SCIENTIFIC ABSTRACT NOSKOV, D. G. - NOSKOV, M. M.

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SCIENTIFIC ABSTRACT
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10SIOT, D.G.m Aster domennogo teakha, Geroy Sotsialisticheakogo Truda, All through life. Sov.profealuz7 26 no.5:10-12 Kr 140. (KM 130) 1. Chusovs1dy, metallurgicheeldy simod, (Chusovoy-Steel Industry-Labor productivity) IJIDSKOVI F.11., assistent Effect of variation in modulating-voltaCe amplitude on the results of the measurement of distances with the SVV-1 geo- dimeter using the null method. Izv. vys. ucheb. zav.; geod. i aerof. no-4:27-39 16.~. (MITYL 18:2) 1. Novosibirskiy institut inzhenciov geodezii, aerofotos"yem- ki i ka-,tografii. Pekomendovana kcfedroy fiziki i radiogeodezii. 2 2 002 5 Zq,92*101,1117) 3/154/61/000/002/001/001 D050113 AUTHOR; Noskov, F.P.p Assistant TITLEj On the rotation of the plane of polarization in the lower atmospheric layer PERIODICAL: Izveatiya vysehikh uchebnykh zavedeniy, geodeziya i aerofoto- s"yookat no. 2p 1961, 65-68 TEM The author examines whether there is a rotation of the plane of polarization and a consequent'distortion in a heterogenous medium (air) of a polarized light beam as used in geodimeters for covering given distances twice, This problem is of practical intereatt because it may lead to cor- rections for refraction* It shall be assumed that the direction of pro- pagation of a plane-polarized beam AO in a first medium (with the refraction index n1) forms the anglecp,'- with the outer normal ON to the boundary sur- face in the poinf of incidence 0 of the beam (fig.1) and that in the second medium (with the refraction index n2) the beam travels in the direction OB forming an angle i with the inner normal ON'. The angle A r-4 -i appears as a total refraction. It shall be further assumed (fig.2) that the angle Card 1/6 22025 S/154/61/000/002/001/001 On the rotation of the plane uf polarization ... D051/D113 between the plane of oscillation of 'lie electric vector and the plane of incidence of the beam is equal tt,() - In this case, the wave falling onto the 'boundary surface can be conceived as the sum of two waves of identical period with an identical initial phasev but wi+h a different amplitude and different planes of oscillation of the electric vector, the vector of one component wave oscillating in the plane of incidence of the beam and the other in a plane perpendicular to the plane of incidence. The modulus of the amplitude of the electric vector will be for the first wave for the second wave E ME Cos E -2 sin (2) If the directions of both refracted waves are assumed to be coincidentp the amplitudes of the waves beyond the boundary will change differently. Accord- ing to Fresnel's formuleeg the amplitudes of the refracted waves Ef and El are expressed through the amplitudes of the incident waves E and EP p 8 Card 2/8 22Q5 3/154/61/000/002/001/001 On the rotation of the plans of polarization so@ D051/DI13 in the following way Ef E 2 sin i cosoe, ;~o P sin(cc+ Q coo (4- 1) Ef WE 2 sin i cooc/4 a sin(pC, + i) These formulae show that? during the passage through the boundarys both components of the wave lose part of their energy (due to reflection), but in a different way# and, finallyt it results that the plane-polarized wave changes the plane of polarization when passing through the boundary* Look- ing at this phenomenon in greater detailt it can be seen that in the second medium EfPEI oosO EI.WEI sinQ Card 3/8 22025 S/154/61/000/002/001/001 On the rotation of the plane of polarization 000 D051/DI13 (01 - angle between the plane of refraction (and incidence) and the plane of vector oscillation in the second medium.)e By substituting formulae (1) and (4) in formula (3)# we obtain Et Cos ~o = E cos ~2 sin i coqoC- (5) sin(dL+ i) cos(cA.- i) El sin@' = EsIn(9 2 sin i cosaG (6) sin (cK, + i) Dividing (6) by W we obtain: tg tg ~ coo(o(-- i) tg 8 cos A r (7) or oos A r tg 0 tg Equation (8) shows how strictly the refraction of the beam and the plane of polarization depend on the passage of the beam through the boundary. The total refraction A r of a beam in an atmospheric layer near the Earth's Card 4/8 2201215 S/154J61/000/002/001/001 On the rotation of the plane of polarization #do D05l/Dll3 surface is L6 minutes at distance of 20 km between the points and a re- fraction coefficient of 0-15. This means that cos&r will always be poo- itive and its absolute value near to unity,, It also shows that the plane of vector oscillation of a plane-polarized beam.always rotates towards the plane of incidence of the beam (independent of the ratio of the refraction indices) andt consequentlyp we always have the expressions 0 0 where A& (always positive) the angle of rotation of the plane of pola- rization on the passing of the beam through the boundary. Since toth a r and 60 are small valuesq we transform the expression (8) by expanding in a series cos D6 r and tg 0 1 - tg(O _,66P) and limiting ourselves to the initial terms of the expansion* After performing the necessary arithmetica operations we obtains (&r)2 4 G (9) sin 2 a In order to determine the order of the magnitude of the rotation of the Card 5/8 22025 S/I 5Y61/000/002/00 1/0 On the rotation of the plane of polarization ... D051 D113 01 plane of polarization# we rearrange equation (9) in the following wayt sin2 (10) 4 Converting radian measure into angular we obtain: 2 A sin2 r) 4 ?" Let us assume that the refraction index of the air changes along the path of the beam not steadily, as is actually the case, but suddenly at one par- ticular point of the beam. Let us also assume that A r . 10811 (see above) and sin 2 0=1. In that case 1. 17 -, 10 10- 0"*015. 4 4 2 In this way an analysis of tjie order of the magnitude ofAO shows that the rotation of the plane of polarization in an air layer near the Earth's Card 6/8 -1 1 ~ 4A)I 9115 1 000/00,2/001/001 476 On the rotation of the plane of polarization .00 D051/"DI13 surface can be neglected. This also follows from an analysis of formula Mo The study pernits the following conclucions to be drawnt * lo The assumption that a plane-polarized '.)eavi travelling in an atmospheric layer near the Earth's surface over distances up to 20 km is not exposed to rotation of the plane of polerization, is gractically fully justified. 2o Porraula %I shows that with the rotation of the plane of polarization the distortion of the been can be determined and a correction for refraction obtained.' It must be noted that the available devices for measuring the angle of rotation of a plane of Dolarization are not sufficiently acourateo 2he best of them permit this angle to be deter:.-.ined only with an accuracy of some tens of seoonds.. fAbstraoter's note: essentially complete trenslationlo There are 2 figures and-1 Soviet-bloc reference. .j A'~'SOCIATIOIT: *41avosibirskiy institut inzhenerov geodeziiq aerofotos"yemki i kartagrafii (11ovosibirsk Institute of Lngineers of Geodesy, Aerial Photography and Cartography), ~)UBI',ITTED: October 6, 1060 Card 7/8 N`,'i F 0 V F.".1 ... a~3'4 16 t#Ln-'- (MITRA MOSKOVO F.P. Using the method of comparisons in measuring distances with the SW-1 goodimeter. Geod. i kart. no.8:13-16 Ag 163., (KMA 16:9) (aeodimeter) ROSKOT. r.S. SWficancs Of COUJanctlyal InfGatiou Of guinea pigs In the Identi- fication of dye3ntery bacilli. Zhmr.mlk~oblol.epid.l I==. 30 n0.7: 124-125 J1 159. (KEn 12: 11) (MIGV.L&) Nosmo, F.S. Ifis of Perfl2cay-Cmbe eapil2aries for the ster-UrAf -tion of Aicrobe sups=ionx. ro. delo [7) na+41-43 Ap 161. (KIFA 1493) (UGT&UOU)Gr-TljcHNIQm) GULYLMKIY,, R.A.; KOSKOV, F.S. Possibility of using s=e nitrofuran preparations for emrgency pre~- vention and treatmento of agpecisUy.dangerow infectiome Report 90.1t Effect of nitrefuran preparationo on the. vacaLml, straia, F.pestis 116.1, ~7. Zhur.mikrobiol., apid., i 4=1 . 32 no,laiza~- 25 0 061. (HIRL 14CIO) (FU~dfi) (PA.STEURUU, PESTIS) BMWs F694 Nicrobe motility In plane-Varellel capillaries. Mrobiologiia, 31 no.6*IM2-1093 R-0 t62. WFA 16'3) I., Tayokava)w ah&W 14,09743. (UGTMIOr=-TEGHnqax) (UGTMI&-4WIIITT) ~UOSKOV. F.S.; BOLDASOV9 V.K.; GOLIDIN, R.B,; YM&KOV, N.V.; VOLKOVA, L.A., Contrast method of fmmu ofluoreacent dincovery of adanoviru4see In the kidney cell culture of guinea pigs. Vop. virus. 10 no.5t6l3-614 8-0 165, (KUU 18M) 1. VWnno-meditsinakaya ordena lanina akadeniya imeni. S.M, Kirova, Leningrad. L -27116-66 MTM/T JX ACC NRt AP6 04/005/0613/0614 004869 0) SOURCE CODE: UR/0402/65/0 AUTHOR: NoskQV-, Boldasov,_V, Xo; Gol I din Be Be; -yormkup "IF "50 N. ve; Vol ON 0 Ls Ao 33 ORG: ftlit2a Medical Academy im. S. Me Kirov, Order of Lenin, Leniu-rad (Voyennomeditsinskaya ardena Lenina.skademi TITLE: Contrast medium for immunofluorescent detectio- of adenoviruses. in c 11% of guinea p-17g,-Vi-dneys a I oulturet SOURCE: Voprosy virusologii, no, 5, 1965, 613-614 TOPIC TAGS., virus disease, animal diseaeo, experiment animal,, boat ABSTRACT: Bovine serum albumin labeled with sulforbodamine B fluoride was tested as a contrast mediun for adeovirus t-YPe 4 infected guinea piE kidney cells stained with I'luorescein. The infected cells wera exposed to the specific rabbit imm-une globulin, then added with fl~orescein isotbiocyanate at eil rate of.10 mg fluorocbrome per 1 g protein. The phosphate buffered serum albumin was first-conjugated with freably synthesized sulforboderine B fluoride in an alkaline medium, then purified, Th.e fixated adenovirus preparations were treated L27116-66 ACC NRi AP6004869 with the mixture of conjugates J'or 20 minutesp than studied under the luminescent microscope, *Normal cells were brick red., the protoplasm lighter than the nucleus; the infected nuclei bad a specific green color with bright green sparkliug enclosures$ Upcn single step processing of the preparations,'tbe specific interaction of virus antigen-antibody was not inbibil',ed by the presence of the labeled albumin, The pbysicochemical absorption of labeled albumin on cells led to nonspecific staining of ;be backgroud (cells containing' no virus antibodies) wbicb did not depret3s specific fluorescence Tb',.s method .al.so permits the detection of single infected cells, Ns use is recommended. "The sulforbodamine B fluoride was placed at our disposal I by Prof, 1, S. loffe whom we wish to thank for his courtesytlo Orig, iart. has: none* . SUB CODE: 06/ SUBM DATE: 26Ncv64/ OTH REF: 006 -4 2/2 NOSKOVP G.A. I ~ -a ~- -: ~, ,. I Use of decoy birds in ornithological f-,eld studies. Vezt. Uj- 20 no.3:14"t-150 165. (:,lI*.-,It IP:2) ROOM, ,-. ftse.1bilitios for the ImproTiment of contraligod control. Ilske sta, 30 ne.3:49-51 Kr 159. (MM 22 c 5) (IlectrIc power-plants) KOSK070 G.S.; CHERKYAKOV' G.S. 9 Raise road design to the I#vel of modern problems. Avt.dor. 26 no.4slo-3 Ap 163. (Etoad"esign) II (KlR)L'l6t4) HOSKOV9 I,g podpolkovnik Lomder of a taak gtw. Voen, snan. 40 no.6t13 JT6 064. (MIRA 1717) MOSKOVO I., podpolkovnik ------ Succosses don't come aaay. Komm. Vooruzh. Sil 46 no,4:66-70 F 165. (MIRA 18: 5) __-ff! podpolkovnik The gas scout. Voen. zman. 41 no.4:11 Ap O"TRA, -?: 3 110SKOV T rod- -,1kov-r Jk , 1. , Seeing, but, unseen. Voen- znan. 41 no.9:12-13 S '65. (KIRA 18: 10) I I I I N, - NOSKOVI I.0 podpolkovnik Without a miss. Vaen.-znan. 41 no.32:12-13 D 165. (MIRA 18:12) 1,'OSKOVP I.s podpolkovnik Tankmen conduct accurate fire. Kom. Vooruzh. Sil 46 no.20:53-55 0 165. (MIRA 18:12) AUTHOR: Hookov, I. A.. Engineer 105-58-6-9/33 TITLEi On the Determination of Torques of Turbine Generators During Nonsynchronous 4eration (K opredeleniyu velichiny momentov pri nesinkhronnom vklyuchenii turbogeneratorov) PERIODICLLs Elektrichestvo; 1958, Nr 6, PP. 36-38 (USSR) ABSTRLCTs With asynchronous connecting of the generator, the maximum instantaneous value of the electromagnetic moment will de- pend on a series of factors. It is attempted here to ob- tain a simple formula for the moment which takes account of all these factors, or at least of those which do not introduce any essential error. Such a formula can be ob- tained with sufficient accuracy from equation (1) expres- sed in relative unities. The amount of the moment with asynchronous connection - formula (2) can be obtained by taking account of all factors enumerated here (initial phase-angle-error, - difference between the EMK of the generator 3 and the line voltage U, amount of the effec- tive resistances in the stator-circuit and the amount of Card 1/4 the initial slip), - as well as of the attenuation of the On thaL.Determ1nation of Torqaes of Tuxtine Generators 105 -58-6 -9/33 DuAng Sonsynchronoug; Operation aperiodical stator-current component. Formula (2) does not take account of the rotor-asymmetry. The analysis of the formula for the moment with asynchronous connecting which takes account of the rotor-asyametry shows that even with the minimum admissible external reaotancea, the error does not exceed 5% in case of not taking account of the rotor- -asymmetry. The investigation of the influence of indivi- dual factors on the maximum value of the moment shows that in the practically interesting cases where the amount of slip is within the range of from zero to lo%, the influence of the slip must not be taken into consideration. Formula (2) is simplified by this to formula (3). The amount of the effective resistances in the otator-eircuit or the value of the angle 9 exercizes an essential influence. Inventi.- gating (2), the angle corresponding to the maximum-valu,!- of the moment can bo found. It is pointed out that a change of the generator-EMK influences the amount of the monent much more than the change of the line-voltage. The analysis Card 2/4 of (2) and (3) for the power delivered b,-, the generator On the Detemination of Tortues of Turbine Generators 105-564 -9/303 DvxIng 11onsydochronous Operation under different syi..,,motric asynchronous connections and the comparison of the same with the formulae (2) and (8) from reference IC, ohow the following: 1) The maximum occurs at an initial phase-angle-error of 8oc - 12o to 1350- 2) The amount of admissible amperage with asynchronous connecting determined from the condition of the extreme moment in comparison with the nominal amounts to from 6 9 to 6, 4. The amount of the minimum admissible exter- nal reactances ie within the range of (19 58 to i, 6e)X" dg in dependence on the impedance-angle. 3) Disregarding of the values a (alip), T (angle of the full resistance) and k (ratio of the line-voltage-values to the generator-e.m.f.) in the formulae for the moment leads in the most unfavorable case to an error of from 15 to 2o% in direction of the un- derrated calculation-value. 4) Disregarding of the attenua- tion of the aperiodic stator-current component leads to an error of the same order in direction of an overrating of Card 314 the moment- 5) The formulae recommended in reference 1, On the Determination of T orques Turbine Oenemtore 105-56-6-9/33 During Nonsluchronous Operation ASSOCILTIONt SUBMITTED: which takes account of the asymmetry of both the longitu- dinal- and transversal axis according to the machine is inadequate with turbogenerators on account of the compli- cated calculation-formulae. 6) formula (3) is recommended for technical calculations of the moment with asynchronous connecting of the turbogenerators- 7) The simplified for- mulae by Kir3hbaum-Luter can be recommended for the appro- rimated calculation (Reference 1). There are 3 figures and 2 references, 1 of which is Soviet. Llvovskiy politekhnicheakiy institut (Lfvov Polytechnics! Institute) July 5, 1957 1. Generators--Performance 2. Torquq-'-Measurenent 3. Mathe- matics Card 4/4 NCSF,GV, 1. 0'-'% Noskov, I. G. "A case of Asiatic lacusts flying to the Kzyl-KuL-a sands," Doklandy A-kad. nauk UzSb-R,, 1948, No. 12, P. 34-35 SO: U-3566jaViarch 53 (Letopis 'Zhurnal Inykh "tatey, No. 14, 1949). USPENSKIY, F.H., kind. biol. nauk; SOKOV, I.A.; RUMINOV,, A.Ks, kand. sellkhoz.-nauk; IVILKOV, nauk; VASILIYEVp I.A.9 kx4d. sellkhoz. nauk;-SOWV'1ZVAO A.I.P kand. sellkhos, nauk; ZAPROMMV, N.G.-, doktor sellkboz. nauk; YAKMNMV,.V.V., doktor biol nauk; KMSTIMA, R.I.; STROM, M.G.;,POLZVSHCHIKOVA, V.N.; kand. ~~"llkhoz. nauk; KARIMVt N.A.,, daktar biol. naukkf"7 TIG, kand. sell- khoz. nauk; KHODZHALM, A.M.; ALF-1KV,_B.Z._;-,Tca_nd. sallkhoz. nauk; YAKHORTOV,, V.V., doktor biol. n&uk;.STZPLKOV, F.A.; LYUEETSKIY, Kh.Z.j, kind. med. nauki GUMVICH, B.E.; KONDRATIYF,Vv V.I.; SUDARS, L.P.; KOSTMG, I.R., zaal. agr. Usbekskoy SSR; GORELIK, I.M., red.; RAMIYAROV, A., tekhn. red. [V_nnual on controlling the pests, diseases and weeds of cot- ton, earn, and legumes] Spravochnlk po, bo~lbe a vreditaUktd i bolesniani khlopchataika, kukuruzy L bobovykh kulstur, Mz~2*p parer. I dop. Tashkent, Gos.lzd-vo UzMp 1963. 325 P. (MIRA 16:5) (Field crops-Diseases dad pests) (Weed control) NOSKOV I G inzh Sialne #looms for electrode covering. Swar. pralar. w.g.-27 Ag 162. (KERA 15M) 1. Urallskiy savod khimicneakago mashinostroyeaiya. (Electrodes) xomv~, I.G. Eully pulverlsed C.Pl. ejuays an hard facing zatarWs. jvton. ayar. 16 no,4:71-72 Ap -*&j. WA 16-4) lo Urallskly savod khImIcheakogo mashinastroysaiya, (Ketal powders) (Flux (Notallur"D NCSKOVO I.G. Using complex alloys in electrode coatings in place of iroa powdtr Lvtom. avar. 17 no.3:76-79 Kr 164. (MIRA 17:11) 1. Urallskiy savod tyushelogo khImichaskogo mashinastroyeniya. kandaellskokhozn=k' (Tashkent); PONOMARENKO, O.Yao; ZMIVIDGROU, S.P.; ZAKEUVIDOROGA, Z.S.; LIPSITS, D.T.; LIEUBOVSKAYA, P.I.; POLOTAft. V.A.; TARAMOVSKIT, X.L.; FASTOVSKIYp V.L. 14tters to the editor. Zeshch. rast. ot vred. I bol. 6 no*8:10 Ag 161. (KIRA 15t12) lo I/sesoymaya otaatsiya po raku kartofelya Vsesoyuznogo iwtituta zashchity rasteniy i Chernovitakiy meditainakiy institut. (Plants, Protection of) (Synchytrima--Toxicology) 110icallovo V6 Ff 2. U9SR (600) 4. Arctic Regions - Forests eM Forestry 7. More complete utilization of timber resourses of the arctic regions. Les. khoz. 6, no* 19 1947. 9. 'Monthly List of Russian Accessions. LibrM of Congress. -1953. Unclassified. % M11, 1. P.; YOLM"A4"OV, 7- F. ME Foro~~ts and Foror;rj - Arcl'~-'c Ii--I!xis NO. 1 yor-:3 co:npjeto ut-Mizalt,ion of re'.jurcr,.i of ',* - L,.-;. :L .;Z. 6, 1. 1953- 9. Konthly List of Russian Accessions* Library of Congress, :ay .1953. Unclassified. YMKOVR L. Use the example of beat practice to train. Sov. profmoiuzy 19 MQ.7: 20 AP 163- (MPA 16--4) 1. Starshiy instruktor organizatsionnogo otdela Bryanskogo oblastnogo soveta professionallnykh soyuzov, (Bryanak-Trade unions) ACC Wo -4 SOU INVE14TOR: Sheynin I. S.; Kaskov, L. ORC: none TITLE: A method r determining the and concrete In b11 Idifig structures.. ul Izobreteniya, C UM D. breaking'of the bond between reinforcement Class 42, No. 188744 promyshlennyye obraztey, tovarn"e zaaki, no. 22, 1966, 118 SOURCE: TOPIC TAGS: reinf d concrete, concrete, structurai engineering,,structure ',~rce stabilit adlv w(; Afcav&lry Y "STRACT: An Author Certificate has been issued for a me;hod for determining the breaking of the bold between reinforcement and concrete in building structures by using seas'qrs t gister the acoustic impulse originating in the broken-bond area between the rel caw=4' and concrete. To determine the location of this area, the difference in he son'Ic-wave travel of the acoustic impulse to pickups located I on'opposite aid" the test structure Is measureds SUB 00M 136 14/ LK D=t 11 BepW Gwd I/L VDGt 666,9M693,554:62O.M.2-666.6 Nosko' V, L. N. "Contact-free magnetic re-gristration and rarwoduction." Ilin C6mmunications USSR. Yoscow :Uectrical Enfjne-2ring I~~st of C6mmunications. I scow, 1956. (Dissertation for the Dc~ree of Candidate in Technical Sciences) KnizL~&-a letopis, No. 25, 1956. Poscow 1. au=m, G.; MOSKOV, M. 2, IISM (600) 4- Gottou Growing 7. Chief tasks of cotton workers. Khlopkovodstvo no. 9, 1952 9. Konthly List of Russian Accessions, Library of Congress, -JuuArT 1953. Unclassified. c 9t when ~rd Its x WAS be at- tri We in dar nrc-",zs at e temp. o4f liqui air. ttt couGcvc, un cr imi vat tv, the -ftn nez. ltnrfcvfo 97 VJWWW w a so 0 0 A dw kkad I ww Is cu- milk. I Mk "d M. 0j%pfi*k- Z. 00 uf-mvlaq). -M OW. ad go K= 4. * 00 41 See go 45 sea co". at lam fa 23 x to-ft's cl cm Are% at am. MW- S ! r~ Ae . M. AWES Qj MdQJK X 14"6116-c- m- QTC; &40 The comd. at I&qWd4k act& X WWI co.-4. The Mcc- Cr Z=. Z== CIO . . t tram pec cc. The rtee decfx- 10-Pew-aud ko-P, LO 0, tim at rwo acd Age, 1.00 * 1 moo ASS.&LA 419TALLONSCAL LITC94TWW CLASWCAtWO No $1"ECATO gas 141462 NAP Ong 404 4 ass A Ido -- 4.0 's,- 6 N, t I t . I . r . * " I- - ir a 9 a d- j -4-79 It It PC K a eel ff -,-, - ammummmUm- 't R I- - - ------ -- -- - es'e'd K -- =OIITt --1 9- K-; -i&4 -[-I. - mt-- - - -- W I - - ITev Photoelectric Effect in Curpous Oxide Nature 131, 725s 1933 __ . - _==_ - - - oi, 1~ 16 1' U K AL It It It p 40 L4 M Ow it 1 40 -40 A moroor pk*Uwf*ct* t1roct ilk am* Ko- L.4u acki LUJI-A thin pUtc 44 CuLgo In "tgro, w4, pli~l 1~1 ww" I foo, 00 j-1, s t4 an ckwittastagnct APAJ One %kh 4(jUfU(UAtC4l, I 11T Ap.d. wits 6wit4f wah mad- toe ficki 1-"t alwnt withut lbe fi.M. ATkI at-cut at fwfm trouts. Only Uilht atwxlwd toy Ifw CUA) was cece. live. glad ced light. Wit atwwfwd. fedw,A the erect of Muc tight. roe effect iq exiowned by Ike morme "d 2 riAtial bul tMm" cutortnts which are indurnerd dideccuily a magnetic field. A. 14. V. litman two 00 of j so go# 90 00 SLA d" too Iwo two Its., 6J.00 Poor .4 1.1. 1 ~,III .w omV I, J., i.4jol i,..4 -",j 4 a 'I 4-or V I P4 So of 00000 0 0*00,99*0 0*00000 *00 HOSKOVO M. m. Thermoelectric and Galvanomagnetic Properties of Semiconductors. Leningrad Physica-Technical Institute,, 1936. SO: U-18379 24 April 52. N()SKOVV H. M. Frall's Effect in Nickel ffigher than Curiefs Point. Sow. E*s- SP, is, 1936. I (I it is tt v W, slity a so a Plait Stu be I IL go S W a t a to a a K are --X-A --t--r -1 0 0. 1-- It ' AL L A I V X.F A -L- M.. K Ir A Kiff -(,i. IfOlla dwa e(col Lds",tv and r .00 01,44 awl 'v Itak'" i " cloid. Arr kiwa tog CkcUmmeticilk. dm I MMMASS -14 1 "1 (MATICIS Of Cf. Z01. CIO AM [A -Imnst1w 4N.414 c ' - t J t d t1 r au - m . d i j,utwo. t . J1. 57J,,& ). 0o4 '40 00, Coo coo I zoo ,,go '60 441V so 91* loot 4- I 4--f '57 It I *TL AM 4 t to ad IA VIA th Ic PC a cc it K ac I ic 9 2 ore 0 0 9 6 OF 0 0 6 W , * 0 6 a 0 000 00 00 CC C 0 a a 00 0 v a 0 : o ; - - - . ". ' ..'a 'N'v -M - , A- -I- - - " 1 W , f , 0a to *a* A ~ e v %. - - - - - A to is Im LF ovi;u Alt* to P& A, . L 4-Z -JL c.-V A. i ~U t-IL -L-L. AOL. aIX a P~. Kit W u is mi is a Kit. 1 6 c It w 4c #I tr Aw AA Kot" #44a in curvism Desdr. is 00 Os W a que, Mtn glad the anki..c, *40 9 1 01ok- %Imo CtT"-4 i's u"w.. Thrfr4l(I'lact hi dwi-alin" If t If to s"Wv o $, .0 : eel 0 c go C :i ;I Its* go J." (I So* 010 Coo 004 coo E Coe 04 goo, 00 Are & gas age "I r "SALVO wi 0. . a I, iT~ M sc 49 4 1 Ift '0 0 or 0 0 a & a & 0 0 0.0 a a 0 a 0 9 0 a 0 a 0 0 0 0 0 0 a 0 0 0 0 4 Oct 0, 0 a 0; 0 * * & 0 *4 At 0 off or 0 a 0 & w oie & v 0 0 04 & 0 f 004 Not Ifo* " 6140660#t 0006 we 06 too 0 # 404-0-- 69 ~Vosolt * 0 04 $@so to OvIlUIJI&SWUR , 11 n a a 1 n I I I It It U $a a k Lf a IF 41 a (S 11 K act- L.1 W.- 11 9 C , - - t 4 -C A . AT -00 The Anls*tropy of Vie Kfal Meet In Etna and Caftium Slacle Crystals# U.N. Ig1kv (Z hure Ikeper. I Teoret. Fisiki (Jo Expero Tbe*rot. ftyetoo), (6), 11YOUS)sG(ra, ftestans) Very oarkvd anisotropy aC the Katz Goa- lose, -00 Mant* in both setals was obwvodo This anisotropy 4acrisesed on lownring the ' -00 181 C ! "erature Crew team te"trature to the temperature OC IbLutd aLtrops US .60 00 "lat* Yalu* of the constant IncreasInC at the sam timee The parallel bob& between the Hall gerq4t, dt"Nvotio SU444PUbtlity, and V-6 "Caette r tharge to restatanao to those two metals to causider4d.-CA 3 CG# V see Go A., got 00 -1 -6 6 v 4n u W 0 1, 11 IV itaof d to 14 it a 4d a a a I It ii 9 a 4 2 a , a 0 S~ 0 a. a W 00 Wo 0 &1 : : !Q 0 go 0 owes$ of 04000 * 4 ' W 'p F ~1 1 If r MVI - I L - ". 4 %!. 0-0 ntp) 00 ibUke TI i 1i R- w p-s -I UK (irA;. 13f.-4 O(A Wmtba of the coUlar withmg dAMA&g the wi& b A = h f e a a t Ug~fapM in WafWlo pmpectiss o mAimcamecoac O's MAaw. 00 .100 coo 0*4 too glow 91"ashe 104m" at O%v GOC -- at ~' - r ' V 4 481 L v 13 ILS % L I ' ' 0 't W at t is fw a a a I w a 9 a 2 1 ! 0 0 0 ~ A 00 0 6 0 0190000 *69*660toLoof 0 4 O so A 00 go 00 **a Ae see "of a [Sol " Md in mods, 0 d Sim it It XNLW ism Imm 127-129"189 VmdiALI 'T.-Mamft- by tbp man 0& In tw bma pkw cc (6w hisafad kfum -- -"c4btAT. wKk dw book 4( do wp~j. " th;Cryddik AM WAW AMC an aek pk~t back 40 the ekcufc cmmc ;U4 16 wavwfic friki. TIO WrAud -Ana that Wy 00 mapmMit of (bv ewimt UiLk* I* PUSM (a Ow baml md thr mopowas ULI.-b is wcpmdkutdz us the plaar take pu% in K 0. T. 414-St.6 ALAO I'lle"IfIft Ott C 9- ilIFIVAIP Sit Not see wo 0 woo see Ve 0 IA 'w -0 al R 0 or It a, is new a w I w "was 's 15 L a U 4s 40 J614- ON"& OC PA~imtaWQ OC So �kd% Ctroftb k a Agoduaft i k. 4C. Saago. FW. W. Q. Lawmw ad $9. M. KomWw. PAys. Z# - - 40 roj4A. - meaftleawats bAte ban 14 0*44F. to. I - pp. JWIJK 198C . J) macis of 1600 tryvw aim d pwT to to mavw6a A" o( "Ct kG at .00 00 149101-N 6W m"WAAMOM(WOC Ile " Matlom 4fitatems " round 0* t '00 "Id petpusiliculat to Ow current mW to (be um4goatic iWd &ad psaW to goo *0 (be bumal plow at Ow beaAgomal luttke d to have bm ab(aimud. The b l ti b s k t th b t i t c th d ld d t as a n eas i um o e nwa c eac er s a e e c po *vams atek in-tigated. A Hibliogrophy is 4ftmWt4. CSve Vmdiac Ab~UKLI -g w 0 lot 0 s * 0 .44 & o" 14. w * & & & 0 000000 00 a low Sol 000 004 *06 00 off go* woo, wee fee W040 Du a-mmulip I; iii ill ii id iiii so so,* 066"S see **so foe 6 $6,40660W*0 A TRANI slime wair"gas 30, $ 0 9 0 6 0 6 0 0 0 6 0 0 0 into It", ~vv jDaLAU11f) Mad. &S. U.Abk., Wit, U. 60)--4Eu Ell lish.) Films of cellu&)go, Pakt-jito, or liquid oil somo tenths of & , ttdck stpplied tolhe surfse" of nickel, Permaltov, or iron tpecimwx multi- ,I'd th" Magnet(. wip. Jreq Woe or 1-3 ti - The incteam d-lj,-ndcd p mce om ths th(ekness of tho On. After Oxi On wam removed the origimat valub Vr#A:reA6ared. Tim SmAW6 lumikv*% 2-Of wat ob(Alaml wial 4 rdm thick; on either aide of Mis 'fatul the increve dtoM. Thiv t(tret Lq NOSKOV, K.M. USSi 7505. "On the Iafluence of Thin Films upoa the Magne-to-optical Kerr Effect" published in Comptes Rendits (Doklady) Vol. LIII, No. 5, dtd 1946. SO: INOW-B-2293, 17 March 1948 446581 'Awleft FHES NOTA)ea IqkT FerrccagaatiA~m Kagmetic Yields **gaeto-Optio Methods of Studving Forrawgastic Ancqe,w X. X. Nookor, lust ftjs of VAtaas, Vral Br, Ana& Sal UM, rly Ak~A Nauk SMj Ser Fie Vol XII No 6 DI"OuSfes Laluence of magastic fIeIA m distribu- tiam of II&t In substan a. =86 9f cocnim.. Effect of the thickhen and the 0 1 sun V of thin dieleC(9 LIM ort the ft Wit .,r q, P L. M- Al- Nb4U_j-. Zhur. "Itil. 1-forel. Fox. L7. IRK-K (10-ur---We tLtlge Of rotd(fort ,r of the plane of ofariza- b tibn on refice(ion 9 filtered polarized light lue. C en~ Yellow. PtA red) from a ferromagnetle surfa (St c . Ni or CO) i!q altered by thin films of stot, Ca 1. " . f:I C":O, I fgS, Nfc6r, PbS, and TlOt, rodu by c a tt., ot hy filtni of the oxides of the meta , FctOr. NiCP, CoO Lgw With I= tirmlactA by gnmrficfat - ox wig reasin~ thiclkne-S of the Wtute-4haptli tum, the relative M/as angle without fitttt) varies Periodical1r, PaSsinc from an lCmay: (cctas > 1) (a a detemse (mlet < 11. and (ftcd j inctcasing again. The shape of the curve of a giv(:n di- ek-tric varies with; the color. In contrast to transparcrit filins, ab-orbing oxides give rise, at a certain thicktic,%. to a revl~rsat of the rotation (alas < 01. The normal cffcct t1king place with a tramparent film is safisfacturily zwcountrd for by the theory of Frrnkel (C.A. 3T. 42834). which attributes it tos Interfem-n-t-e-W-Mri the film. and givcs, f(w the total angle of rotation. cE - att(t - r"181 r, - 2r Cos 2ka). where r - -(it - 1)1(tc + 1) (tc raractive index). k - 2r/k. a - thicirnm. and all i- the change of the angle of rotation between the frcmt and the back Of Me filat (film/mew boundaryh due (a the mac- netiratiott of the metal. Absorption within the film r(Linces the ratio of amptitudesq - A IB of the ellintic P40yarit-70101. At $mall OU, the (Utal 2nille of rotition in Me 'presence of absorptloet Is a w an(L + I cos &VRI + 11 Cos 6), + (iv sin &)Ili :where the phase diffiselacc A 2k.2 - V, with jo - phase Jump an reflection at the metal/- filin lxluttdary. Net. values of tv arise If v > I. and cm & i -1. This point of view Is bcKneouttryexpts. in which 1 a stmi Fample with an oxide layer, and a sawgly rict. citect, shavred the TIOC"Tal MS. dt1d periodic M When CoVer,!(l -bytnacfdnl.wedite-ifttpetiSiO~fitfft. 0a the other hand. with a steel + SiO~ film sample, with a norsnAl pos. a, ClkltinC With an addrd. At film pive rtse to the anomalous ticir. effect. In, the Ist vaic. the addlat. fill, tesutted itt n - i I it 4ricrrase of V, in the 2n,1 cAie, fit I(% decrrav. Tlh"#- Phenotnena con-ititute a not commonly cousidercd in- stance of itittdcrence of 2 way" with M(arita ion ftAnes slightly rotatcd relative to each othex. Ir. it H. Noikov and A. V. Sokolov. Md. Nq-75.-The fore- going concfu%7_n_s_r"eZTi_v=o e effect of nb$MptiOn Within the. film on a/as. are e0ablished rigo~ousfy by nuth. aualysir, m-Aulting in a general formula, that extends Frcnkei*s original thcory for tmn4partnt fitntc. and criates cc with it. k, a, and the absorption coe(r. c. For films of celluloid. SW4. or ZnS ott Ocel. of ZnS an Ni. and of cart OR Co. the calLd. a/a* at the mzx. and at the wiff. ate irt.~ fair agreement with the cxptt. values. For af*orhinr is a satisfactpcy qu;.t. agreement. N. Thon :105i:07, !.,,. z. "Magnetooptical Properties of FerroaxWnetic ~!atnls and heir Modification Under the Influence of Nonmetallic Films." Thesis for degree of Dr. Physiconathematical Sci. Sub 28 Jun 49, Physicq Inst Iment P. It. Lebwlev, Ac.-id Scl USSR. Summry 82, 18 Dee 52, Dj,4nArttgHnr,- Preqnnted ?nr DpgrfZpa 4n SniF%nrp. jnj ErginApring in Magname in 1242. From Ver-harryayr. L'acloca, Jan-Dee 1949. oil. 0,0 00 400 j 00 41 plot AS of -,Of o's 100- (TA- aw- A si, ow Got dw toontonAwe ex Ub-&(-Vy f#AWAMI 46149 4'. AS *QM bad; in amis dw 11 1 F dM4, C A, Aa,,WC~j X&4AU"W artm am wd w &,Com-- 6 W444-fAsOL44 4,099416" CtattocAtod" Ioft, 914491 41111 0-1, All AN "a IF see Soo qO 0 410, 0 Coe see i0 wee be* KOS :i ;j b:, a - - - - - - - - I- .- 1.- - - g 6 a ]a a !i a * u k rp III 11 1 r 9 t A 41041 1 so so J760. Ko44v. It. 1, S*ckaj cous&uCtion af VqSj(40" a 0 r,.wti XuA. UcLk 0, 13. S3 is, exa. It.- U.It"Itio'Al ill A OUTCU L44L ItIALXgl' 'At(61 ft fiV46 fallaJ16C vatil, Ple 1-44to It to I-ooilato us ottl Itiv kuto It 1 I~ (--141"(44 aif I it 0 of O.Cas 444. 1;11, 4 40. Ill. (to (144 to cow Id 00 p 1 $114404 IJ 1"trd joilat ion 111gop.l. tow" too It 0.1 ga-fla coficutw g4volil all- w-1 for valAiral &-i tar kaft- 4 by 1,.C-ww C4 Full 0 ul ("R114, a'"$ If 4-4 J.-OkW4 14 MCI AliO.J. d All f-t.-4. I L4440.1,A, U& IS to 0 a i. 111-0-tsmUy tilviJ Mills jm~-oo-411[y wonhL.4 folvalotw ,f f1w Iffat"Iy hug.. wutuu.4-44 -9441448.4 414".1v'4 fyj "set. The wAtylic r4a, 41.xf td Ihtto odficts; I-A X111 4. Its w 3 ".1, ice 41.1. IWI. or "g"CA. C. ty. A W. W44fdIatill C, USA 0d , CIO* .4-V- i~ 0 0 1'; , .1 31 1 St 00, , . Splord M*WAW k 11. $1. %fmk&v MA G~ = M. .v4ai S.S.S.R.. sff. Fit. 14. 7573-4t(lgm); d. C.A. 48, 491VA-Ac wow afforw with M. Co. Ad, ta TI, go, Sb. Pd. ra, at. kV Ow CIE4" The itmi. of at. awal f4jL% 1. 2.5. air 4%. ecccpt sherr the o4y. w4e wmaW La V,c. Stim. o0 re&ctium W the ultmviattf j -;t;,W A.) Jae cabtdtckd &# well " ader daft iscludine atemoremms ofthel(All"Wo. It isdwwm that themia. ddr(scommaw WSW kvc(h% and the dep(h al the "d dAvesas with the Wo. ascl amt. of agayinc metals. Thkc9fttimatteibuced to 4 bmIdiscartim of the c9ft4ma b"d "em k8 Ac. S. Pti'swer vApoq X*wttt so J*daa,~q qDyim OT 9XOTT-0 jo dwoj q,4.yx uol;s*Tm 40 BtITOTJ Z,'q'Z Wn SUIACqg "tilwip4dwS pv~mwmjd a" 14-t"Sal ata *u&oo apq!~ uo gAoxtv L;vulq jo tt 0*00T" poxazin JO tZT�tr*IUT JO *OtIZPti*CTZP IUTAMO Z91*010; ',Klg't AJTMnO O-Z ndMK'4Y "gtT dd 19 oil ",LT- lot, 112TA -Xas 13m,61% w at - uss xft t~q pway "AORSOM 6M 'K, ggtO'tEV DT'tlKzW JO =199TV PiXWJVX,,. UOTGam pa"Xpj OOTR~U/WM' AA AA A- v -V-~ TRUDY IMTI=A rIZIXI- METALLOV AM. NAUX. URAIZFII;FTLIAL, 195h, 170- 15 ~j C-n the relation botiraer. 6e Intonafty of mgmetisatio.n-4nd magnet -op ical ro lAtion .1 - -' ' Y-~I N o .,~,~rr -effect) in nickel and ita a1113 -a with cop~~e7r'%) iikov P. 67-59) - The effetto of t re variation (00 - 4000ZI)-aj)d compogiti6i; (100 to 73.7% Ni) nn flin miffn4flirIn nf fha Vorr Pffect are experimental1v investirnted. The reaulta I I ___ I--- _aU A ^1 -4 1 n#nrn t,+i nrt rind a ~_prn"n P12 V_ Yonno-ValLit 4M A. V,;--WSQlOV USSR/Physics Metallurgy Card 1/1 Pub. 43 - Z1/97 Authors 'I Noskov, M. IA., and Skornyakov, G. P. Title .1 About certain characteristics of an arc discharge cloud Izv. AN SSSR. Ser. fiz. 18/2, page 257, Mar-Apr 1954 The effect of a falso electrode on the relative line intensity of a basic arc electrode material and upon the sensitivity and accuracy of a spectral analysis was investigated. The intensity distribution of individual lines was investigated along an arc cloud in the case of uniform Cu eloctrodes and in cases where one of the electrodes was made of C, Al, Mg, Zn, Fe, Me, Ni and W. It was found that in the case where the arc bi;~rns between Cu- electrodes there is a'distinctly expressed near-electrode int ensili cation of the Cu line and a less distinctly expressed intensification of other Unes. In the case where on(, of the above mentioned elements serves as'an anode, the emission of Cu (cathode) is concentrated mostly at the Cu electrode which also serves an a cathode. No Cu emission was seen near the anode. Institution Academy of Sciences USSR, iJral Branch, Physics of Metals Institute Submitted ............ AIPARSITZTA. L.A.; NOSMY. K.K.; CHMVAMY. T',I- ................. A new xistfud, aperipheral lzteraectlW , for optical coxxtaat determination la metals. Iris.inst. I netalloved. 1 soe3:566 155. (Kou 9:6) I.Urallskly getudaretvannyr ualversitat imeal AA.GorIkoge. (Ketals-Optical properties) (Optical measurements) !V I-,- -1 1 T- I Category ; USSR/Wacs - fty~.tica:. (Ptlea K-5 Abs Jour :Ref Zhur - Flzika, W. 1, 1957 1j,:. 23o4 Author :Domonskiy, E.I., N.,ek-,v H.M. inst :Urall State Title :Determinatloa of the Opt-*cal of Metals, Usizg the Autocollimation Metho4 Orig Pub Fiz. metall,7,v I metalloveler-1ye., 1955, 1, No 3, 567 Abstract The autocolli tion fftethl (O'Bryar~ H.M., J. Opt. Scc. America *, i9.36, 26, 122) is used in the ir~fraxel regioL.. Idght Is reflected from the specimer. twice in the forward path azA 1y. the retura path, and passes twice through the same Se polarizer, which is sirwly rztated by a.:~. electric motor. A recording infrared spectrometer automatically reccrIs the intensity, the mil.im';M 4eviatlon of which is used tc fill the prir-cipa I az!jwath 'k 0 ar-A the py.-Vicipal aQ:1a of in- cidence f with a probable error of -~- 35' fcr P, and * as 151 for ~O 0 in each indiv?dual measurement. The opt*fcal constla-a?s of Fmirroro obtaIndd by evaggration of 3b, Cu, Ag, Al, and ZrA In vacuum were measured for ,\ 2.4c; Card 1/1 UOSKOT.H.K. Relation between nickel aad in its 57-59 '55. (Nickel-copper magnstizability and magnstooptteal rotation in copper alloys. Trudy last. f1c. net. no-152 OCRL 8: 6) alloys-41agnetto properties) FD-3190 USSR/Physics Interferometry Card 1/1 Pub'. i53-20/21 Authors : Noskov,, 14. A. and Yasinetskiy, A. 1. Title : Measurement of striction phenomena with the aid of a three-alit interfero- meter Periodical: Zhur. tekh. fiz., 25, No 8 (August)v 1955, 1518-1519 Abstract : The authors discuss the measurement of the dimensions of solid bodies during magnetic and electric striction,, during thermal expansion, elastic deforma- tion and when subjected to a load. They outline existing methods of measure- ment aad describe a new three-slit interferometer which is specifically de- signed to permit accurate measurements in the most difficult range, na 1y from 30 Angstrom units to 1 micron. The physical and optical characteristics of the new interferameter are outlined in detail. Submitted : January 4, 1955 Category : USSR/Optics - Physical optics K-5 Abe JO~r :Ref Zhur - Fizika, 11-D 1, 1957, lk- 2303 Author :Afawslyevap L.A., lt.~skov, M.M., Cherepa"mov, V.I. last :Ural' State University, USSR Title :New "intersectiag-Circle" Meth~d f~%r the Determination of the Optical con- stants of Metals Orig Pub :Piz. metallov i meta.11ovedenlye, 1956,, 1, No 3,, 566 Abstract :Description of a variaat of a method of measuring the optical constants of metals using the reflectioa of pdarlted Infrared 11ght. A recording nono- chr,omator is used to determine the value of F (the ratio of the ability of the specimerr to reflect light para-II&I to the plane of Incidence to the reflecting ability for the perpendicularly-polaxized light), at least for two jangles of incidence. To'ftml the optical constants, tha authors propose an aRproxInate method based on a graphic solution of the system (x xi)2 +. y2 . R hi sults from the-Fresnel equations for metal. Here w ch re- (xV andf I is the aagle of inciderace (I - 1, 2). The abscissas of the intersection points of two circles vith radii Ri and R2 yield the Yalu 8 of the index of refraction n, and the ordinates yield-the absorption coeflicient k. The method was tested with B1, Sb, and their alloys in the range of A frod,2 to' 1~1* - Caxd 1/1 LUMV, A.S.; NDSKOIT, . Magentooptical Xerr effect and the structure of surface layer of mechanically polished metal. 1xv. vys. ucheb. zam.; fit, w.3'.76-81 158. (ERA 11t9) 1. Urallskir gasuniversitst im"d A.M. Gor'kago. (Yetallography) (ftnatooptles) ,SEMMTMV. Tu.A.; MOSKOV, 9.K. Photoelectric method for registering the contours of spectrun lines In a d.c. arc, IrIzeabor. no.4:1&9-190 158. (klEtk 12:5) 1. Ural'skiy gosudarstvennyy universitet Iment A.M.Gorlkogo. (41metrophotometry) 51- 4 -~-15/30 AUTHORS: -,-d 110skoy, LIX. TITLE: h1agneto-Opt'i,.'al Rctation in Alloys of Nickel with Pal'-'a d1lira. (MaU~Ptoopticheskoje vrashcheniye v spla-;akh nikzr~ly,,~. s palladiyeu.) Vol.T'V, r. PERIODICAL: Optika i Spektroskopi37a, 1958, pp -3?8-38-1 (USSR) ABSTRACT: The present paper reports measurements on the magneto- optical Kerr effect (rotation of the plane of polariz- atior, o-P li0it on i:-aflertion by ferzomagnet-'cs). This effect is dug to a diffferer.,-.e in the degreee of damping :Lnside. a uagnLettz,~d ferroma[~metic of electrowtgnetic wave2 polarizcd in two mutually perpgndicular directions. Nicke 1--palladium alloys were. studied. These two metals fom a ;ontiv~rjs Oeries -.-)f solid solutio-.=: in which the mean Oistance bet-ween atoms :. uniftrmly with in,reavF~ Pd . T,Le Llawpies were fn the form r,f d1ska vr-th from 0 tc 50 %%t- c m i -,. c,-,, c f Pd. Uniformity of the. .9anpleq was by X-rqZ~ anal f31.~i of their St lu ~~t U 1xi F-;~.rr.-,iLagnetic Chirte point;o Mg,3) of the 4-0 samples were found to ds;,-,-vease Morow ni,-,-a-lly with Card 1 A In,irease of Pd, --~r-teLt. Nl-~rr-r ~3-a~rfa-~es on i~amples 51- '; -./--5/30 Magneto-Optical Rotation iL Alloys 2f Ni,:~kel with Palladian. were prepared by mechani-,al pz)lish~n-. Llie apparatus used is shovr-. in Y;P,.l~ An I-eland spar -_rystal was used to separate the T9flectod light int-- twr. mutually perpendJc-alarly polarj.zed beams. .ha 1-1~1.ti_,_~ of the relative intensities of these two beams altered by the Kerr effect had ite original value re-established by a rotation of the plane of pclarization by means of a cell filled with distilled water and placed inside a solenoid. Current- in the solencid. was proportional. to the measured Kerr rotation. Re-estlablishment of the oriGinal va-lue of the intenalt .), ratio Wao observed by balancing a photoele,tri3 bridge with a quadrant electrometer as a null indicat-or. A me=ury lamp was used as the sour,_-e. The results cf photoelectric measureaents were. partly -1hecked visnall-y. All measurements were made at- r:cm temperature. The cpti--al eonstants of gamplee were deten2ined by B.Ya. Silant I e-.r. Measurements of the depender-ce Cf the Kerr effect = the alloy ocaposizion (FiS.2) were made in a magnetise fl .eld of 8000 oe-r-cted iT, whi.-:I-L, in all cases, Card 2/4 magneti- saturation. was xea,~hed az)d a value of -0 V ; jj U, Magneto-Optiral Rotation in A113ys of I'lickc , P 1 vith al adi. a. the angle of rotation a was obtained. At. 50-65,'~ Pd the Kerr effect -~,,arleg slowly with -~he alloy" composition, but on both sides of this mgiou the Kerr effect depends strongly on the aaount of Pd in the alloy. Vailae.3 of the saturation magnet izat ion I., ar-,4 given in Fig..3. These MD-ies wer-3 used tc, ;alt"ulate the Kerr constant R = cL /I The dashed cur~7e in Fig-3 gives the -raluee of I which is the sat-uration magneti- !301 zation, iedu,ed t-I the absolute zero of temperature. The third riix-ve in Fig.3 gives the dependence of the Curie point on the 'a C ontent. Fig.4 shows the dependenre of the cpt!.,:a1 constants of NJ---Pd alloys C.OMp'._, 84 ton. on their The strong depender.._-e of the magneto..7~pti-.a] K~-rr effect on the Pd -;oncent ration seems t,) th- ,',:mstar.--_-.y ;I,f the ac, omi-; magnetj.,~i moment and c~f Optic.91 --c.-istaut'a cf !II-.Pd alloy_q when the Pd The- _Dtf-~Iit is t he or-y GL,!r~n :Lu Ref.1 d,-,A.,3 xi~', Scl*ie this pr,--bably becallse (,f rissi)mption2 (~n %i?h--'-h tids theory Card 3/4 is baL3ed. "4,.-. th,---3 thno- i-s appli -able to L !a gn,.- t o - Op t i - a 1 Ro t a t 'A. o n in A-' .1. o y F o f I T i ~; ko, I lu i t, h P1 a pure raeta'-.zi and :~-ot allcy3. A tentative exDlanation of tho, dep~~ndence o-11' th,~ K,,,ri, conotant R Onthe Fd ccnt,:-n.t 4n Nj-Pd , i; in the alloya is zough dependence of R on the reiati,.ra '~: ion Y = whi~3h 'Lails with ir-3re-ise of Pd in the alloy2. In a separate experizent t'-qf,- authors folmd that annealing in all- atuc,3phere of hydrorem (both Ni and Pd c-= absorb large qjuan~tities of hydrogen) at 7000C affested 3trongI7 the Kerr ancle of rctation in Ni-Pd alloys with 20, 50 and 57 af,omic "'. of Pd (Fig-5). The effe-44- of hydrj,-,-,,n is re-,ersible; 0- ~ annealinr,, in -vacuum at 9C )C re-establ-i3hed -,he original values of the Karr ar-~~la of roltation. 2,-iere are. 5 fJL-mares and 7 reforence-s, of which 4 are '--'-Vviet, 1 German, -1 French and I AnerlIcan. ASW-CTATIOIT: Ural State Uni-,,-orFity, (Urallskiy Gos%tdu::,stvennyy uzilversit,,,t, G. Sverdlovsk.) SUBUIT'L,'D: June 3, 1957. Card 4/4 1. Nickel-p*Uadium allM--Refleatlys zffeat.4 2. Magnete-optic rotation SOV/137-59-3-6548 Translation from: Referativnyy zhurnal. Metallurgiya, 1959, Nr 3, p 229 'USSR) AUTHOR: Nookov, M. M. ---------- TITLE: Substitutes for Nonferrous Metals (Zameniteli tsvetnykh metallov) PERIODICAL: Zhrd. ~ transport, 1958, Nr 6, pp 87-88 ABSTRACT- The T9AM9- I.S alloy consisting of Zn with 8- 1014 A], 1-211o Cu: and 0.03-0.0616 Mg,'has a low melting point 0950C), exhibits good plastic characteristics, lends itself readily to machining, rolling, or press forming, and possesses antifrictional properties comparable to those of bronzes and babbitts. Performance tests on floating bush- ings manufactured of the T9AM9- 1-1) alloy are progressing satisfac- torily under actual operational conditions in locomotives of the series L, SO, FD, and IS. For purposes of increasing their fatigue strength, the threp-layer floating bushings have a steel casing. Card 1/1 ZIL. gooo 65707 sov/139-59-2-6/30 AUTHORSt Zverers LePas Moskovg K.M. and Shur, M.Ya. TITLEt The Effects of an Ele.ctric rield on the Spectral Response Curve for Photoconductivity in Cuprous Oxide PERIODICAL.- Izvestiya vyxshikh uchebnykh zavedenty, Fizika, 19391, Kr 2. pp 3~42 (USSR) ABSTRACT: Polycrystalline Cu2O is,used at 710X in this work. The spectral response is examined at high dispersion (6 /mm) with a grating spectrograph. and the absorption , spectra are also recorded. Only two field stran~ths (300 and 6000 V/cm) are used. Fig I shows spectral response curves (uncorrected 'for the energy distribution in the exciting spectrum); the wavelength scale is in atik; rig 2 shows a small region at higher resolution. Fig 3 shows the effect of the field for one specimen; curve I relates to 300 Y/cm and curve 11 to 6000 Ylcm. The first exciton line occurs in absorption at 612-53 mg but it can be detected only in thick specimens; it is not seen in Fig 4b. (Fig 4a is merely rig 5 on a larger scale.) Figure 4c is at the top right and relates to 6000 V/cm; Fig 4b is at the bottom right (300 V/cm)~ The 3econd and Card 1/2 third exciton lines lie at 579.2 and 575.6 mo respectively C 67 731 00 L;0V/12C"-7-3-40/44 AUTHORS: Zhuravloya, L. I and Noskov., Lt. M. TITLE: On the Method of Measuring Qptical Constants of 1,11etals (K metodike izmereniya opticheskikh konstant metallcv) PERIODICAL: Fizika metallov i metallovedeniyel 1,959, Vol 7. Nr 3, pp 475-476 (USSR) ABSTRACT: A high-precision variant of the polarimetric method of measurin optical constants of metals was described earlier Nef 1). Later this variant was improved and used to study invisible surface layers on metals. The latter application is described in the present paper. A monochromatic lidat beam passed through two mechanically coupled polaroids. The polaroids were replaced by selenium polarizers for measurements in the infrared region. Four mirrcrs made of the metal investigated mre placed between the polaroido in suoh a way that light was reflected from each of th~, mirrors a8 the same angle, whose value was between 45 and 80 . To determine the reduced polarization azimuth V and the phase difference A between the polarized components (* and A are necessary to calculate the optical constants), it is sufficient to Card 1/3 carry out measurements at one'value of this reflection IJ S)OY/ L 2E,-7-3-4044 I On the Method of Wasuring Optical Constants of ~ietals angle. When the coupled polaxe-ids are imiformly rotated about the optical axis the intanS4 ty at the entr.V slit of a light receiver (a photoelectric photometer) varies with the angle of rotation a accordine to y = A + 2B sin 2 m + 0 sin 1~a Between zero and 90 0 three extrema of 3- are observed (they are a, b and c)~ The relatic~nsh-ips Lwt-aeer, V and and the -ialues a, b and c. are g]-VS11 by tg (a/c) 1/8 cos 4 b c - b) Here a < c (i.e < 450) and presence of f ilms on the untal values V1 and A is obtained; V and 6, make it possible to Card 2/3 and the refractive index of the 00 A < 900. In the Eiurface another pair of these, together with calculate the thickness surface layer (Ref 2). 67732 SOV/126-7-3-40/44 On the Method of Measuring Optical Constants of Metals If the number of mirrors is less than four, the missing samples are rep-Laced by standard mirrors, e.g. of gold deposited on glass for which the value 10 and -4 0 are measured separately. Yhe method can be used to detect and m sure thicknesses of very thin film of the order of 10 r. In vacuo the method can be used to study adsorption of 6ases on metals. Since no phase compensators are employed the method can be used also to measure the optical constants of metals in the ultraviolet and infrared regions. There are 2 Soviet references. ASWCIATI(XI: Ural'skiy gosudarstvennyy universitet imeni AX.Gorlkogo (Ural State University imeni A.M.Gorlkiy) tw~ SUBLITTED: January 89 1959 Card 3/3 84619 7 700 AUTHORS:, 00 Y-3 /93 S/181/60/002/010/049/051 B019/BO56 TITLE: Zverevp L. P., Hoskov, M. M., and Sbur, M. Y&. On the Contour of the Exciton Absorption Bands in Cuprous Oxide PERIODICAL: Fivika tverdogo tela, 1960, Vol. 2, No. 10, pp. 2643- 2646 TEXT: In the introduction the results'obtained by investigations of the optical propertfei of crystals, especially of the absorption spectra, are discussed. Among others, E. 1. Rashba, L. S. Davyclov, and Ye.. F. Gross are mentioned. The authors of the present paper experimentally investigated the contour of the second band of the yellow series of sx-X citon absorpti.on bands and of thin'cuprous oxide single crystals at temperatures of from 4.2 - 1900K. The measurements were carried out on a diffraction spectograph of the type AfC-4 (AFS-4) with high dispersion and photoelectric i-edording. The three sanplee investigated had a thick- ness of 9, 30, and 110 p, respectively, and were produced from thin copper foils by oxidation In air at 1030 OC. The contours of the exciton Card I / 3 84619 On the Contour of the Exciton Lbsorption B/lal/60/002/010/049/051 Bands in'Cuprous Oxide B0191BO56 abaor~tion bands (n 2) in all three samples investigated showed good agreemeit. The maximum absorption coefficient was measured at 77-30K as amounting roughly to ISO OIL-1. The temperature dependence of the exciton absorption line width Lagraphically repreaented in f1g, 1p and from the Contour of the absorption liaeshowed in Fig. 2 the goo& agreement of the measured result& with those obtained from the formula (1) given by Toyozara. (Rif-3) for the absorption coefficient.may be recognized. Thus, the opinion expressed by Toyozawa that the broadening of the exciton absorption bands is caused by the excitom-phonon interactioal is con- firmed. Furthermore, it is also confirmed that the lifetime of the photoexcitona at temperatures below 550K is principally determine& by zero-Tibrations of the lattice. From the good agreement between the experimental data with the theory, the conclusion may be drawn that only the acoustic branch of the lattice-ribration spectrum plays an es- sential part in excito4-phonon interaction. The authors thank IT- T. YoUgnshteya for his assistance in the experiments and G. 0. Taluts for discussing the results obtained. There are 2 figures and 10 references: 5 Soviet, 4 US, and I German. Card 2/3 67899 S/226/6O/O1O/OO3/oo6/oo9/xx 603200 (also nov-) E201/E391 AUTHOR: Noskov, N.M. TITLE: A Reflecting Phase Compensator for optical Measurements on Metals PERIODICAL: Fizika metallov i metallovedeniyl 196o, vol. lo, No. 3, PP. 467 - 486 TEXTj The optical constants of a metal may be found by measuring'the rotation of the plane of polarization on reflection of plane-polarised light by a metal mirror. The authoir describes phase compensators suitable for such daterm*inations of the optical constants of metals at iqfrared frequencies. The compensators are mirrors of Cr, Nb, Ta and Pt, which have low conductivities and are stable in air, The optical constants of the compensator mirrors must be measured accurately in the required range of wavelengths. The optical constants of the compensators are used to find the values of the phase difference introduced on reflection and of the ratio of reflection coefficient for two components Card 1/2 67699 s/l26/6o/olo/oo3/oa6/oo9/xx E201/E391 A Reflecting Phase Compensator for optical Measurements on Metals of light polarized at rightangles to each other. The author concludes with a cakulation illustrating the case of plane- polarized light reflected once from a test sample and once from a compensator. ASSOCIATION: Ural*skiy gosudarstvennyy universitet imeni A.M. Gor,kogo (Ural State University imeni A.M. Gorlkiy) SUBMITTED: June 6, 1960 Card 2/2 30808 3/181/61/003/011/056/056 B109/BIO2 AUTHORS: Zverev, L. P., Noakov, M. M., and Shur, M. Ya. TITLE: Photomagnetoelectric effect and band structure in cuprous oxide PERIODICAL: Fizika tverdogo tela, v. 3, no. 11, 1961, 3556-3558 TEXT: Owing to the lack of an appropriate monochromatic light source the spectral behavior of the photomagnetoelectric effect (PME) could so far not be sufficiently studied. These difficulties could be overcome by using aA -3 (D-3) lamp with strong monochromators(paos band 15 to- 40R). The measurements were made with 150-300-micron thick cuprous oxide platelets at 77 0K in 25-koe fields between 4000 and 7000 X. In this case the dark conductivity was much lower than photoconductivity. Fig. I shows the measurement results which clearly indicate three spectral ranges: (1) NO PME occurs above 5600 R. This can be explained by the fact that electronst are produced in the polaron state. As compared to the free electrons ty their mobility is lower and their diffusion length is shorter. (2) Card 1 1 X'3 006 S/lBY61/003/011/056/056 Photomagnetoelectric effect and band ... B109 B 102 Between 5800 and 4900 R the PHE is due to the production of free carriers. Its monotonic rise is determined by the dispersion of the absorption coefficient and the quantum yield of the internal photoeffect. (3) Below 4900 9 the behavior of the PHE corresponds to the wavelength dependence of the PME near the fundamental absorption edge, which is typical of semiconductors. This phenomenon is connected with the abrupt increase of the diffusion length, in this case determined by the electron parameters, and suggests the existence of a new band-to-band transition in which electrons with other diffusion characteristics are produced. The conduction band splitting in Cu20 was suspected already by S. A. Moskalenko (FTT, 1, 1755, 1960). Also the data by I. Fastrnyak, P. A. Titov (FTTt It 8619 1961), 1. Pastrnyak (FTT, Lt 971f 1959), A. L. Rvaohev (ZhTFf 289 45o 1958),and N. B. Gornyy (ZhETF, at 261, 195P) spoak in favor of this assumption. The authors thank I. J(a Taidillkovskiy for discussions. There are 1 figure and 9 references: 7 Soviet and 2 non- Soviet. The two references to English-language publications read a5 follows: 1. Kikoni, ;4. Noskov. Nature, 131, 725, 1933i1r. Gartner. Phys. Rev., jO 823, 1957 Card ''J1 17,003/011/95~/056 Photomagnetoeleatrio effect and band bl,,)~gBI402 A850CIATION: Urallskiy gosudarstvennyy universitet'im. A. M. Gorlkoga Sverdlovsk (Ural L;tate University Imeni A. M. Gorlkiy, Sverdlovsk) SUBMITTO: August 259 1961 Fig. 1. Spectral dependence of the photoconductivity and of the 'short-circuit current of the PRE (CV,e) for Cu2O. Legend: (1) 1 short-circuit current; 6'., photoconductivity in ac P arbitraty units; Cis the f irst part of curve a on an edlarged ac4le., Zaid SoM. DoUair BelCmIc-e AlaUjj !:z-A. Vol 14. '.'o 6. 1151 Cam- :rr"!&,,*i w,.,Lh a rc..t cf xzAys.- z. iuke*os afd z. BAST M-1 trclia-l With ~-Lry)z rp of AI (1.1 24. -Wyr.4% ('Alto t "Atts" k-l-h-- WMA 2". of Cl. Aldll;.-L-',`-~ 'XI"'... cr L.M.iil cn ~,tt. 1r.! -1--U . BLAGONRAVOVv S.I.; BMK, 3.14.4~BYAKOV, P.T.; VIKTOROV, V.S.; VAGANOV, V.I.; GUSEV, S.A.; GLEEOVE V,V.; GL?,Ilzv, A,M.; DAIIIWV# G.D-; ZAV9YAWV,, V.G.; IOMj Ye.F.; IM, MV, G.H.; KOMMvp S.A.; r,ULIGM,,, 'A.S.; USATKIN, A.P.; DZIETSOV, N.I.; LEBEDE:V,, A.I.; W4FERTq Ye.N.; 101MEEVICH, Ya.l.; KAYZEWj, M.A. ; MITYAKCIV, V.S.; UOSKOV.-M.; RYABCHIKOV, 1I.Ya.; 4TSKUI, R.I.; TVOROGOV, 14.K.; UGOWNIKOVP V.Ya.; KHAROKOV, G.I.; CUMV, S.L. Lev Hillevich Hatvcev; obituary. Torf. pr=. 38 no.4:38 161. (MIRA 14:9) (Hatveov,, Lav Millevicht 1914-1961) "192 71 S/126/62/013/005/030/031 E073/E535 AUTHORS: Kirillova, M.2"I. . ~~~~nd Charikov, B.A. TITLE: Influence of heat treatment on the optical properties of metallic layers PLIZIODICAL; Fizika metall.ov i metallovedeniye, v.131 no.5, 1962, 798-799 TLXT: The effect of heat treatment was investigated for 0.23-0-35 11 thick filivs of c?ld I COP9 er, silver and cadinium deposited at a vacuum of 10- to 10- mm Hg onto a glass base at room temperature. The annealing was in vacuum at 110-120*C and in some casea up to 200*C. Before and after aunealing. the following were determined: donsity (by measuring the thickness and weight), resistivity atid the optical constants n and k, which were measured according to the method of J. A. Beattie (Phil. Mag., 1955, 46, 235) at the wavelengths 0.423, 0.542 and 0.550 U in several points between 2 and 9 IL. Measurements- have shown that., 1) Freshly deposited non-transparent layers of Ag, Au and Cu an -lass have a density 5 to 101a' r6yer than that of the cast metal. Card 1/4 Influence of heat treatment ... s/126/62/013/005/030/031 E073/E535 The density increases after vacuum annealing for 10 to 15 hours at 110-1200C to the values given in the table. The metal with the lowest inelting point, cadmium, did not show any change. in density after annealing. '_'L7 Density. g-cm Resistivity 10, CGSIE Initial Annealed Massive Initia 1 Anneal ed Massive state state Gold 18.3 19.1- 19.3 2.2 3.5 4.o6 CopT)er 8.65 8.90 8.95 2.1 5.0 5.35 Silver 9.50. lo../* 10.5 2.65 5.1 5.6o 2) The refractive index -n 'of gold and copper shows hardly any chan.-e,after annealing,for short-wave radiation (% = 0.423 -4) but drops by a factor of 1.5,to 2 times in the long-wave part of the visible spectrum and in the infrared range. The attenuation index k increases approximately-by 2014 in the same range in which n decreases. The optical constants of cadmium Card 2/4 7'-) ,14~. Influence of heat treatment ... 5/126/62/013/005/030/031 E073/E535 change only insignificantly after annealing. 3) The clian46es in the optical constants correspond to a decrease by about 1.5 to 2 times in the absorption capacity A = I '- R. The changes in the optic . constants with annealing are virtually tori'Anated after 2 to 3 J Aours but,for obtaining stable values of density and resistivity,the annealing had to be continued for 10 to 15 hours. Then, it can be assumed that the structure of the metal in the optical layer in the neighbourhood of the surface is satisfactorily normalised. T'.'Ie nomialising effect of the heat treatment is particularly noticeable on metals with a relatively high melting point, whilst metals with low ;-aeltin.- points .,rill deposit in vacuum at a sufficient initial density and the effect of heat treatment is negligible. Annealing has also little effect on the optical constantsof gold and copper in the short-wave range of the visible spectrum in whicii lattice defects are not of great importance due to the quantum nature of the excitation of the electrons by light. Calculation of the classical depth of penetration 6=k2TY k from the values of k yields the following values: 6 = 0.0335 11 for X = 0.55 It and 6 = 0-0283 1A for X = 7 IL (0-35 1L thick annealed Card 3/4 Influence of heat treatment ... s/126/62/013/003/030/031 2073/E535 6old). Since in the range -2-9 ji , Ic is almost proportional to the wavelongth, the depth of penetration will be prnctically indenendent of the wavelength. In the near-infrared range the optical properties of gold can be approximately expressed by the formulae of Drudo-Ziner and therefore, for an approximate estimation of the collision frequency, the relation , y = 2nk w/1 - n2 + k2 can be applied, from which we obtain 0.8-10 14. Prior to annealing, y is about twice as high and 6 is about-20'/j higher than in the normalised annealed state. There is 1 table. ASSOCIATION: Institut fiziki metallov AN SSSR (Institute of Physics of Metals AS USSR) SUBMITTED: January 17, 1962 cac-1 4/4 39j%- 6/62/013/oo6/002/018 67. 5 3 '7 0 9202/E492 AUTHORS: Bolotin, G.A,, Voloshinskiy, A.N.j Kirilloya, M.M., Noskov, MtM._,_Sokolov, A.V., Charikov, B.A. TITLE: Optical properties of titanium and vanadium in the infrared spectral region PERIODICAL: Fizika'metallov I metallovodeniye, v,13, no.6, 1962, 823-831 TEXT: Experimental data of the magnitude and frequency dependence of the real and imaginary componentap of the complex permittivity C' for titanium, vansdLum and gold were studied in the region of Z to 10,1&, and room tomp*ra-ture. The changes in the state or polarization occurring during reflections from the surfaces of the metals were measured. Mirrors were prepared from 99.99% pure vanadium and titanium Iodide by mechanical polishing In an acidic medium. Measurements of stati*c electro- cond4ativity at room and liquid nitrogen temperatures confirmed the high purity of the samples used. Gold mirror was prepared byl vacuum deposition and was used Car comparisons Parallel beam of polarized Infrared Light was reflected in tgrn from four metallic Card 1/4 s/i.26/62/013/oo6/002/0-18 Optical properties of ... E202/E492 t mirror aurfacei and the ratio of the parallel and perpendicular Intensities and phase differences of the polarized component were evaluated. Emerging from the analyxer, the beam was focused on the alit of the infrared spectrometer type WKC -12 (IKS-12). The ellipticity components were evaluated by the method of parallel polarizers. Almost complete data of n, k. and the real e1 and imaginary C2 , component dependency on frequency was tabulated at 0.51& Intervals for Ti, Va and Au. Plats of* reflectivity and dispersive power versus wavelength were also included. The above experiaen~iiL data were used in a detailed theoretical analysis of relations existing between the dielectric permittivity and wavelength$ using the elaborate method of approximating polynaKialas Polynowlats satisfying the experimental data gave the miowing vatues for tho respective coafficientol Titaniums cl w6a4ho(b + WK00 ma + 4.60 o.at9406 92 43,941-1 + 11.16A + 0,2oh3i (6) Card 2/4