Standard
Steel Tubing (Seamless for Machined Parts) 1.8ni 0.80cr 0.25mo (0.38 - 0.43c) Heat Treated (200,000 Tensile Strength)
2002-12-16
CURRENT
AMS6420
Search Results
Standard
STEEL TUBING (WELDED) Chromium Molybdenum (.27 - .33 Carbon) (Normalized)
1942-06-01
HISTORICAL
AMS6510
Standard
Steel Tubing (Seamless) Round 0.55ni 0.5cr 0.2mo (0.27 - 0.33c) Heat Treated (125,000 Tensile Strength)
2002-12-16
CURRENT
AMS6531
Standard
STEEL Nickel Molybdenum
1939-12-04
HISTORICAL
AMS6315
Standard
Steel 1.8ni .25mo (0.38 - 0.43c) Heat Treated (105,000 Tensile Strength)
1946-08-01
CURRENT
AMS6315C
No scope available.
Standard
STEEL Nickel Molybdenum
1942-03-01
HISTORICAL
AMS6315A
Standard
STEEL 1.8 Ni - .25 Mo (.38 - .43C) Heat Treated (105,000 TS)
1945-07-01
HISTORICAL
AMS6315B
Standard
Steel Tubing (Seamless for Machined Parts) .55ni .25mo (.33 - .38c) Normalized Or Heat-Treated (90,000 Tensile Strength)
2002-12-16
CURRENT
AMS6283
Standard
Steel Tubing (Seamless for Machined Parts) .55ni .50cr .25mo (.35 - .38c) Heat-Treated (125,000 Tensile Strength)
2002-12-16
CURRENT
AMS6284
Standard
Steel Tubing (Seamless for Machined Parts) .55ni .50cr .25mo (.38 - .43c) Heat-Treated (180,000 Tensile Strength)
2002-12-16
CURRENT
AMS6285
Standard
Steel Tubing, (Seamless), Round Chromium Molybdenum (.32 - .39 Carbon) (125,000 Tensile Strength)
2002-12-16
CURRENT
AMS6366
Standard
Steel Tubing, (Seamless), Round Chromium Molybdenum (.32 - .39 Carbon) (150,000 Tensile Strength)
2002-12-16
CURRENT
AMS6367
Standard
Steel Tubing, (Seamless), Round Chromium Molybdenum (.32 - .39 Carbon) (200,000 Tensile Strength)
2002-12-16
CURRENT
AMS6368
Standard
Steel Tubing (Seamless), Round Chromium Molybdenum (0.27 - 0.33 Carbon) (180,000 Tensile Strength - 0.156 Maximum Wall Thickness)
2002-12-16
CURRENT
AMS6363
Standard
NUTS, SELF-LOCKING, STEEL High Strength, Prevailing-Torque, All Metal 450 F (232 C) Use, Unified "J" (MIL-S-8879) Thread Form
1969-11-01
HISTORICAL
AMS7252
Standard
BOLTS AND SCREWS, TITANIUM ALLOY 6Al - 4V Upset Headed, Heat Treated, Roll Threaded
1973-05-15
HISTORICAL
AMS7461B
This specification covers premium quality bolts and screws made of 6Al - 4V titanium alloy.
Standard
BOLTS AND SCREWS, TITANIUM ALLOY 6Al - 4V Upset Headed, Heat Treated, Roll Threaded
1970-11-01
HISTORICAL
AMS7461A
Standard
BOLTS AND SCREWS, TITANIUM ALLOY 6Al - 4V Upset Headed, Heat Treated, Roll Threaded
1964-06-30
HISTORICAL
AMS7461
Video
Electrification of Vehicles at Nissan Motor Company to achieve Zero Tailpipe Emissions
2012-03-29
Nissan Motor Company has recently released the �Nissan Green Program 2016� which is a six-year action plan embodying the company�s environmental philosophy: Symbiosis of People, Vehicles and Nature. One of the key activities of this Program is the successful penetration of Zero-Emission Vehicles into the market which includes electric vehicle (EV) cumulative sales of 1.5M units with our Alliance partner Renault, introduction of a fuel cell electric vehicle (FCEV) into the market, taking a global leadership in supplying batteries for electric drive and creating zero-emission societies. This presentation will highlight some of these key activities. Presenter Kev Adjemian, Nissan Technical Center NA
Video
Estimating Return on Investment for SAVI (a Model-Based Virtual Integration Process)
2012-03-21
The System Architecture Virtual Integration (SAVI) program is a collaboration of industry, government, and academic organizations within the Aerospace Vehicle System Institute (AVSI) with the goal of structuring a new integration process that relies on a single-truth architectural framework. The SAVI approach of Integrate, then Build provides a modern distributed development environment which arrests the propagation of requirements errors through the development life cycle. It does so by capturing design assumptions and shared properties of the system design in an authoritative, annotated architectural model. This reference model provides a common, analyzable framework for confirming that system requirements remain complete, consistent, and correct at all levels of system decomposition. Core concepts of SAVI include extensive use of model-based system engineering tools and use of a single-truth reference architectural model.
