Browse Topic: Tin

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Plating, TinAMS2408L (Current)09/18/2024
This specification covers the requirements for electrodeposition of tin on metals and the properties of the deposit
AMS B Finishes Processes and Fluids Committee
Material Specification
SHIELD TERMINATION, SOLDER STYLE, INSULATED, HEAT-SHRINKABLE, ENVIRONMENT RESISTANT FOR CABLES HAVING TIN OR SILVER PLATED SHIELDS (CLASS IAS83519/1B (Current)08/01/2023
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
TERMINALS, LUG AND SPLICES, CONDUCTOR, CRIMP STYLE, COPPER TERMINAL, LUG, INSULATED, TIN WHISKER RESISTANT, RING TONGUE, BELL-MOUTHED, TYPE II, CLASS 1 (FOR 150 °C TOTAL CONDUCTOR TEMPERATUREAS7928/13D (Current)07/06/2023
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
TERMINALS, LUG AND SPLICES, CONDUCTOR, CRIMP STYLE COPPER TERMINAL, LUG, CRIMP STYLE, COPPER, INSULATED, RING TONGUE, FOR THIN WALL WIRE, TIN WHISKER RESISTANT, TYPE II CLASS 1 FOR 105 °C TOTAL CONDUCTOR TEMPERATUREAS7928/8C (Current)07/06/2023
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
TERMINAL, LUG, CRIMP STYLE, COPPER, INSULATED, RING TONGUE, BELL-MOUTHED, TIN WHISKER RESISTANT, TYPE II, CLASS 1 (FOR 105 °C TOTAL CONDUCTOR TEMPERATUREAS7928/12F (Current)07/06/2023
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
SHIELD TERMINATION, SOLDER STYLE, INSULATED, HEAT-SHRINKABLE, ENVIRONMENT RESISTANT WITH PRE INSTALLED LEADS FOR CABLES HAVING TIN OR SILVER PLATED SHIELDS (CLASS IAS83519/7 (Current)07/13/2022
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
TERMINALS, LUG AND SPLICES, CONDUCTOR, CRIMP STYLE, COPPER TERMINAL, LUG, CRIMP STYLE, COPPER, INSULATED, RING TONGUE, FOR THIN WALL WIRE, TIN WHISKER RESISTANT, TYPE II CLASS 1 FOR 105 °C TOTAL CONDUCTOR TEMPERATUREAS7928/8B (Historical)05/28/2021
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
TERMINAL, LUG, CRIMP STYLE, COPPER, INSULATED, RING TONGUE, BELL-MOUTHED, TIN WHISKER RESISTANT, TYPE II, CLASS 1, (FOR 105 °C TOTAL CONDUCTOR TEMPERATUREAS7928/12E (Historical)04/21/2020
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
TERMINALS, LUG AND SPLICES, CONDUCTOR, CRIMP STYLE, COPPER TERMINAL, LUG, INSULATED, TIN WHISKER RESISTANT, RING TONGUE, BELL-MOUTHED, TYPE II, CLASS 1 (FOR 150 °C TOTAL CONDUCTOR TEMPERATUREAS7928/13C (Historical)03/24/2020
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
TERMINAL, LUG, CRIMP STYLE, COPPER, UNINSULATED, RING TONGUE, TIN WHISKER RESISTANT, TYPE I, CLASS I, FOR 150 °C TOTAL CONDUCTOR TEMPERATUREAS7928/11D (Historical)08/21/2019
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
Interference between Tin Sulfides, Graphite and Novolak Oxidation05-11-01-000903/07/2017
Tin sulfides (SnS and SnS2), represent a safer and greener alternative to other metal sulfides such as copper sulfides, and MoS2 etc. Their behavior is usually associated to that of solid lubricants such as graphite. A mixture of tin sulfides, with the 65 wt% of SnS2, has been characterized by scanning electron microscopy and by thermal gravimetric analysis (TGA). In order to investigate the effect of tin sulfides upon two crucial friction material ingredients, two mixtures were prepared: the former was made by mixing tin sulfides with a natural flake graphite and the latter was made mixing tin sulfides with a straight novolak. They were analyzed by TGA and differential thermal analysis (DTA) in both nitrogen and air. Some interferences were detected between tin sulfides and graphite in air. However, the oxidation of tin sulfides was concomitant with that of the novolak so that the resin onset decomposition-oxidation was considerably shifted to higher temperatures allowing the resin to
Dante, Roberto, Sliepcevich, Andrea, Andreoni, Marco, Cotilli, Mario
Journal Article
SHIELD TERMINATION, SOLDER STYLE, INSULATED, HEAT-SHRINKABLE, ENVIRONMENT RESISTANT FOR CABLES HAVING TIN OR SILVER PLATED SHIELDS (CLASS IAS83519/1A (Historical)05/01/2016
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
TERMINAL, LUG, CRIMP STYLE, COPPER, UNINSULATED, RING TONGUE, TIN WHISKER RESISTANT, TYPE I, CLASS I, FOR 175 °C TOTAL CONDUCTOR TEMPERATUREAS7928/11C (Historical)12/27/2015
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
TERMINALS, LUG AND SPLICES, CONDUCTOR, CRIMP STYLE, COPPER TERMINAL, LUG, INSULATED, TIN WHISKER RESISTANT, RING TONGUE, BELL-MOUTHED, TYPE II, CLASS 1 (FOR 105 °C TOTAL CONDUCTOR TEMPERATUREAS7928/13B (Historical)12/27/2015
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
TERMINALS, LUG AND SPLICES, CONDUCTOR, CRIMP STYLE, COPPER TERMINAL, LUG, CRIMP STYLE, COPPER, INSULATED, RING TONGUE, FOR THIN WALL WIRE, TIN WHISKER RESISTANT, TYPE II CLASS 1 FOR 105 °C TOTAL CONDUCTOR TEMPERATUREAS7928/8A (Historical)12/27/2015
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
TERMINAL, LUG, CRIMP STYLE, COPPER, INSULATED, RING TONGUE, BELL-MOUTHED, TIN WHISKER RESISTANT, TYPE II, CLASS 1, (FOR 105 °C TOTAL CONDUCTOR TEMPERATUREAS7928/12D (Historical)12/02/2015
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
TERMINALS, LUG AND SPLICES, CONDUCTOR, CRIMP STYLE, COPPER TERMINAL, LUG, INSULATED, TIN WHISKER RESISTANT, RING TONGUE, BELL-MOUTHED, TYPE II, CLASS 1 (FOR 105°C TOTAL CONDUCTOR TEMPERATUREAS7928/13A (Historical)02/24/2015
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
TERMINALS, LUG AND SPLICES, CONDUCTOR, CRIMP STYLE, COPPER TERMINAL, LUG, CRIMP STYLE, COPPER, INSULATED, RING TONGUE, FOR THIN WALL WIRE, TIN WHISKER RESISTANT, TYPE II CLASS 1 FOR 105 °C TOTAL CONDUCTOR TEMPERATUREAS7928/8 (Historical)07/09/2013
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
Copper Nickel Tin Alloy, Mechanical Tube 77Cu - 15Ni - 8Sn Solution Annealed and Spinodal Hardened (TX 00AMS4598A (Historical)09/14/2012
This specification covers a copper-nickel-tin alloy in the form of mechanical tube (See 8.8
AMS D Nonferrous Alloys Committee
Material Specification
TERMINAL, LUG, CRIMP STYLE, COPPER, INSULATED, RING TONGUE, BELL-MOUTHED, TIN WHISKER RESISTANT, TYPE II, CLASS 1, (FOR 105 °C TOTAL CONDUCTOR TEMPERATUREAS7928/12C (Historical)05/03/2012
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
TERMINAL, LUG, CRIMP STYLE, COPPER, UNINSULATED, RING TONGUE, TIN WHISKER RESISTANT, TYPE I, CLASS I, FOR 175 °C TOTAL CONDUCTOR TEMPERATUREAS7928/11B (Historical)11/08/2011
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
TERMINAL, LUG, CRIMP STYLE, COPPER, INSULATED, RING TONGUE, BELL-MOUTHED, TIN WHISKER RESISTANT, TYPE II, CLASS 1, (FOR 105 °C TOTAL CONDUCTOR TEMPERATUREAS7928/12B (Historical)07/20/2011
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
WIRE, ELECTRICAL, SOLDERLESS WRAP, UNINSULATED, TIN COATED SOLID CONDUCTORAS81822/12A (Current)07/14/2011
AE-8D Wire and Cable Committee
Technical Standard
WIRE, ELECTRICAL, SOLDERLESS WRAP, POLYMIDE JACKET OVER EXTRUDED POLYVINYL CHLORIDE (PVC) INSULATION, TIN COATED SOLID CONDUCTORAS81822/7A (Current)07/14/2011
AE-8D Wire and Cable Committee
Technical Standard
Copper Nickel Tin Alloy, Mechanical Tube 77Cu - 15Ni - 8Sn Solution Annealed and Spinodal Hardened (TX 00AMS4598 (Historical)12/02/2010
This specification covers a copper-nickel-tin alloy in the form of mechanical tube (See 8.8
AMS D Nonferrous Alloys Committee
Material Specification
TERMINAL, LUG, CRIMP STYLE, COPPER, UNINSULATED, RING TONGUE, TIN WHISKER RESISTANT, TYPE I, CLASS I, FOR 175 °C TOTAL CONDUCTOR TEMPERATUREAS7928/11A (Historical)10/21/2010
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
TERMINAL, LUG, CRIMP STYLE, COPPER, INSULATED, RING TONGUE, BELL-MOUTHED, TIN WHISKER RESISTANT, TYPE II, CLASS 1, (FOR 105 °C TOTAL CONDUCTOR TEMPERATUREAS7928/12A (Historical)10/21/2010
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
TERMINALS, LUG AND SPLICES, CONDUCTOR, CRIMP STYLE, COPPER TERMINAL, LUG, INSULATED, TIN WHISKER RESISTANT, RING TONGUE, BELL-MOUTHED, TYPE II, CLASS 1 (FOR 150°C TOTAL CONDUCTOR TEMPERATUREAS7928/13 (Historical)10/20/2009
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
SHIELD TERMINATION, SOLDER STYLE, INSULATED, HEAT-SHRINKABLE, ENVIRONMENT RESISTANT FOR CABLES HAVING TIN OR SILVER PLATED SHIELDS (CLASS IAS83519/1 (Historical)04/09/2009
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
WIRE, ELECTRICAL, POLYTETRAFLUOROETHYLENE/POLYIMIDE INSULATED, NORMAL WEIGHT, TIN COATED, COPPER CONDUCTOR, 150 °C, 600 VOLTSAS22759/88B (Historical)08/30/2007
AE-8D Wire and Cable Committee
Technical Standard
TERMINAL, LUG, CRIMP STYLE, COPPER, UNINSULATED, RING TONGUE, TIN WHISKER RESISTANT, TYPE I, CLASS I, FOR 175 °C TOTAL CONDUCTOR TEMPERATUREAS7928/11 (Historical)08/28/2007
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
TERMINAL, LUG, CRIMP STYLE, COPPER, INSULATED, RING TONGUE, BELL-MOUTHED, TIN WHISKER, TYPE II, CLASS 1, (FOR 105 °C TOTAL CONDUCTOR TEMPERATUREAS7928/12 (Historical)07/23/2007
AE-8C2 Terminating Devices and Tooling Committee
Technical Standard
WIRE, ELECTRICAL, POLYTETRAFLUOROETHYLENE/ POLYIMIDE INSULATED, NORMAL WEIGHT, TIN COATED, COPPER CONDUCTOR, 150 °C, 600-VOLTAS22759/85B (Historical)12/05/2006
AE-8D Wire and Cable Committee
Technical Standard
WIRE, ELECTRICAL, POLYTETRAFLUOROETHYLENE/POLYIMIDE INSULATED, LIGHT WEIGHT, TIN COATED, COPPER CONDUCTOR, 150 °C, 600 VOLTSAS22759/80B (Historical)12/05/2006
AE-8D Wire and Cable Committee
Technical Standard
WIRE, ELECTRICAL, SOLDERLESS WRAP, UNINSULATED, TIN COATED SOLID CONDUCTORAS81822/12 (Historical)05/04/2004
AE-8D Wire and Cable Committee
Technical Standard
WIRE, ELECTRICAL, SOLDERLESS WRAP, POLYIMIDE JACKET OVER EXTRUDED POLYVINYL CHLORIDE (PVC) INSULATION, TIN COATED SOLID CONDUCTORAS81822/7 (Historical)05/04/2004
AE-8D Wire and Cable Committee
Technical Standard
Particle Size Effects of Tin Sulfides in Disc Brake Pads2002-01-259110/06/2002
1 Modern organic bonded friction linings contain both tin-(II)-sulfide and tin-(IV)-sulfide as solid lubricants. Due to their chemical and physical properties tin sulfides act as friction stabilizers and improve wear of disc and pad or lining not only in low steel and non-steel formulations but also in semimetallics. The influence of the particle size distribution in disc brake pads was investigated systematically. In the first run different particle size grades of tin sulfides were prepared: large particle, technical, fine and super fine grade. The medium diameter (D 50), surface and sieve residues were determined by using international standard testing methods. The thermal properties of the pure grades were investigated by DSC/TGA showing that the particle size distribution influences oxidation kinetics. The decomposition behavior was determined in inert atmosphere applying the same measurement system. To complete these data samples of tin sulfides were treated in an oven under air
Faullant, Peter
Technical Paper
Diesel Engine Emissions: A Tinning Control Approach87163009/01/1987
Growing demands are being placed on the diesel engine industry to lower emission levels. A key ingredient in emissions reduction is precise injection pump to engine timing control. This paper outlines a unique approach to dynamically time an injection pump to an engine during its initial test cycle while developing the ability to repeat the timing function using the same methodology during the life of the engine. This innovative concept consists of the placement of a piezoelectric sensor in the high pressure tubing path at the injector inlet. Coupled with a device which employs microwave sensing of relative piston position, exact dynamic timing can be accomplished. The sensor output not only provides the initial timing reference, but also a consistent reference for the engine's diagnostic needs. The output can also be used as a tach drive or provide input to an electronically controlled injection system
Henderson, Paul T., Wells, Dwight, Haddox, Mark
Technical Paper
Measurement of Fuel Liquid-Film Flow tin Intake Pipe of Two-Stroke Motorcycle Engine Using Conductive-Probe84055402/01/1984
In a gasoline engine, it is most important to recognize the behavior of fuel liquid-film flow in the intake pipe. Accordingly, the authors have tried to measure directly the amount of fuel liquid-film flow by means of the each separator inserted in the intake manifold and at the same tine to record the instantaneous behavior of liquid-film thickness from the change in electric conductivity. Especially, the experimental results on the measuring method of fuel liquid-film thickness will be described in this paper
Hayashi, Shigenobu, Sawa, Norihiro
Technical Paper
Bearings - Copper Lead Tin CastingsAMS4840A07/01/1981
1. ACKNOWLEDGMENT: A vendor must mention this specification number and its last revision in all quotations and when acknowledging purchase orders
Material Specification
The Development of Tin as an Alloying Addition in Gray Irons64007001/01/1964
Systematic studies on the effects of tin in gray irons are reported. The role of tin in promoting a fully pearlitic structure in gray irons is discussed as well as the effect of tin on the physical and mechanical properties of flake and nodular irons. Actual foundry practice of adding tin to irons is cited to witness the acceptance of tin alloyed irons in modern foundry practice
Long, Joseph B.
Technical Paper
Substitutes For Tin In The Manufacture Of Automobiles46012601/01/1946
HEUSSNER, C. E., JOHNSON, E. T.
Technical Paper
BEARINGS-COPPER LEAD TIN CastingsAMS484001/22/1940
Material Specification
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