I FLAT SECTION 1.1 Multilayered Clad Metal Bands

Total Page:16

File Type:pdf, Size:1020Kb

I FLAT SECTION 1.1 Multilayered Clad Metal Bands JSC “Voskhod” KRLZ JSC “Voskhod” KRLZ DEAR CONSUMERS! I FLAT SECTION Thank you for your interest in the products of our company JSC “Voskhod” – 1.1 Multilayered clad metal bands Kaluga Electron Tube Plant. Multilayered clad metal band consists of two or more layers of dissimilar JSC “Voskhod” KRLZ was founded in 1960. It is one of the largest manufac- metals bonded together by cold rolling. Bimetallic band combines qualities of turers of special purpose electronic components in Russia. One of the priority the base metal and that of the cladding which makes it possible to create qualities lines of our development has become a production of materials for electronics unattainable by monometallic material as well as to make this band cheaper. manufacturing industry: an assortment of rolled metal bands from nonferrous, Multilayered clad metal bands are made from different metals and alloys up to ferrous and high alloys; multilayered clad metal bands, high alloyed bimetallic 200 mm wide. The bands are manufactured by cold clad rolling using rolling- micron scale wire; pseudo alloys; epitaxial structures GaAlAs; amorphous tapes. mill machinery. S t r i p Band basic dimensions: JSC “Voskhod” KRLZ employs flexible system of deliveries and payment C l a d d i n g В – width, Н – thickness, terms (prepayment, partial prepayment, deferring of payments) as well as indi- h0 , hз – cladding thickness, B a s e vidual approach to consumers. hп – cladding strip thickness, a, b – width from the band edge to C l a d d i n g We invite you to negotiate contracts for the supply of our products in 2011 the cladding strip, and we firmly believe that JSC “Voskhod” KRLZ will become your permanent с – cladding strip width and reliable partner. With best wishes of success and prosperity! Nomenclature of clad bands: № ID Code as per Cladding State Material Name Designation Layer Name Standard RF 1 ФМФз 42Н(FeNi)-copper-42Н(FeNi) gold with golden strip 2 КМКз 29НК(kovar)-copper-29НК(kovar) gold with golden strip 3 Фз 42Н(FeNi) with golden strip gold precision machinery 4 МСр copper with silver strip silver industry 5 БрСр bronze with silver strip silver 6 ЛСр brass with silver strip silver electronic 7 ФСр 42Н(FeNi) with silver strip silver engineering 8 СрФСр silver-42Н(FeNi)-silver silver 2 1 JSC “Voskhod” KRLZ JSC “Voskhod” KRLZ 9 НФНСр nickel-42Н(FeNi)-nickel silver 35 ФМФ 42Н(FeNi)-copper-42Н(FeNi) 42Н(FeNi) with silver strip 36 КМК 29НК(kovar)-copper-29НК(kovar) 29НК(kovar) 10 НзСр German silver with silver strip silver integrated 11 Бра bronze with aluminum strip aluminum microcircuits 37 ФЖФ 42Н(FeNi)-iron-42Н(FeNi) 42Н(FeNi) 12 БрХа chromium copper with aluminum strip aluminum 38 НхА Nichrome-aluminum aluminum electrovacuum appliances 13 Жа iron with aluminum strip aluminum 39 АМ, АПМ Copper-aluminum aluminum electronic 14 Ла brass with aluminum strip aluminum engineering 15 Фа 42Н(FeNi) with aluminum strip aluminum 16 На nickel with aluminum strip aluminum 1.2 Rolled stock from ferrous, nonferrous metals 17 НзА German silver with aluminum strip aluminum and high alloys 18 МЖМа copper-iron-copper aluminum Metal bands products with special properties are notable for the high surface with aluminum strip smoothness (Ra<0,1) and for the uniformity of mechanical properties. 19 НФНа nickel-42Н(FeNi)-nickel aluminum with aluminum strip Basic nomenclature of rolled stock from ferrous, nonferrous metals and high alloys: 20 ФМФа 42Н(FeNi)-copper-42Н(FeNi) with aluminum aluminum strip ID Codes for bands (as per State № Material name Designation 21 АЖА aluminum-iron-aluminum aluminum automotive industry Standard RF) 1 МВ, М0б, М1, М1р, М2, М3 copper electronic engineering 22 АН aluminum-nickel aluminum electrovacuum appliances 2 Л63, Л68, Л90 brass machine building, 3 БрБ2, БрБНт1,9, БрКМц 3-1, instrument engineering, 23 БрЖБр bronze-iron-bronze bronze electronic bronze engineering БрОФ, БрОЦ 4-3, БрХ, К65, БрХ0,2 semifinished materials 24 КМ 29НК(kovar)-copper copper glass-to-metal bodies 4 НП1, НП2, НП2Э nickel electronic engineering 25 ЛЖЛ brass-iron-brass brass 5 29НК, 29НК-ВИ kovar precision machinery 6 36Н, 36НХТЮ invar radio electronics, integrated microcircuits, 26 МЖМ copper-iron-copper copper industry, electronic 7 42Н, 42НА-ВИ FeNi engineering geodesy 8 50Н, 79НМ permalloy 27 МЖН copper-iron-nickel copper,nickel chemical current 9 МНЦ15-20 German silver electronic engineering, sources МН19 Melchior consumer goods, jewelry, medi- 28 МЖА copper-iron-aluminum alum.,copper manufacture of cal instruments and tools structural elements 10 08КП, 08ПС, 08Ю low-carbon steel forming, 29 БрН bronze-nickel nickel chemical current packing sources 30 МФ copper-42Н(FeNi) copper 31 МФМ copper-42Н(FeNi)-copper copper 32 НЛН nickel-brass-nickel brass 33 НФН nickel-42Н(FeNi)-nickel nickel electronic 34 НЖН nickel-iron-nickel nickel engineering 3 4 JSC “Voskhod” KRLZ JSC “Voskhod” KRLZ KEY SPECIFICATIONS FOR THE BANDS High alloyed For welding № Unit Parameters Parameter values wire from powerful meas. microalloyed semiconduc- 1 Mode of manufacture - cold rolling aluminum tor devices -8 2 Thickness mm from 0,06 to 2,0 alloy 200-400 44-66 5-25 3х10 and integrated 3 Width mm from 10 to 250 (АОЦПОМ) circuits 4 Thickness of cladding layer μm from 2 to 50* vacuum 5 Thickness of cladding strip μm from 2 to 50* melted 6 Width of cladding strip mm 1,8;3,0;4;4,5;5,0;6,0;7,0;9,0;12,0;16 copper For the output 7 Location of cladding strip - central, lateral Bimetallic core; of powerful 8 Band surface - smooth, Ra≤0,63 μm wire, cladding transistors -7 9 Accuracy of manufacturing the band - normal, enhanced copper-kovar 1000 from 500 1,0х10 10 State - solid, semi-solid, soft alloy 11 Edge type - sheared, mill edge 29НК (Fe-Ni- 12 Inner diameter of coils mm from 80 to 400 Co) 13 Coil weight kg from 10 to 200 Core material II ROUNDS - Bimetallic Fe- For the con- wire, 50%Ni tact spring of Tensile Resistivity, from 300 alloy, 600 20 magnetically Material, Diameter, As re- strength, Elon- Ω m, not FeNi-copper Cladding operated grade μm ceived MPa gation, % more Designation (50Н-МВ) material sealed switch condi- alloy - vacuum tion melted Aluminum copper alloy 18 solid 400-600 0,5-2,0 2,8х10-8 wire A5N 27 solid 300-400 1-6 3,5х10-8 For micro- Micron scale For welding soft 200-310 2-6 welding of aluminum 100-5000 solid - - - leads in inte- Micron scale wire soft grated circuits 30 solid 300-400 1-6 3,5х10-8 semiconduc- wire made and transis- soft 200-300 2-6 tor devices from Al-Si and integrated tors alloy -8 40 solid 300-400 2-6 3,5х10 circuits (АК0,9П) soft 200-300 4-6 50 solid 300-400 2-6 3,5х10-8 soft 200-300 4-6 60;80;100; solid 220-300 2-12 3,5х10-8 160;200;25; soft 200-300 2-12 3,5х10-8 300;400;500 5 JSC “Voskhod” KRLZ JSC “Voskhod” KRLZ Al-Ti - - 1,5 - Nomenclature of rounds from nonferrous metals and high alloys: Al-Ni - - - 1 6 ID Codes for Name of Type of rolled stock Al-Si-Cu 1,5 4 - - 7 № rounds (as per Designation material State Standard RF) Al-Si-Ti 1,5 - 1,5 - 1 wire ø 0,1-6,0 mm, electronic МВ, М0б, ММ copper bar ø 5,0-14,0 mm engineering 2 wire ø 0,1-6,0 mm, machine building, Л63, Л68, ЛС59 brass IV PSEUDO ALLOY STRIPS bar ø 5,0-14,0 mm instrument engineering 3 instrument engineering, БрКМц 3-1, БрОФ, wire ø 0,1-6,0 mm, bronze machine building, Pseudo alloys make it possible to manufacture items with unique consumer БрХ bar ø 5,0-14,0 mm semifinished materials properties, having a number of valuable characteristics: damping capacity, wear- 4 wire ø 0,03-6,0 mm, electronic НП1, НП2, НП2Э nickel ing capacity, self-lubricating capacity in friction (low friction coefficient), heat bar ø 5,0-14,0 mm engineering resistance, etc. These are manufactured by powder metallurgy methods from 5 wire ø 0,1-6,0 mm, 29НК, 29НК-ВИ kovar bar ø 5,0-14,0 mm pseudo alloys on the basis of copper and alloy additions of tungsten, molyb- denum and other metals for different items of electronic engineering, for constit- 6 wire ø 0,1-6,0 mm, 36Н, 36НХТЮ invar bar ø 5,0-14,0 mm radio electronics, uent body parts of semiconductor devices inclusive. 7 wire ø 0,1-6,0 mm, integrated microcircuits, 42Н, 42НА-ВИ FeNi bar ø 5,0-14,0 mm geodesy ID Codes (as per State Designation Name of material 8 wire ø 0,1-6,0 mm, Standard RF) 50Н, 79НМ permalloy bar ø 5,0-14,0 mm alloy of molybdenum with copper for manufacture of items with МД30, МД40, МД50 increased thermal conductance; ВД30 alloy of tungsten with copper for jointing with alumina and be- ryllium ceramics III MAGNETRON SPUTTER DEPOSITION TARGETS Technical features of the strips: Sputtering target materials for magnetron deposition — is an in-process me- thickness from 0,4 to 4 mm tallic material, consisting of one or several components in the form of squared or width not more than 100 mm round plates. They are utilized in powerful microwave appliances and field- linear thermal expansion coefficient not above 7,5x10-6 1/degree effect transistors. λ not less than 0,5λCu Composition, % V LONG-TERM OUTLOOK FOR ROLLED BANDS Material Al - base material Si Cu Ti Ni In creating new materials with preprogrammed properties it is necessary to Al - - - - use extensively the achievements of modern science in its different fields: theo- Al-Si 0,5; 1; 1,5 - - - retical physics, thermodynamics of chemical reactions, composite materials, ad- Al-Cu - 4 - - vanced research methods, applied informatics, computer-aided design, modeling, etc.
Recommended publications
  • Metal Alloys List Pdf
    Metal alloys list pdf Continue en: Editar Compartir This is an incomplete list of these alloys, grouped in alphabetical order by the base metal. In these headlines they are not in a certain order. Some of the main elements of the alloy are additionally listed after the name of the alloy. Alloys of aluminum editar editar c'digo Main galleries: Aluminum and aluminum alloy. Alloys bismuth-reditar Editar sedigo Main Gallery: Bismuth. Wooden Metal (lead, tin, cadmium) Pink metal (lead, tin) Cobalt alloys (editar c'digo) Main gallery: Cobalt. Megallium Stellite (chrome, tungsten, carbon) Vitallium alloys of copper editar editar c'digo Main galleries: Copper and copper alloys. Beryllium Copper (beryllium) Billon (silver) Brass (zinc) Bronze (tin, aluminum or any other element) Constantan (nickel) Copper-tungsten (wolfram) Corinthian bronze (gold, silver) Kunife (nickel, iron) Cupronickel (nickel) Silver) Heusler Alloy (manganese, tin) Manganin (manganese, nickel) Molybdochalkos (lead) Nickel silver (nickel) Northern gold (aluminium, zinc, tin) Hakudo (gold) Tumbaga (gold) Alloys gallium alloys of gold (editar c'digo) Main Gallery Gold alloys are expressed in carats. 24-carat gold is a thin gold that is 0.999 or better than purity. If the alloy is mixed, which is 14 parts gold and 10 parts alloy, that is 14 carats of gold, 18 parts gold 18 carats, etc. This is often expressed as a result of the ratio, that is: 14/24 equals .585 (rounded), and 18/24 is .750. Hundreds of possible alloys and blends are possible, but in general the addition of silver will color in green, and the addition of copper will color it in red.
    [Show full text]
  • Calculation of Surface Tension and Its Temperature Dependence for Liquid Cu-20Ni-20Mn Alloy
    Materials science Calculation of surface tension and its temperature dependence for liquid Cu-20Ni-20Mn alloy Pavlo Prysyazhnyuk Ph. D. In Engineering Ivano-Frankivsk National Technical University of Oil and Gas Ivano-Frankivsk, Ukraine E-mail: [email protected] Dmytro Lutsak E-mail: [email protected] Aristid Vasylyk Ph. D. In Engineering Ivano-Frankivsk National Technical University of Oil and Gas Ivano-Frankivsk, Ukraine Thaer Shihab Ivano-Frankivsk National Technical University of Oil and Gas Ivano-Frankivsk, Ukraine Myroslav Burda Ivano-Frankivsk National Technical University of Oil and Gas Ivano-Frankivsk, Ukraine 346 Metallurgical and Mining Industry No.12 — 2015 Materials science Abstract Temperature dependence of surface tension of manganese cupronickel Cu-20Ni-20Mn is defined for triplex system Cu-Ni-Mn with the use of Butler model and thermodynamic functions of liquid phase calculated according to CALPHAD methodology. For calculation of temperature dependence of surface tension of specified alloy there suggested the equation γ ()TTCu60 Ni 20 Mn 20 =−−1384,5 0,1735( 1323) , which describes the results of experimental research to high precision. Key words: SURFACE TENSION, BUTLER EQUATION, MANGANESE CUPRONICKEL, COMPUTING THERMODYNAMICS, CERMETS 1. Introduction in a gas bubble only in the range of temperatures Dispersive hardening alloys of the system of 1260 - 1280°C are presented. As the temperature Cu-Ni-Mn are widely used as matrix alloys [1] in the range of receiving the products and coatings with hardwearing composite materials and coatings on the use of an alloy of Cu-20Ni-20Mn is much wider [3], base of high-melting compounds or hard alloys, which there is a need of an assessment of its surface tension are obtained mostly in the presence of liquid phase within the temperatures of 1050 - 1400°C.
    [Show full text]
  • Second Israel Materials Engineering Conference
    INIS-mf—10066 SECOND ISRAEL MATERIALS ENGINEERING CONFERENCE February 21-23,1984 BEN-GURION UNIVERSITY OF THE NEGEV BEER-SHEVA, ISRAEL CONFERENCE PROCEEDINGS Edited by A.GRILL & S.I.ROKKLIN SECOND ISRAEL MATERIALS ENGINEERING CONFERENCE February 21-23.1984 BEN-GURION UNIVERSITY OF THE NEGEV BEER SHEVA, ISRAEL CONFERENCE PROCEEDINGS Edited by A.GRILL & S.I.ROKH LIN ORGANIZING COMMITTEE Chairman - Prof. S. Rokhlin, Ben-Gurion University of the Negev Dr. U. Arnon, Israel Aircraft Industry Prof. D. Brandon, Technion -Israel Institute of Technology and Israel Institute of Metals Dr. B. Cina, Israel Metallurgical Society and Israel Aircraft Industry Prof. M. Dariel, Ben-Gurion University of the Negev and Nuclear Research Centre - Negev Dr. S. Kenig, Rafael - Haifa Dr. G. Metzger, National Council for Research Development Dr. H. Paruz, Ministry of Defense Prof. J. Pel leg, Ben-Gurion University of the Negev Dr. M. Polak, Ben-Gurion University of the Negev Prof. M. Ron, Technion - Israel Institute of Technology Dr. A. Stern, Nuclear Research Centre - Negev Prof. B.Z. Weiss, Technion - Israel Institute of Techology EDITORIAL COMMITTEE Chairman - Prof. A. Grill, Ben-Gurion University of the Negev Prof. L. Kornblit, Ben-Gurion University of the Negev Prof. I. Minkoff, Technion - Israel Institute of Technology Mr. B. Rnbin, Israel Aircraft Industry Prof. M. Rosen, Ben-Gurion University of the Negev Prof. M. Schieber, The Hebrew University of Jerusalem Dr. J. Zahavi, Israel Institute of Metals Mr. Z. Wagner, Israel Military Industries THE CONFERENCE WAS SPONSORED BY: jpartment of Materials Engineering, Ben-Gurion University of the Negev Department of Materials Engineering, Technion - Israel Institute of Technology Faculty of Engineering, Tel Aviv University School of Applied Science and Technology, The Hebrew University of Jerusalem Ministry of Defense National Council for Research and Development Israel Atomic Energy Commission, Nuclear Research Centre - Negev Israel Military Industries RAFAEL - Israel Armament Development Authority INTEL Electronics Ltd.
    [Show full text]
  • MP·Lit INDEX to MATERIALS PERFORMANCE MP•Lit ™ TITLE INDEX (1962-2002, Vol
    MP·Lit INDEX TO MATERIALS PERFORMANCE MP•Lit ™ TITLE INDEX (1962-2002, Vol. 1-41) A word about these listings: The author and title indexes contained in MP·Lit™ were taken from the ar- chives of Materials Performance. Many older indexes have been scanned, and accuracy may vary with the quality of the scan and the original document. The style of listings may vary due to variances in the original index listings. When searching by author name, consider using only the author’s last name or search by all variants (i.e., the same author might be listed as J. Smith on one paper but J.E. Smith or J.E. Smith, Jr., on another). 1962 (Vol. 1) Tainter Gate Corrosion Prevented for $200 per Year, Glyn Beesley......................................................................... 102 January (No. 1) Coal Tar Epoxy Coating on Skyscraper Pilings ................... 63 Screening Test for Pipeline Tape Coatings, Staff Feature ..... 10 Galvanized Wrought Iron Used for Tunnel Piping ............... 69 Protective Finishes for Automobiles, K.L. Raymond ............ 16 Akron to Add Inhibitors to Deicing Salts ............................ 71 Automatically Controlled Chemical Feeding Systems, Epoxy Coatings Protect Diving Bells................................... 71 G.W. Schweitzer ............................................................. 23 March (No. 3) Commercial Hot-Dip Galvanizing of Fabricated Items, Ray Oxygen Corrosion in the Petroleum Industry, J.D. Sudbury, Vickers ........................................................................... 30 Olen
    [Show full text]
  • The Long Term Stabilization of Uranium Mill Tailings
    IAEA-TECDOC-1403 The long term stabilization of uranium mill tailings Final report of a co-ordinated research project 2000–2004 August 2004 IAEA-TECDOC-1403 The long term stabilization of uranium mill tailings Final report of a co-ordinated research project 2000–2004 August 2004 The originating Section of this publication in the IAEA was: Waste Technology Section International Atomic Energy Agency Wagramer Strasse 5 P.O. Box 100 A-1400 Vienna, Austria THE LONG TERM STABILIZATION OF URANIUM MILL TAILINGS IAEA, VIENNA, 2004 IAEA-TECDOC-1403. ISBN 92–0–108904–X ISSN 1011–4289 © IAEA, 2004 Printed by the IAEA in Austria August 2004 FOREWORD The IAEA attaches great importance to the dissemination of information that can assist Member States with the development, implementation, maintenance and continuous improvement of systems, programmes and activities that support the nuclear fuel cycle and nuclear applications. This includes managing the legacy of accidents and past practices, including that from uranium mining and milling. A comprehensive IAEA programme of work covers multiple aspects of environmental remediation: technical and non-technical factors, including costs, that influence environmental remediation strategies and pertinent decision making; site characterization techniques and strategies; assessment of remediation technologies; techniques and strategies for post-remediation compliance monitoring; special issues such as the remediation of sites with dispersed radioactive contaminations or mixed contamination by hazardous and radioactive substance and of uranium mining and milling sites. In the past, often little or no care was taken to isolate uranium mill tailings from the environment. In order to address the specific problems surrounding the disposal of uranium mill tailings, the IAEA developed a co-ordinated research project (CRP) in this area.
    [Show full text]