adapting aadapting a rocketcam™ digital video controller

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Adapting a RocketCamDigital Video Controller Avionics Unit Adapting a RocketCam Digital Video Controller Avionics Unit to be a P-POD Deployment/Monitoring Unit Riki Munakata and Rex Ridenoure Ecliptic Enterprises Corporation Ecliptic Enterprises Corporation Pasadena, CA 2011 Apr 20-22 CubeSat Spring Workshop 1

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Page 1: Adapting aAdapting a RocketCam™ Digital Video Controller

Adapting a RocketCam™ Digital Video Controller Avionics UnitAdapting a RocketCam Digital Video Controller Avionics Unitto be a

P-POD Deployment/Monitoring Unit

Riki Munakata and Rex RidenoureEcliptic Enterprises CorporationEcliptic Enterprises Corporation

Pasadena, CA

2011 Apr 20-22 CubeSat Spring Workshop 1

Page 2: Adapting aAdapting a RocketCam™ Digital Video Controller

RocketCam™

2011 Apr 20-22 CubeSat Spring Workshop 2

Page 3: Adapting aAdapting a RocketCam™ Digital Video Controller

RocketPod™

• Based on the externally mounted RocketCamTM system• 1U CubeSat deployer1U CubeSat deployer

– Can accommodate a slightly larger CubeSat• Payload is kinematically restrained during launch• Environmental closeout protects payload after integrationEnvironmental closeout protects payload after integration

– Nitrogen purge option available• Access port available after integration• Zero-G test (Sep 2004)Zero G test (Sep 2004)• Suborbital test (Aug 2008)

2011 Apr 20-22 CubeSat Spring Workshop 3

Page 4: Adapting aAdapting a RocketCam™ Digital Video Controller

RocketCam™ Digital Video Controller (DVC)cPCI to PC-104 Migration

2011 Apr 20-22 4CubeSat Spring Workshop

Page 5: Adapting aAdapting a RocketCam™ Digital Video Controller

DVC-104 Avionics:Based on PCIe/104 Standard

• Stackable modules support a variety of applications and configurations– Launch vehicles, spacecrafts, UAVs, marine systems, combat systems, testLaunch vehicles, spacecrafts, UAVs, marine systems, combat systems, test

facilities, etc.– Digital Video System– Payload controller / Data handling unity g– Bus controller– Instrument / Data acquisition controller– Flight control computerg p– Missile / Launch vehicle managements system

92 Ecliptic systems launched (85 rockets; 7 spacecraft)>230 cameras and 19 digital avionics controllers

** No known Ecliptic hardware or software failures **

2011 Apr 20-22 5CubeSat Spring Workshop

Page 6: Adapting aAdapting a RocketCam™ Digital Video Controller

Adapting DVC for Deployment Control:Genesis of ConceptGenesis of Concept

• Proposed to DARPA for STTRPh I d II f d d ith C l P l SLO t• Phase I and II funded, with Cal Poly SLO as partner

• Employ DVC capabilities to control and monitor multiple P-POD and RocketPod systems• Up to 8 deployments• Deployment video coverage• Environmental data capturep

“RocketPod and P-POD on Steroids”

2011 Apr 20-22 CubeSat Spring Workshop 6

Page 7: Adapting aAdapting a RocketCam™ Digital Video Controller

Key Design Features

• DVC –104L h hi l fi ti– Launch vehicle configuration

– Size: 99.6mm x 98.5mm x 132.8mm– Mass: ~ 1.2 kg

5 li t– 5 slice system– 8 NTSC camera inputs– 8 actuator drive outputs

• Supports redundant outputs– 8 channel analog inputs

(environmental sensors)

2011 Apr 20-22 CubeSat Spring Workshop 7

Page 8: Adapting aAdapting a RocketCam™ Digital Video Controller

Optional Capabilities

• Illuminator• Independent or camera mount

• High speed and High Definition camera• Large selection of sensors from 800x600

@ 500 fps to 4872x3238 @ 3 fps• Primary/Secondary battery• Primary/Secondary battery• S-Band transmitter

• 150mW to 20W• Solid State Drive

Taurus II Shipset• Solid State Drive

• Store and forward applications• Up to 320GB

2011 Apr 20-22 CubeSat Spring Workshop 8

Page 9: Adapting aAdapting a RocketCam™ Digital Video Controller

Functional Diagram

2011 Apr 20-22 CubeSat Spring Workshop 9

Page 10: Adapting aAdapting a RocketCam™ Digital Video Controller

“Master P-POD” Concept:P-POD Mk III(+)P POD Mk.III( )

• P-POD + DVC + Care package• Takes advantage of space on top ofTakes advantage of space on top of

P-POD• Mechanically repackaged DVC-104

form factor • Same capabilities as current

DVC• Does not increase rectangular

l f P PODenvelope of P-POD• Minimal impact to P-POD design

2011 Apr 20-22 CubeSat Spring Workshop 10

Page 11: Adapting aAdapting a RocketCam™ Digital Video Controller

Development Status

• Phase II STTR completion 2011 2Q• Sequencer baselined in 2010 for (rescheduled) ADAMSat missionSequencer baselined in 2010 for (rescheduled) ADAMSat mission

• 8 P-PODs on NPS Cul-Lite• Development on DVC and P-POD Mk.III(+) continued since• Deliverables expected by end of effort:Deliverables expected by end of effort:

– Launch-ready DVC + 1 cameras (up to 8)– Protoflight environmental testing

– Prototype of P-POD Mk.III(+)yp ( )– Qualification environmental testing

– Mature EM of RocketPod• Investigating multiple launch optionsg g p p

– Environmental testing performed to envelopemost launch vehicles

2011 Apr 20-22 CubeSat Spring Workshop 11

Page 12: Adapting aAdapting a RocketCam™ Digital Video Controller

EclipticContact InfoContact Info

Riki Munakata, Mechanical Engineerk t @ li ti t [email protected]

(626) 798-2436 x412

Rex Ridenoure, [email protected](626) 278-0435(626) 278 0435

398 W. Washington Blvd., Suite 100P d CA 91103Pasadena, CA 91103www.eclipticenterprises.com

“RocketCam by Ecliptic”

2011 Apr 20-22 CubeSat Spring Workshop 12