 - 'Uto-W

;IACMM-014- NR& AP4040505
The fthes for the atM1W mA the L~oV,;& petatibl vW" W tapeftw" r*Mv 6f
.500-1800K are presented in the graph (see MS. I an the Mactlosuxv). The authors
oonclude that in all Wtanoes beryl 'm orthomilioate would be the mociot suble
ompxmd and that it should be producod IV crystallization Prom, & iselt or gla.".
'Soms of the thersochsaical data were calculated by 0. Mo NatwWw. Orig. art. hast
Ublep I obwtp 2 formls,sp =4 1 "tiono
A=Ik' IONo Mosoom khimiko-tekbnologiahookly 4.mwtitat imo Do Is Meadeleyeva
:(Mosooff Chersiooteabnologioal Institute)
SUBMET.Us 22ft63 D= Ac-qs 06julk ESCL& 01
MM 0=8 Qcp mr 10 REIP Wo 005 000
.L5~~d- 2/3

'**~ 49
Fig. 1. The relation between 4 8 and
4 ZO reactions in the system BeO
S'02 and the temperature within the
range or 500-1800K,
I - 4 Z - f(T) for Be2S'.041 2 - AR
f(T) for Be SiO4; 3 - ~-Z - f(T) for
BeSiO 1 4 .'H - f(T) for BeSiO
3 3
Pe

ACC NRi
W(M)AW(e) W1
SOUNCK COM
AWHORs Matworev. 0. N.
nTLB# xffftt of 9203P B409 MML, F*2931 Sa2O Md')PP5 aWtlo'w M the Cryt,lli,,-
billty or some alkalfree .1lawwo in the C tA~PrB
SOUVCZs Ref. sh. Malys. Abu. 2A553
RXr SO1MQBv Sb. Stakloetwesn. mostayanlys, T. 3. T". 4. Hinak, 1964p 89-92
TOPIC TAGSs glwsp Llass propertyp cryetallisation, allmli
Al "'"RACTs The effect Of 4MIng 8293P DOD,, MO, F0291, VaP and P-Dr in quantities
or ;! to 8% on the crystalzisibility of al#pwres guaws in the 60-6 - MgD - A120.3
S102 system was studied. Only 9293 is effective U lowering the upper limit of
crystal lisation. A mintaus 3.5 to 4% additive of 9203 guarantees an optimal uTper
Ujdt of crystallization. Us adkUtIon or small quientities of P205 results in a
9Mrp Ine In glass crystallizabIlity. At 2% P205 the upper limit of qUp*,
Usatiow= 1301P. A furUw%- Incrawne of PPS e6koutratian extended the upper
limit UP to 135W - la - Shankla
SUB COM 07/ SM DATBs now

MrAVEYEVY G.M,, kand. takhn. nauk; RU-D(Yf, B.L., inz~.
"Feam glami, 11 Stek. i ker. 21 n 3. 1:-1#7-48 JR 'r)4.
(MIRA 1'7,, f,)

.4ftTWEMp G,Me, kand, tflkhn. naukl RLWY, B.L., tnah.
wMeasurment of heat processes." Stak. i ker. 21 no.7:4.1
JTl 164. (MIRA -71lO)

Z.

Ilk

Orr

...... .. ........ .. .. ..

BABUSHKIN, Vladijmir Ivanovich; MATVEYX Gervan Miklifqlovich;
V,-.- -
~jCHEDLOV-PZTROtJYAN, O.P.-,--a-oktor taiihn.
rod.
[Themodynamica of silicatse) TemodinamAa sillkawv,
Moskva, Stroiivdat, 1965. 351 p. (MIRA 18:12)

At"
Md

m
m
-.1. - -.-
- . -Z
, I I .--'- .,;.,
. . I - 7
- , : - : i I Y~

KATVEYLV, G.M.
~ ~ - ., . .
Standards for fertilizer vitaminn. Standartlzat.;iia `9 nn. 11:
28-30 F 165 (MRA !Oil)

Z;
np
OF Al
A
Ki~
to"M
07
Wm~
Aw
64
.21, moa2t 1964
-.--zoo-rg
li"O
o,
A
%~q
A
Oz
-lexiogrixturestirengtA
w
6 RNWW,-~
AIN
-j7'jfI ... ... ., -
hi telationd
-a -
'A'an ~;O cefts a mtt--~
-bar -Ca t ersom
4 h
TA
t4 "alru"
FAT 14z,
fps
I eVa I~o6 high
--th.5"t I -tira isram
P, -tji- --'So
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.,,,,6o2q826 W SWRCE CODSI wk/o363/76jooz/(Y38/1.4
_QS_;
AUTHOR: 1,Vveyev,, M. A.; Povanerp R. L.; Kharitonov, F. Ya
ORGZ IvIoscow Chemical gkr~pe~~pg titu"_im. D. I. Mand 1%lr-v (Y,*3kovs!dyVtekzA*1o-
gir.-hoskiy institut)
T.r.'ZZ: Use of ceramic materials in a water vapor medium of high Wamaters
SGUICE.' AN SSSR. Izvestiya. Naorganicineskiye materialy, v. 2, no. 8, 1966, 1503-1513
TOM TAWs cer=ics, water vapor, corrosion
IZSTRACT.- Zie reactions of ceramic materials of-various phase and chemical conposi-
tions with water and water vapor of high parameters were studied in tests lasting, -LIP
e'
to 1000 hr An i ttack of water-glass compositionsp materials made of por-
colain; t.t.,,Tens ve a
"~ste
7 orsterito and wollastonito was observed. The attack causos a de-
1 .,roase of density (an increase in water absorption, and porosity) and strene-;h as a re-:
-ult of the format!.on of hych-ated ions of the corrosponding metals and silicon-oxygen
anions. Loss subject to attack under those conditions are materials based on conindum!
and mullite. The experimental data were confirmed by thermodynamic calculations of
the kWcL-ation of the tested materials involving the use of known values of the therm*-,
dynamic potential of the original silicates w-A hydrated cations wA anions. Orig.
art. has; 4 tables.
SUB COM: II/ SUBM =.,& 12Jun65/ ORIG REFt 01-5

HAMMY, G. N.
39V fwm of Irle camd1las A.Gromen. SeeboU Gruz.SSR 8 me.9,117:
6196-622. 147. OMU 91.7)
i-Akadedyn nauk Gmsimaker SSR. Botanichookly institut, Tbilisi.
Wedeturlem deystwitellays chlosom Aknd**tI D.I.Sessovskim.
(Irle (Plant))

AID P - 4595
Subject USS.R/Aeronauties - training
Card 1/1 Pub. 135 - '~/23
Author Matveyev, G. P., Cpt., Pilot Class I
Title Flying a jet bomber at night In a two-ship element
Periodical Vest:. vozd. flota, 3, 38-41, Mr 1956
Abstract A detailed description of the training of pilots for
night flying in formation is given. Tne article is of
Informtive value.
Institution : None
Submitted : No date

MA THY ri-t-w'"Glir w
Loosening cl4:, by blasting. Tranap.stroi. "-' no.12i
Z7-29 D 164. Mm 19ti)
1. Glavnyy inzh. tresta Sevtransatrom.

i's inzb.: JMILLIANTOV, L.N.. insh., red.;
Iqh
[NakIng large brick blocks In building yards; the pr4etIce of
the Tolmobi Brick Factory) Isgotoylente krapnykh 'blokov is
kirpIcha na poligous; oW Tolumchevskago kirpichnogo savada.
Leningrad, LeningrAcm nauchno-tokhn.propagandy, 1957. 27 p.
(Infornatsionno-tekhatcheskii 11stok, nos.13114. StroltelInsia
Provirshlennost 1) (MIRA 11:1)
(Brickmakins) (Building blocks)

NAMNV, Geor4 __ch, lush.; ITAUOV-
y-Taa1l.'yoj!j' SKOBLIKOV, P.T., lnzh..
ta1U.-tfG-VI-Rnv V'*Lo_# to'k-haerede
(Using bleating methods In ripping clays] Rykhlonie glin
vsryvnym sposobom. Laningmd, 1959. 22 p. (Leningradskit don
mauchno-tekhn1chookol propegandy. Qbmen persdovyx opytom.
Serl1m; StroltelInalla proWshlonnostoo vypozoo (NM 13:4)
(Blasting) (clay)

MATVMV# G6V*
Device for redtdcirtg vibrat.on. Transp. rty-ci. 14 nu.7-5v(, JI 164.
(WILRA l8il)
1, 'ilavnyy lnz'n. tresta Vw;tmnsstrom.

GIAZACOV, B.; MATVFYFV, I.
Mech~izad atation. iashch. rast. ot vred. i bol. 10 no.3:11 -A
(KIRA 19:..
1. Zaveduyvahchiy otdolom vned-reniya peredovogo opyta Ukrain5koy
opytnoy stantaii tevotochnykh i dekoratimykh rasteniy (fcr
Glazachev). 2, Direktor Kiyevskuy stantsil zashchity zelpnvkh
nasazhdeniy (for Matveye-.;-~,

1. HATMEV. I.B.. YAGLWOVt V.A.
02, USSR (6w)
S. GrIndift ad Polisbift
7. Selection of amootbness in the reverse, Motion of pinders. Stun.i instr. 23
no. 10p 52
9. Monthly List of ftssian Accessions, 1.1brazy of C,,g,,,,, F'4br4arY -1953. Unclassified.

SOV/1"1--58-10-5/?5
AUTTIOR
hchetinin. T.A.
TITLE: The. Choice of the Crank Shaft Speed of Plunger z1amps
(Vybor dhisla aborotov kol.,ewhatogo 'w"ala krivoshirL~-
plun hernykh haeogov)
PERIODICAL:Stanki I Instrumeat, 1958, Nr 10, pp 17-19 (USSR)
ABSTRACT: In crank-driven plunger pumps of a given pressure aad
delivery there is a speed of rotation which yields
the minimum sum of pressure aad inertia forces in the
crank mechanism. A formula (equation 10) lis g_-en f,)z
the optinum rpm in terms of the number of' -y-liniers,
the.pump delivery, the bore to stroke ratio and a
factor expressing the mass of the moving parts, Tt_-.8
optilmim rpm is independent of pressure and -Is
proportional to the fifth root of the number of
cylinders and inversely proportional to the fifth root
of the delivery. The best bore to stroke ratios are in
the range of 0.8 -- 1.5 increasing with pressure and
delivery. The optim= rpm is much higher than In
Card 1/2

SOVAL2 1-58-10-5 /25
'khe Choice of the Creak Shaft Speed of Plunger Pumps
standard Soviet Pwmp designs. A new pump designed
and tested by ENIKULSh for a prussure of 200 kg/cm4
and a delivery of 100 1/ming coizp&red withLa standard
unit (model GB-354) for the same duty, has six
cylinders instead of threeg 146jO rpm instead of 340,
a stroke of 28 mm instead of 18, a bore of 25 mm
instead of 14 and 'reighs 3DO kg instead of 1660.
Both are driven by 4.0 hp. There are 2 Illustrations
including 1 graphq 1 photo and 2 tables.
Card 212

Bit
V
I
CIA
Oil

ZOTOYST. A.1.. kand.tekhm.nmuk, red.-. BOLISMOT, O.P., Insh.. red.; TYATKIN.
V.P., kand.tekbu.nauk, red.; VASILIM. N.M.. lash., red.; TAMWIR, A.
P., Insh., red.; Insh.6 red.; WrTT?~j %Mnd.tskhL.
xm3k.,r*d.;-KAR'YANM11K,.K.*., insh., red.; f6tICIMOT. P.V.. lnzh., red.;
PMWOZCKUWF. B.S., lnsh,, red.; P(MM, 'S.Aes Inigh., rail.; RUBNEN=Ap
L.10, red,; MHANOT. V.I., rmd.; CHUDAKOT, P.D., kand.te-mam.nauk, red.;
WMAMCNIM, N.S., red.isd-ve; 3MOLOVA, T.F., tekhn.red.
[Investigation and design of drop forging and die stamonj, machinery)
Issledovenlia I reschety =shin kusnechno-shtempovochnogo ;)roltmodetva.
F-A red. A.L.Zotleva. Moskys. Goo. mouchno-takhn. i sd-vo w3hinontroit.
Lt-ry. Vol.l. 1959. 133 P. (ND 1 13::4)
1. 21coper1mantalInyy nauchno-issledovetallukly institrmt kv-snecrino-
pressovogo mashInostroyenlys.
(Forging maebinery)

NLTVZTBV, I.B..; SHONTININ. ?.A.
Reducing the weight of emak plunger-pun". Ius.-chtan. proisv.
I u%8:21-24 Ag 159. (KM 12:12)
O'Porging mchinery-Hydraulte drive)

k I
ACCESSION MR: AP4041635 q,/0182164/000/006/0024/0026
AUTHOR: Kope tin, A. M.
TITLE: Hammers with hydraulic drives juid &election of their control systems
SOURCE: Kuzaachno-shtampovochnoye proizvodetvo, no. 6, 1964, 24-26
TOPIC TAGS: hydraulic hammer, steam air hammer. hydraulic hammer nontrol system.
hydraulic hammer design, hydraulic hammer efficiency, hammer operation economy,
hammer performanoe characterlaft
ABSTRACT: The authors designed a now control syotem facilitatug the use of individual
hydraulic drives for hammers and satisfying the requirements for eontinously variable
stroke length In operation, rapid reversing (0. 01 - 0. 03 sec.) without the use of mechanic4l
systems fastened to the hannner, as well as accumulation of high energy (103 or 104 kgm)
and its *ease within a few hundredths of a second. Utilizing a relatively small volume of
compressible ligaid a* an accumulator arid a system of rapid action valves. they built a
prototype with a maximum Impact'snergy of 100 kgm and a hammer unit weighing 32 kg'
d;rd

ACCESSIQU NR: AP4041635
capable of 300 double strokes per minute and developing impact energiet of 70 kgm for a
height of 17 5 mm (i. e. . ratio of acceleration of g = 12 to 14). Tests of the prototype
indicate high efficiency (0. 6) and the feasibility of using the propojd system forhydraulic
hammers. Pressure in the accumu'latur.should be 600-700 Wcw and the unit should
be separated from" overall pressure network (100- 150 kg/cm2). CWculationg.of
operating economy, based on consumption of electricity to operate the U-211 unit (mLx.
impact anerwr 3600 kgm.. bpmer unit 1000 kit for 5960 bra. per yW,. indicate annual
savirq& of 322, 000 rubles lor 100 hwomere (0. 012 rubles per kwh; 22 kwh reqtkired for'
propolDd system " compared to 67 kwh for present compressed air requirement of
670 m /hr.), and sanest the advisablUty of viodifying pasent steam-air hammers to
hydraulic operation. OrIS. aft fias: 2.4i*Snma and 4 formulm.
ASSOCIATION: now
OMMITTED: 00 ZNbL: 00
SUB C0DZ: 119 NO RXF SOV.- 002 MUM 000
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