Inorganic high temperature liquid phase
Inorganic high temperature liquid phase, Total:39 items.
The international standard classification for "Inorganic high temperature liquid phase" includes: Photographic equipment. Projectors , Earth-moving machinery , Aerospace engines and propulsion systems , Adhesives .
The Chinese standard classification for "Inorganic high temperature liquid phase" includes: Camera and photograph instrument , Architectural engineering construction machinery , Spacecraft power system , Adhesives .
Military Standard of the People's Republic of China-General Armament Department
- GJB 1087-1991 Room temperature curing high temperature inorganic adhesive
Professional Standard - Machinery
- JB/T 8250.5-1999 High-temperature and low-temperature test method for cameras
- JB/T 10759-2017 Construction machinery. High temperature and high pressure hydraulic fluid power hose assemblies
- JB/T 10759-2007 Construction machinery-High temperature and high pressure hydraulic fluid power hose assemblies
Group Standards of the People's Republic of China
- T/ZZB 0120-2016 High pressure super high temperature hydraulic operated stop valve
- T/ZZB 1340-2019 Fire-fighting three-phase asynchronous motor for fan
Professional Standard - Aerospace
- QJ 2806-1996 Specifications for GR-3 Inorganic High-temperature Adhesive
- QJ 2968-1997 Measurement Method for Medium and High Temperature of Liquid Rocket Engine
Military Standard of the People's Republic of China-Commission of Science,Technology and Industry for National Defence
- GJB 1087A-2005 Specification for RT solidified inorganic adhesive for high temperature resistance
Professional Standard - Building Materials
- JC/T 354-1984 Inorganic high-temperature synthetic mica paper laminated board
Liaoning Provincial Standard of the People's Republic of China
- DB21/T 2096-2013 Phase change inorganic material composite thermal insulation technical specification
Swedish Institute for Standards
- SS-EN 15705:2023 Inorganic fertilizers - Determination of methylen-urea oligomers using high-performance liquid chromatography (HPLC)
Society of Automotive Engineers (SAE)
- SAE AMS4787F-2000 Gold-Nickel Alloy, Brazing Filler Metal, High Temperature, 82Au 18Ni, 1740°F (949°C) Solidus-Liquidus Temperature
- SAE AMS4787G-2017 Gold-Nickel Alloy, Brazing Filler Metal, High Temperature, 82Au 18Ni, 1740°F (949°C) Solidus-Liquidus Temperature
- SAE AMS4787C-1990 BRAZING FILLER METAL@ HIGH TEMPERATURE 82Au - 18Ni 1740°F (949°C) Solidus-Liquidus Temperature (UNS P00820)
- SAE AMS4787B-1984 BRAZING FILLER METAL@ HIGH TEMPERATURE 82Au - 18Ni@ 1740°F (950°C) Solidus-Liquidus Temperature (UNS P00820)
- SAE AMS4787A-1978 BRAZING FILLER METAL@ HIGH TEMPERATURE 82Au - 18Ni 1740°F (950°C) Solidus-Liquidus Temperature (UNS P00820)
- SAE AMS4787C Gold-Nickel Alloy, Brazing Filler Metal, High Temperature, 82Au - 18Ni, 1740 °F (949 °C) Solidus-Liquidus Temperature
- SAE AMS4787 Gold-Nickel Alloy, Brazing Filler Metal, High Temperature, 82Au - 18Ni, 1740 °F (949 °C) Solidus-Liquidus Temperature
- SAE AMS4787F Gold-Nickel Alloy, Brazing Filler Metal, High Temperature, 82Au - 18Ni, 1740 °F (949 °C) Solidus-Liquidus Temperature
- SAE AMS4787G Gold-Nickel Alloy, Brazing Filler Metal, High Temperature 82Au - 18Ni 1740 °F (949 °C) Solidus-Liquidus Temperature
- SAE AMS4787H-2022 Gold-Nickel Alloy, Brazing Filler Metal, High Temperature 82Au - 18Ni 1740 °F (949 °C) Solidus-Liquidus Temperature
- SAE AMS4787F-2008 Gold-Nickel Alloy, Brazing Filler Metal, High Temperature 82Au - 18Ni 1740 °F (949 °C) Solidus-Liquidus Temperature
- SAE AMS4787A Gold-Nickel Alloy, Brazing Filler Metal, High Temperature, 82Au - 18Ni, 1740 °F (949 °C) Solidus-Liquidus Temperature
- SAE AMS4787H Gold-Nickel Alloy, Brazing Filler Metal, High Temperature, 82Au - 18Ni, 1740 °F (949 °C) Solidus-Liquidus Temperature
- SAE AMS4787B Gold-Nickel Alloy, Brazing Filler Metal, High Temperature, 82Au - 18Ni, 1740 °F (949 °C) Solidus-Liquidus Temperature
- SAE AMS4787D-1992 Gold-Nickel Alloy Brazing Filler Metal@ High Temperature 82Au - 18Ni 1740 Degrees F (949 Degrees C) Solidus- Liquidus Temperature
- SAE AMS4787E-1999 Gold-Nickel Alloy@ Brazing Filler Metal@ High Temperature 82Au - 18Ni 1740 Degrees F (949 Degrees C) Solidus-Liquidus Temperature (UNS P00820)
CZ-CSN
- CSN 72 1084-1974 Methodics of pyrogenic microscopy of anorganic substances
Ente Nazionale Italiano di Unificazione
- UNI EN 15705:2024 Inorganic fertilizers - Determination of methylen-urea oligomers using high-performance liquid chromatography (HPLC)
Association Francaise de Normalisation
- NF U42-152*NF EN 15705:2023 Inorganic fertilizers - Determination of methylen-urea oligomers using high-performance liquid chromatography (HPLC)
- NF EN 15705:2023 Inorganic fertilizers - Determination of methylen-urea oligomers using high-performance liquid chromatography (HPLC)
German Institute for Standardization
- DIN EN 15705:2024 Inorganic fertilizers - Determination of methylen-urea oligomers using high-performance liquid chromatography (HPLC)
- DIN EN 15705:2024-04 Inorganic fertilizers - Determination of methylen-urea oligomers using high-performance liquid chromatography (HPLC); German version EN 15705:2023
- DIN EN 15705:2022-08 Inorganic fertilizers - Determination of methylen-urea oligomers using high-performance liquid chromatography (HPLC); German and English version prEN 15705:2022 / Note: Date of issue 2022-07-01*Intended as replacement for DIN EN 15705 (2010-07).
- DIN EN 15470:2017-09 Liquefied petroleum gases - Determination of dissolved residues - High temperature Gas chromatographic method; German version EN 15470:2017
British Standards Institution (BSI)
- BS EN 15705:2023 Inorganic fertilizers. Determination of methylen-urea oligomers using high-performance liquid chromatography (HPLC)
European Committee for Standardization (CEN)
- EN 15705:2023 Inorganic fertilizers - Determination of methylen-urea oligomers using high-performance liquid chromatography (HPLC)
Natural Gas Processor's Association (NGPA)
- GPA TP-5-1978 Relation of Liquid-Liquid Equilibrium Behavior at Low Temperatures to Vapor-Liquid Equilibria Behavior at High Temperatures and Elevated Pressures
