Kondisi orbital apa yang mempengaruhi pipa panas SBSP?
Micrometeoroid and debris impact risks. 200℃temperature swings during eclipse transitions. Atomic oxygen erosion in LEO. Solar flare radiation hardening requirements. Zero-gravity fluid management challenges.
Bagaimana pipa panas orbital diproduksi di luar angkasa?
Pengelasan robot di ruang-ruang ekstrusi aluminium . struktur sumbu yang dioptimalkan oleh mikro . panel radiator self-deploying . modular untuk rakitan orbit {{7} {setiap segmen soal laser {{7} {setiap segmen laser {{7} {setiap segmen laser {{7} {{{7} {{{7 {{{{7 {setiap segmen {{7 {setiap segmen {
Bahan apa yang memaksimalkan penolakan panas berbasis ruang?
High-conductivity aluminum alloys. Diamond-like carbon coatings for emissivity. Shape-memory deployment mechanisms. Radiation-resistant polymer composites. All materials pass 15-year orbital exposure testing.
Bagaimana pipa SBSP diuji sebelum diluncurkan?
Thermal vacuum cycling tests. Vibration testing to launch load profiles. Microgravity fluid management experiments. Debris impact simulations. Endurance testing under concentrated solar flux.
Perawatan apa yang memungkinkan operasi selama puluhan tahun?
Satelit Inspeksi dan Perbaikan Robotik . pelapis mikrometeoroid yang disembunyikan mandiri . segmen pipa modular yang dapat diganti . Penggantian prediktif berdasarkan telemetri . on-orbit kemampuan manufaktur aditif {6} {4} {{4} orbit {6 {4} {{4} On-Orbit {{6 {{4} {6 {4} {{4} {6 {{4} {6 {4 {{4} {
