Small satellites Launch Opportunities. Small satellites Deployment from Kibo

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Small satellites Launch Opportunities Small satellites Deployment from Kibo Space Environment and Kibo Utilization Workshop February 9-10, 2017 Hideyuki WATANABE Hiroki AKAGI Japan Aerospace Exploration Agency Human Spaceflight Technology Directorate JEM Mission Operations and Integration Center 1

Small satellites Launch Opportunities by JAXA Deployment from H-IIA launch vehicle Deployment from Kibo/ISS JAXA provides opportunities for launching small satellites with the support from technical coordination to launch and deploy for the purposes shown as below: (a) To contribute for easy, fast and on time to launch and operation of small satellites by private enterprises and universities, expanding the application of the space development and capacity building. (b) To promote a technical demonstration by using the small satellites. 2

ISS: Japan s Capabilities and Contributions ISS (International Space Station) Kibo (Japan Experiment Module) HTV (H-II Transfer Vehicle) ISS is a huge manned construction located about 400km above the Earth. 15 countries participate in the ISS program Japan strives to make concrete international contributions through extensive utilization of Kibo and HTV. H-IIB 3 3

Unique Capability of Kibo Exposed Facility Kibo has a unique Exposed Facility (EF) with an Airlock (AL) and a Remote Manipulator System (JEMRMS), and has a high capacity to exchange experimental equipment. 4 4

Unique Capability of Kibo Exposed Facility Small satellite deployment mission (J-SSOD) Kibo s unique function: JEM AL (JEM Airlock) and JEMRMS (JEM-Remote Manipulator System) Air Lock JEMRMS (JEM-Remote Manipulator System) JAXA developed the unique system J-SSOD (JEM Small Satellite Orbital Deployer) to deploy the satellite and inject the orbit from Kibo. 5

Unique Capability of Kibo Exposed Facility Small satellite deployment mission (J-SSOD) In 2012, the first satellites were deployed from Kibo: this has opened up new capabilities for ISS/Kibo utilization and new possibilities of the Micro/Nano-satellite. 1st J-SSOD Mission, WE WISH[1U], RAIKO[2U] It is able to operate the satellite deployer using Kibo, both airlock and robotic arm, is not only J-SSOD but also NRCSD and Cyclops. NRCSD(NanoRacks CubeSat Deployer) Cyclops (SSIKLOPS, Space Station Integrated Kinetic Launcher for Orbital Payload Systems) As of Today, 154 have deployed from Kibo and the deployment system has been attracting global attention as being a new space transportation system for the satellite. 6 6

J-SSOD: JEM Small Satellite Orbital Deployer Ⅰ Cargo Integration and launch Ⅱ Preparation in Kibo/ISS Cargo Transfer Bag Resupply Vehicle & Launcher To Outboard JEM Airlock (Inside Kibo) Multi-Purpose Experiment Platform(MPEP) JEM PM Inboard JAXA/FIT Micro-Satellite Developed by User J-SSOD Satellite Case J-SSOD Satellite Case Ⅳ Deployment from J-SSOD Ⅲ Transferring outboard through JEM Airlock JEM RMS MPEP User starts to operate the satellite 30 minutes or more after deployment JEM Airlock (View from outboard) 7 7

J-SSOD: JEM Small Satellite Orbital Deployer 8

J-SSOD: JEM Small Satellite Orbital Deployer Item Satellite Size Satellite Mass Specification CubeSat : 1U, 2U, or 3U (*1) 50 kg class satellite: 55 35 55 cm CubeSat : 1.33 kg or less per 1U 50 kg class satellite: 50kg or less Orbital Altitude approximately 380-420 km (*2) Inclination 51.6 Deployment Direction Nadir-aft 45 from the ISS nadir side Deployment Velocity CubeSat : 1.1-1.7 m/sec 50 kg Microsat : 0.4 m/sec Ballistic Coefficient 100kg/m 2 or less (*3) *1) CubeSat specification: 10 cm (W) 10 cm (D) Height: 1U: 10 cm, 2U: 20 cm, 3U: 30 cm *2) Depends on ISS altitude. *3) Depends on ballistic coefficient, altitude at release, solar activity, etc. Small Satellites Kibo ISS Orbiting Direction J-SSOD JAXA/NASA Deployment Direction(Cone) Nadir-aft 45 deg from the ISS nadir side 9 9

CubeSat Deployment Mission Overview SERPENS Launch and Deploy:2015 Investigator: University of Brasilia (Brazil) Agência Espacial Brasileira(AEB) Japan Manned Space Systems Corporation Size:3U 10

50kg Microsat Deployment Mission Overview JAXA s First Mission for 50kg Microsat Diwata-1 Launch and Deploy:2016 Investigator: University of the Philippines(The philippines) Department of Science and Technology(DOST) Tohoku University/Hokkaido University Size: Micro-Satellite(55cm 35cm 55cm) 11

J-SSOD: JEM Small Satellite Orbital Deployer Scenario for J-SSOD Mission The final Safety Review Panel (Phase 3) reviews the safety-related verification results. Results of verification (test and analysis) conducted by the user are reviewed by JAXA to confirm that the satellite complies with the J-SSOD interface requirements. Phase 0/1 Safety Review Phase 2 Safety Review Safety Data Package Release for Review Phase 3 Safety Review Complete Interface Compatibility Review Satellite H/O to JAXA H/O to ISS Resupply Vehicle Cargo Integratio n Launch on ISS Resupply Vehicle Deployment! Satellite Development by University or Company L-7.5mon L-6mon <For example : Safety Issue > Structure Failure Battery Rapture Antenna Inadvertant Deployment L-5.5mon L-5mon The batteries cannot be recharged beyond this point. L-0 On-orbit stowage duration depends on operations constraints. (Typically up to 6 months) 12 12

Latest mission with J-SSOD in 2016-2017 7 Cubesats were launched by HTV6(Dec.9/2016) and deployed by J-SSOD (Dec.16/2016 and Jan.19/2017). Satellite AOBA-VeloxIII TuPOD EGG ITF-2 STARS-C FREEDOM WASEDA- SAT3 Size 2U 3U 3U 1U 2U 1U 1U Overview Investigater Kyushu Institute of Technology / Nanyang Technological University, Singapore GAUSS Srl, Italy /Japan Manned Space Systems Corporation (JAMSS) University of Tokyo University of Tsukuba Shizuoka University Nakashimada Engineering Works, Ltd. / Tohoku University Waseda University Mission Demonstration of PPT(Pulsed Plasma Thruster) Deployment of two daughter satellites (TubeSats). Demonstration to unfold a toroidal inflatable structure for aeroshells Builds a network of people using satellite data. Conducts technical demonstration of a tether extending system by using a mother and a daughter satellites. Demonstrates a de-orbit device using a thin-film unfolding mechanism in space. Image projection on the surface of a drag chute with a micro projector 13

Future mission with J-SSOD in 2017 Joint Global Multi Nation Birds(Birds Satellite Project) Launch and deploy:2017 Investigator:Kyushu Institute of Technology Japan, Ghana, Bangladesh, Mongolia, Nigeria, Taiwan, Thailand Size: 1U 5 satellites Mission: 1.Take photograph of homeland via onboard cameras (CAM) 2. Digi-singer Mission (SNG) 3. Determination of Satellite Precise Location (POS) 4. Atmospheric Density Measurement (ATM) 5. Demonstrate Ground Station Network for CubeSat Constellation (NET) 6. Measure single-event-latchup in orbit (SEL) 14 Kyutech 14

Interface between your sattelite and J-SSOD The design and verification shall be complied with JX-ESPC-101133(Latest version) JEM Payload Accommodation Handbook(JPAH) - Vol. 8 - Small Satellite Deployment Interface Control Document The satellite developer have to verify all requirements of JPAH vol.8. Especially important section is 2.1.2 Dimensional Requirement 2.1.3 Rails 2.1.4 Envelope Requiremant 2.1.6 Separation Spring 2.2.1 Deployment Switch 2.3 Operational Requirement 2.4.1 Random Vibration and Acceleration 2.4.4 Thermal Environment 5.2(2) Radio Frequency Capability and Emission/Operation Authority 15

Thank you for your attention ขอบค ณ คร บ (Khob khun Krab) 16