3 Terms, definitions and abbreviated terms
3.1 Terms from other standards
3.2 Terms specific to the present standard
4.2 Radiation effects evaluation activities
4.3 Relationship with other standards
5.1.1 Radiation environment specification
5.1.2 Radiation margin in a general case
5.1.3 Radiation margin in the case of single events
5.3 Space radiation environment
5.4 Deposited dose calculations
5.5 Radiation effect behaviour
5.5.1 Uncertainties associated with EEE component radiation susceptibility data
5.5.4 Radiation-induced sensor background
5.6 Establishment of margins at project phases
5.6.1 Mission margin requirement
5.6.4 Hardness assurance post-CDR
6.2 Shielding calculation approach
6.2.3 Detailed sector shielding calculations
6.2.4 Detailed 1-D, 2-D or full 3-D radiation transport calculations
6.3 Geometry considerations for radiation shielding model
7.4 Technologies sensitive to total ionising dose
7.5 Radiation damage assessment
7.5.1 Calculation of radiation damage parameters
7.5.2 Calculation of the ionizing dose
7.6 Experimental data used to predict component degradation
7.7 Experimental data used to predict material degradation
8.2 Displacement damage expression
8.4 Technologies susceptible to displacement damage
8.5 Radiation damage assessment
8.5.1 Calculation of radiation damage parameters
8.5.2 Calculation of the DD dose
8.6 Prediction of component degradation
9.3 Technologies susceptible to single event effects
9.4 Radiation damage assessment
9.4.1 Prediction of radiation damage parameters
9.4.2 Experimental data and prediction of component degradation
9.5.1 Calculation procedure flowchart
9.5.2 Predictions of SEE rates for ions
9.5.3 Prediction of SEE rates of protons and neutrons
10 Radiation-induced sensor backgrounds
10.3 Instrument technologies susceptible to radiation-induced backgrounds
10.4 Radiation background assessment
10.4.2 Prediction of effects from direct ionisation by charged particles
10.4.3 Prediction of effects from ionisation by nuclear interactions
10.4.4 Prediction of effects from induced radioactive decay
10.4.5 Prediction of fluorescent X-ray interactions
10.4.6 Prediction of effects from induced scintillation or Cerenkov radiation in PMTs and MCPs
10.4.7 Prediction of radiation-induced noise in gravity-wave detectors
10.4.8 Use of experimental data from irradiations
10.4.9 Radiation background calculations
11 Effects in biological material
11.2 Parameters used to measure radiation
11.2.1 Basic physical parameters
11.4 Establishment of radiation protection limits
11.5 Radiobiological risk assessment
Figures
Figure 9‑1: Procedure flowchart for hardness assurance for single event effects.
Tables
Table 4‑1: Stages of a project and radiation effects analyses performed
Table 4‑2: Summary of radiation effects parameters, units and examples
Table 4‑3: Summary of radiation effects and cross-references to other chapters
Table 6‑2: Description of different dose-depth methods and their applications
Table 7‑1: Technologies susceptible to total ionising dose effects
Table 8‑2: Definition of displacement damage effects
Table 9‑1: Possible single event effects as a function of component technology and family.
Table 11‑1: Radiation weighting factors
Table 11‑2: Tissue weighting factors for various organs and tissue (male and female)
Table 11‑3: Sources of uncertainties for risk estimation from atomic bomb data.
Table 11‑4: Uncertainties of risk estimation from the space radiation field