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Lunar Exploration Transportation System (LETS) MAE 491 / 492 2008 IPT Design Competition Instructors: Dr. P.J. Benfield and Dr. Matt Turner Team Frankenstein.

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Presentation on theme: "Lunar Exploration Transportation System (LETS) MAE 491 / 492 2008 IPT Design Competition Instructors: Dr. P.J. Benfield and Dr. Matt Turner Team Frankenstein."— Presentation transcript:

1 Lunar Exploration Transportation System (LETS) MAE 491 / 492 2008 IPT Design Competition Instructors: Dr. P.J. Benfield and Dr. Matt Turner Team Frankenstein Final Review Presentation 4/29/08

2 Team Disciplines The University of Alabama in Huntsville –Team Leader: Matt Isbell –Structures: Matthew Pinkston and Robert Baltz –Power: Tyler Smith –Systems Engineering: Kevin Dean –GN&C: Joseph Woodall –Thermal: Thomas Talty –Payload / Communications: Chris Brunton –Operations: Audra Ribordy Southern University –Mobility: Chase Nelson and Eddie Miller ESTACA –Sample Return: Kim Nguyen and Vincent Tolomio

3 Agenda Project Office Systems Engineering The Need The Requirements The Solution Performance Operations Structures GN&C Communications Payload Power Thermal Conclusions Questions

4 Project Office

5 Systems Engineering

6 The Need

7 The Requirements

8 The Solution 1) Attached to the attitude control system, Cyclops starts descent 2) Penetrators are dispersed into Shackleton Crater 3-4) Cyclops continues descent 5) Cyclops lands outside Shackleton Crater 6) Attitude control system detaches from Cyclops 7) Cyclops drops off single site box, receives data from the penetrators, then begins to rove

9 Performance CDD RequirementRequirementAssessmentRemark Landed Mass932.8 kgExceedsActually 810 kg Survive Lunar Cruise28 daysExceedsCapable of surviving lunar cruise exceeding 28 days Operational Period1 yearExceedsTRL 9 materials will remain functional beyond 1 year Sample Lunar Surface15 darkExceedsMobility allows roving to as many sites as is needed Communication Send and Receive (real time)ExceedsCapable of sending data at 150 Mbps Landing Parameters 12º slope Within 100 m.Exceeds Six wheel rocker bogey system allows landing on slopes greater than 12 degrees Survive Launch of 6 G's6 G'sExceedsCyclops structure will handle g-loads exceeding 6 g’s Technology RequirementsTRL9MeetsMaterials used are TRL 9 Power Requirements Store Power in Dark ConditionsExceedsRTG can provide the power needed during dark conditions Thermal Conditions Survive Temperature ChangesExceeds Materials used will withstand temperatures exceeding the 50K to 380K range Sample Return VehicleSample Return (Goal)ExceedsExceeds the sample return expectations Mobile Roving/Real-Time MobilityExceeds6 wheel rocker bogey allows roving in real-time

10 Operations

11 Structures Materials –Aluminum 6061 – T6 –Carbon Fiber Composite System Specifications (Main) –6 Wheel Rocker Bogie Mobility System 13 in. Outer Diameter Wheels (Aluminum Construction-6061 T6) Aluminum construction (6061 T6) Maxon EC 60 Brushless DC motor (60mm) x 6 –Single Site Box Max Width-60.793 in. Max Length-27.09 in. Max Height- 14 in. –Sample Return Vehicle Max Diameter- 9 in. Max Height- 13 in. –Camera Dimensions- 12 x 8 x 6 –Main Chassis Dimensions- 60.793 x 60.793 x 14 in. Aluminum Frame Carbon composite exterior MLI Insulation –Scoop Arm Max Reach- 68in. Before Deployment After Deployment

12 GN&C

13 Communication

14 Payload

15 Power

16 Thermal

17 Conclusions

18 Questions


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