CubeSats: From Launch to Deployment Necessity for a standard.

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Necessity for a standard. Creation of a standard to facilitate the design process of small satellites. Deployment system to support the standard. Safe and reliable. Efficient and cost effective. Versatile. 2

Poly Picosatellite Orbital Deployer. Basic P-POD Design. Developed by Stanford and Cal Poly. Hollow, spring-loaded design. Holds 3 single sized CubeSats. P-POD Mk. I Planetary Systems Line Cutter used for deployment. On board power and timing circuits. Accepts standard pyro pulse. 3

P-POD Mk. I 4

Flight Heritage. Eurokot Launch Vehicle. Launched from Plesestk. June 30, 2003 Coordinated by University of Toronto. 4 CubeSats on 2 P-PODs. Quake Finder P-POD mission successful! 5

Lessons learned and improvements. Issues addressed in redesign of P-POD to make it a more attractive secondary for future missions: Difficulty in Tracking. Door displacement during vibration. Deployment System. Telemetry Sensor. 6

Tracking CubeSats in the cluster. Initially difficult to tell which CubeSat is which. Need better beacons. Ground Station s need to be better prepared and coordinated. Considering radio fingerprinting for identification. 7

Door Redesign. Door flexing puts unnecessary load on CubeSats. Redesigned door is 200% stiffer. 8

Starsys Release Mechanism. Fast and very reliable. No on-board electronics needed. 9

Telemetry Data. Confirmation of successful deployment. Signal is sent when door opens 90. 10

P-POD Mk. II 11

P-POD Specifications. Mass: 2.23 kg (empty) 5.23 kg (loaded) 1 st Natural Frequency: 650 Hz 700 Hz Exit Velocity: 2 m/s Deployment Force: 44.4 N 12

DNEPR Video. 13

DNEPR Mission. October 2004 14 CubeSats 11 Universities 5 P-PODs $40,000 per single sized CubeSat What will happen from now until then? 14

Launch Flowchart. P-POD Testing May 2004 CubeSat Testing????? Integration August 2004 Acceptance Testing August 2004 Delivery October 2004 15

Qualification Testing. P-POD Prototype. Tested to NASA worst-case specs. Qualification 125% of launch loads. Acceptance 100% of launch loads. Fully integrated P-POD. 16

Getting to Integration. Where? When? How Long? Cal Poly CubeSat Lab August 1 st to 30 th Integration & Acceptance = 1 week Deliverables (1 month prior). Charging Procedures Diagnostic Procedures Remove Before Flight (RBF) Procedures Special Needs Requests 17

Integration Class 100,000 clean room. Shipping handled by developers. 18

and Acceptance. Integrated P-POD with actual CubeSats and launch interface. 100% of launch loads. 19

Integration Schedule. Each developer assigned a week during August. Integration, testing and diagnostics. 20

DNEPR 2004 Schedule. Important Dates. April 8 th 10 th Cal Poly Workshop (Fit Check) June 20 th 30 th. DNEPR Fit Check for P-POD August 1 st Delivery to Cal Poly October 10 th Nominal Delivery Date October 31 st Nominal Launch Date 21

Future Missions (US Launches). Space X Falcon Boeing Atlas V Lockheed Delta II and Delta IV Orbital Sciences Corp. Pegasus Other small launch vehicles. Working with CSA to procure funding for future US CubeSat missions. 22

Shuttle. 23

Shuttle Capabilities. 24

Where d they go?! 25

Future Missions (DNEPR). What you need to know: Launch in Fall 2005. $40,000 per single CubeSat. Need 12 15 CubeSats. MOU signed in Summer 2004. Contact us if interested. 26