ASTM E668 Standard Practice for Application of Thermoluminescence-Dosimetry (TLD) Systems for Determining Absorbed Dose in Radiation-Hardness Testing of Electronic Devices
Данный раздел/документ содержится в продуктах:
- Техэксперт: Машиностроительный комплекс
- Картотека зарубежных и международных стандартов
- ASTM ISO/ASTM 51205 Standard Practice for Use of a Ceric-Cerous Sulfate Dosimetry System
- ASTM D3082 Standard Test Method for Boron in Water
- ASTM D5810 Standard Guide for Spiking into Aqueous Samples
- ASTM D5996 Standard Test Method for Measuring Anionic Contaminants in High-Purity Water by On-Line Ion Chromatography
- ASTM D3864 Standard Guide for On-Line Monitoring Systems for Water Analysis
- ASTM E178 Standard Practice for Dealing With Outlying Observations
- ASTM ISO/ASTM 51205 Standard Practice for Use of a Ceric-Cerous Sulfate Dosimetry System
- ASTM E178 Standard Practice for Dealing With Outlying Observations
- ASTM D3864 Standard Guide for On-Line Monitoring Systems for Water Analysis
- ASTM D5996 Standard Test Method for Measuring Anionic Contaminants in High-Purity Water by On-Line Ion Chromatography
- ASTM D5810 Standard Guide for Spiking into Aqueous Samples
- 13
- ASTM D3082 Standard Test Method for Boron in Water
- ASTM D5810 Standard Guide for Spiking into Aqueous Samples
- ASTM D5996 Standard Test Method for Measuring Anionic Contaminants in High-Purity Water by On-Line Ion Chromatography
- ASTM D3864 Standard Guide for On-Line Monitoring Systems for Water Analysis
- ASTM E178 Standard Practice for Dealing With Outlying Observations
- ASTM ISO/ASTM 51205 Standard Practice for Use of a Ceric-Cerous Sulfate Dosimetry System
- ASTM E178 Standard Practice for Dealing With Outlying Observations
- ASTM D3864 Standard Guide for On-Line Monitoring Systems for Water Analysis
- ASTM D5996 Standard Test Method for Measuring Anionic Contaminants in High-Purity Water by On-Line Ion Chromatography
- ASTM D5810 Standard Guide for Spiking into Aqueous Samples
- 13.060
- ASTM D3082 Standard Test Method for Boron in Water
- ASTM D5810 Standard Guide for Spiking into Aqueous Samples
- ASTM D5996 Standard Test Method for Measuring Anionic Contaminants in High-Purity Water by On-Line Ion Chromatography
- ASTM D3864 Standard Guide for On-Line Monitoring Systems for Water Analysis
- ASTM E178 Standard Practice for Dealing With Outlying Observations
- ASTM ISO/ASTM 51205 Standard Practice for Use of a Ceric-Cerous Sulfate Dosimetry System
- ASTM E178 Standard Practice for Dealing With Outlying Observations
- ASTM D3864 Standard Guide for On-Line Monitoring Systems for Water Analysis
- ASTM D5996 Standard Test Method for Measuring Anionic Contaminants in High-Purity Water by On-Line Ion Chromatography
- ASTM D5810 Standard Guide for Spiking into Aqueous Samples
- ASTM D3082 Standard Test Method for Boron in Water
- ASTM D3082 Standard Test Method for Boron in Water
- ASTM D5810 Standard Guide for Spiking into Aqueous Samples
- ASTM D5996 Standard Test Method for Measuring Anionic Contaminants in High-Purity Water by On-Line Ion Chromatography
- ASTM D3864 Standard Guide for On-Line Monitoring Systems for Water Analysis
- ASTM E178 Standard Practice for Dealing With Outlying Observations
- ASTM ISO/ASTM 51205 Standard Practice for Use of a Ceric-Cerous Sulfate Dosimetry System
- ASTM E178 Standard Practice for Dealing With Outlying Observations
- ASTM D3864 Standard Guide for On-Line Monitoring Systems for Water Analysis
- ASTM D5996 Standard Test Method for Measuring Anionic Contaminants in High-Purity Water by On-Line Ion Chromatography
- ASTM D5996 Standard Test Method for Measuring Anionic Contaminants in High-Purity Water by On-Line Ion Chromatography
- ASTM D3864 Standard Guide for On-Line Monitoring Systems for Water Analysis
- ASTM E178 Standard Practice for Dealing With Outlying Observations
- ASTM ISO/ASTM 51205 Standard Practice for Use of a Ceric-Cerous Sulfate Dosimetry System
- ASTM E178 Standard Practice for Dealing With Outlying Observations
- ASTM D3864 Standard Guide for On-Line Monitoring Systems for Water Analysis
- ASTM D3864 Standard Guide for On-Line Monitoring Systems for Water Analysis
- ASTM E178 Standard Practice for Dealing With Outlying Observations
- ASTM ISO/ASTM 51205 Standard Practice for Use of a Ceric-Cerous Sulfate Dosimetry System
- ASTM E178 Standard Practice for Dealing With Outlying Observations
- ASTM E178 Standard Practice for Dealing With Outlying Observations
- ASTM ISO/ASTM 51205 Standard Practice for Use of a Ceric-Cerous Sulfate Dosimetry System
- ASTM E666 Standard Practice for Calculating Absorbed Dose From Gamma or X Radiation
- ASTM E2450 Standard Practice for Application of CaF2(Mn) Thermoluminescence Dosimeters in Mixed Neutron-Photon Environments
- ASTM F1190 Standard Guide for Neutron Irradiation of Unbiased Electronic Components
- ASTM E668 Standard Practice for Application of Thermoluminescence-Dosimetry (TLD) Systems for Determining Absorbed Dose in Radiation-Hardness Testing of Electronic Devices
- ASTM E1854 Standard Practice for Ensuring Test Consistency in Neutron-Induced Displacement Damage of Electronic Parts
- Картотека зарубежных и международных стандартов
ASTM International
Standard Practice for Application of Thermoluminescence-Dosimetry (TLD) Systems for Determining Absorbed Dose in Radiation-Hardness Testing of Electronic Devices
N E668
Annotation
This practice covers procedures for the use of thermoluminescence dosimeters (TLDs) to determine the absorbed dose in a material irradiated by ionizing radiation. Although some elements of the procedures have broader application, the specific area of concern is radiation-hardness testing of electronic devices. This practice is applicable to the measurement of absorbed dose in materials irradiated by gamma rays, X rays, and electrons of energies from 12 to 60 MeV. Specific energy limits are covered in appropriate sections describing specific applications of the procedures. The range of absorbed dose covered is approximately from 10-2 to 104 Gy (1 to 106 rad), and the range of absorbed dose rates is approximately from 10-2 to 1010 Gy/s (1 to 1012 rad/s). Absorbed dose and absorbed dose-rate measurements in materials subjected to neutron irradiation are not covered in this practice. (See Practice E2450 for guidance in mixed fields.) Further, the portion of these procedures that deal with electron irradiation are primarily intended for use in parts testing. Testing of devices as a part of more massive components such as electronics boards or boxes may require techniques outside the scope of this practice.
NOTE 1-The purpose of the upper and lower limits on the energy for electron irradiation is to approach a limiting case where dosimetry is simplified. Specifically, the dosimetry methodology specified requires that the following three limiting conditions be approached: (a) energy loss of the primary electrons is small, (b) secondary electrons are largely stopped within the dosimeter, and (c) bremsstrahlung radiation generated by the primary electrons is largely lost.
This standard dose not purport to address all of the safety concerns, if any, associated with its use. It is the responsibility of the user of this standard to establish appropriate safety and health practices and determine the applicability of regulatory limitations prior to use.



