CEN/TR 17603-32-07:2022

SLOVENSKI STANDARD
01-marec-2022
Vesoljska tehnika - Priročnik o strukturnih materialih - 7. del: Toplotna in okoljska
celovitost, proizvodni vidiki, spremljanje stanja materialov v orbiti, mehki
materiali, hibridni materiali in nanotehnologije
Space engineering - Structural materials handbook - Part 7: Thermal and environmental
integrity, manufacturing aspects, in-orbit and health monitoring, soft materials, hybrid
materials and nanotechnologies
Raumfahrttechnik - Handbuch der Strukturwerkstoffe - Teil 7: Thermische und
umweltbedingte Integrität, Herstellungsaspekte, In-Orbit- und Gesundheitsüberwachung,
weiche Werkstoffe, Hybridwerkstoffe und Nanotechnologien
Ingénierie spatiale - Manuel des matériaux structuraux - Partie 7 : Intégrité thermique et
en environnement, aspects fabrication, surveillance des matériaux, matériaux souples,
matériaux hybrides et nanotechnologies
Ta slovenski standard je istoveten z: CEN/TR 17603-32-07:2022
ICS:
49.140 Vesoljski sistemi in operacije Space systems and
operations
2003-01.Slovenski inštitut za standardizacijo. Razmnoževanje celote ali delov tega standarda ni dovoljeno.

TECHNICAL REPORT CEN/TR 17603-32-07

RAPPORT TECHNIQUE
TECHNISCHER BERICHT
January 2022
ICS 49.140
English version
Space engineering - Structural materials handbook - Part
7: Thermal and environmental integrity, manufacturing
aspects, in-orbit and health monitoring, soft materials,
hybrid materials and nanotechnologies
Ingénierie spatiale - Manuel des matériaux structuraux Raumfahrttechnik - Handbuch der Strukturwerkstoffe -
- Partie 7 : Intégrité thermique et en environnement, Teil 7: Thermische und umweltbedingte Integrität,
aspects fabrication, surveillance des matériaux, Herstellungsaspekte, In-Orbit- und
matériaux souples, matériaux hybrides et Gesundheitsüberwachung, weiche Werkstoffe,
nanotechnologies Hybridwerkstoffe und Nanotechnologien

This Technical Report was approved by CEN on 29 November 2021. It has been drawn up by the Technical Committee
CEN/CLC/JTC 5.
CEN and CENELEC members are the national standards bodies and national electrotechnical committees of Austria, Belgium,
Bulgaria, Croatia, Cyprus, Czech Republic, Denmark, Estonia, Finland, France, Germany, Greece, Hungary, Iceland, Ireland, Italy,
Latvia, Lithuania, Luxembourg, Malta, Netherlands, Norway, Poland, Portugal, Republic of North Macedonia, Romania, Serbia,
Slovakia, Slovenia, Spain, Sweden, Switzerland, Turkey and United Kingdom.

CEN-CENELEC Management Centre:
Rue de la Science 23, B-1040 Brussels
© 2022 CEN/CENELEC All rights of exploitation in any form and by any means
Ref. No. CEN/TR 17603-32-07:2022 E
reserved worldwide for CEN national Members and for
CENELEC Members.
Table of contents
European Foreword . 30
Introduction . 31
82 Thermal behaviour . 32
82.1 Introduction .32
82.1.1 General .32
82.1.2 Physical response .32
82.1.3 Physical properties .32
82.2 MMC: Thermal cycling .33
82.2.1 General .33
82.2.2 Magnesium-carbon fibre composites .33
82.2.3 Aluminium-carbon fibre composites .34
82.2.4 Aluminium-boron filament composites .34
82.2.5 Titanium-silicon carbide filament composites .35
82.2.6 Superalloy (FeCrAlY) composites .35
82.3 CMC: Thermal cycling .35
82.4 MMC: Thermal shock .36
82.4.1 General .36
82.4.2 Metal alloys .36
82.4.3 MMC .36
82.4.4 Intermetallics .36
82.5 CMC: Thermal shock .36
82.5.1 General .36
82.5.2 SiC-SiC composites .37
82.6 MMC: Thermal conductivity .38
82.6.1 General .38
82.6.2 Thermal diffusivity measurement .38
82.6.3 Effect of material composition .38
82.6.4 Modelling .39
82.7 CMC: Thermal conductivity .40
82.7.1 General .40
82.7.2 Glass-ceramic matrix composites .40
82.7.3 SiC-SiC and C-SiC composites.41
82.8 Specific heat capacity .48
82.9 Surface emissivity .48
82.10 Surface catalyticity .49
82.11 References .49
82.11.1 General .49
83 Thermo-mechanical fatigue . 52
83.1 Introduction .52
83.2 Phased TMF .52
83.3 Superalloys .53
83.4 Aluminium composites .53
83.4.1 Particulate reinforced composites .53
83.4.2 Continuous fibre reinforced composites .54
83.5 Titanium composites .54
83.6 Copper composites .57
83.7 Ceramic composites .58
83.8 Carbon-carbon composites .58
83.9 Predictive methods .58
83.10 References .59
83.10.1 General .59
84 Dimensional control . 62
84.1 Introduction .62
84.2 Residual stresses .62
84.3 Creep: Metallic materials .62
84.3.1 General .62
84.3.2 Particulate reinforced aluminium composites .63
84.3.3 Discontinuous fibre reinforced aluminium .63
84.4 Creep: Ceramic composites .63
84.4.1 General .63
84.4.2 Creep mismatch ratio (CMR) .63
84.5 Crack densities .66
84.6 CTE: Metallic materials .66
84.6.1 General .66
84.6.2 Continuous reinforcement .66
84.6.3 Particulate reinforcement .67
84.7 CTE: Ceramic composites .67
84.7.1 SiC matrix composites .67
84.7.2 Glass matrix composites .70
84.7.3 Environmental factors .70
84.8 References .70
84.8.1 General .70
85 High-temperature environmental stability . 72
85.1 Introduction .72
85.2 Aqueous corrosion: Metals .72
85.2.1 General .72
85.2.2 Aluminium-based composites .72
85.3 Hot corrosion: Metals .73
85.3.1 Applications .73
85.3.2 Causes .73
85.3.3 Protection systems .74
85.4 Hot corrosion: CMC .74
85.4.1 Causes .74
85.5 Oxidation: Metals .74
85.6 Oxidation: Ceramics .74
85.6.1 Carbon-containing materials .74
85.6.2 SiC-SiC composites .75
85.6.3 Chemical reactions .76
85.6.4 Effect of conditions .76
85.6.5 Effect of manufacturing route .76
85.6.6 Modelling .77
85.7 Hydrogen embrittlement.77
85.7.1 General .77
85.7.2 Metal-based materials .77
85.7.3 Ceramic-based materials .78
85.7.4 Precautions .78
85.8 Hydrogen: Titanium materials .79
85.8
...