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BSI PD CEN/TR 17603-20-06:2022

$198.66

Space engineering. Assessment of space worst case charging handbook

Published By Publication Date Number of Pages
BSI 2022 62
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Common engineering practices involve the assessment, through computer simulation (with software like NASCAP [RD.4] or SPIS [RD.5]), of the levels of absolute and differential potentials reached by space systems in flight. This is usually made mandatory by customers and by standards for the orbits most at risk such as GEO or MEO and long transfers to GEO by, for example, electric propulsion. The ECSS-E-ST-20-06 standard requires the assessment of spacecraft charging but it is not appropriate in a standard to explain how such an assessment is performed. It is the role of this document ECSS-E-HB-20-06, to explain in more detail important aspects of the charging process and to give guidance on how to carry out charging assessment by computer simulation. The ECSS-E-ST-10-04 standard specifies many aspects of the space environment, including the plasma and radiation characteristics corresponding to worst cases for surface and internal charging. In this document the use of these environment descriptions in worst case simulations is described. The emphasis in this document is on high level charging in natural environments. One aspect that is currently not addressed is the use of active sources e.g. for electric propulsion or spacecraft potential control. The tools to address this are still being developed and this area can be addressed in a later edition.

PDF Catalog

PDF Pages PDF Title
2 undefined
9 Introduction
10 1 Scope
11 2 References
15 3 Terms, definitions and abbreviated terms
3.1 Terms from other documents
3.2 Abbreviated terms
17 4 Surface charging
4.1 Fundamentals
19 4.2 General methodology of surface charging analyses
4.2.1 Introduction
4.2.2 Necessity of 3D surface charging analyses
20 4.2.3 Simulation process
21 4.2.4 Assessment of simulation results
22 4.3 Electrostatic discharge
4.3.1 ESD types
4.3.2 Thresholds for ESD occurrence
23 4.3.3 Quantitative characterization of ESD electrical transients
27 4.3.4 Interpretation of results
4.4 Critical aspects with respect to worst case surface charging analyses
4.4.1 Orbit
28 4.4.2 Material properties
4.4.3 Sunlit/Eclipse
29 4.4.4 Protons
4.4.5 Electric propulsion
4.5 How to set up a simulation
4.5.1 Charging environment parameters
4.5.2 Modelling requirements for surface charging analyses
30 4.5.3 Spacecraft geometry modelling
31 4.5.4 Gmsh – The CAD interface to SPIS
35 4.5.5 Physical groups and surface materials definition
38 4.5.6 Basic electrical circuit of the satellite
39 4.5.7 Plasma models
4.5.8 Global parameters
4.5.8.1 GEO orbits
4.5.8.2 LEO polar orbits
40 4.5.8.3 Time-dependent potential variation
4.5.9 Consistency checks
42 5 Internal Charging
5.1 Fundamentals
5.1.1 Introduction
5.1.2 Floating metals
5.1.3 Insulators
43 5.1.4 Charge Deposition
5.1.5 Conductivity
45 5.1.6 Time-dependence
5.2 General methodology
5.2.1 Introduction
46 5.2.2 Internal charging analyses
47 5.2.3 Critical aspects with respect to worst case internal charging analysis
51 5.2.4 Modelling aspects for internal charging analyses
5.2.4.1 Choosing where simulation is necessary
52 5.2.5 Environment
5.2.6 Geometry
5.2.6.1 1D Modelling
53 5.2.6.2 3D modelling
5.2.7 Materials parameters
5.2.8 Simulation tools in 1D and 3D
54 5.2.9 Scenarios
5.2.10 Important Outputs
55 6 General aspects of surface and internal charging analysis
6.1 Material characterization aspects
6.2 Charging analyses and project phases
6.2.1 Phase 0: Mission analysis
6.2.2 Phase A: Feasibility
6.2.3 Phase B: Preliminary definition
56 6.2.4 Phase C: Detailed definition
6.2.5 Phase D: Production
6.2.6 Phase E: Utilisation
BSI PD CEN/TR 17603-20-06:2022
$198.66