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Cal Poly San Luis Obispo UAS Design November 22, 2013.

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Presentation on theme: "Cal Poly San Luis Obispo UAS Design November 22, 2013."— Presentation transcript:

1 Cal Poly San Luis Obispo UAS Design November 22, 2013

2 Meet the Team: Group A 2

3 Meet the Team: Group B 3

4 Meet the Team: Group C 4

5 Concept of Operations

6 What is the Problem? 6 Cal Fire Name Cal Fire Statistics (2013) 6,181 Fires 150,000 Acres burned $172 million budget allocated Fires located throughout the state

7 What are the Challenges? 7 National Geographic Name Over 31 million acres of land under Cal Fire jurisdiction Mountainous forest terrain Difficult to maintain situational awareness and communication

8 No Ideal Solution Exists 8Name No Single Vehicle Meets All Requirements

9 Our Design Philosophy 9Name Firefly’s mission is to deliver the best long- endurance fire spotting vehicle which will both fly patrols to identify early-stage fires and provide situational awareness and on-station surveillance to the firefighter and commander.

10 Our Vision: On Patrol 10Name Launch from either a Cal Fire base or truck in- situ with an EO and IR camera as a standard payload. UAV will autonomously survey a pre-selected area or route, watching for heat signatures which may indicate a fire. If a fire is detected, UAS will alert the operator and enter into a loiter pattern while fighters are dispatched

11 Our Vision: On Patrol 11Name Graphic showing Stationary launch

12 Our Vision: On-Station Support 12Name UAS can deploy with first responders or remain on station, if already present, to autonomously provide instantaneous situational awareness to the commanders. UAS will be able to: Map fire areas Watch for flare-ups Provide communication relays Provide live video feed Keep track of response units

13 Our Vision: On-Station Support 13Name

14 Operator Launch Timeline 14Name Cal Fire Receives Order to Launch User Sets Up Launcher Vehicle Begins Pre-Flight Testing User Programs Initial Flight Path Vehicle is Launched

15 Vehicle Patrol Timeline 15Name Vehicle is Launched User Selects Patrol Area Autonomously Surveys Area Alerts User When Fire Detected Maps Fire Perimeter Remains on Station

16 Patrol Launch 16Alex Hernandez

17 Vehicle On-Station Timeline 17Name Fire is Detected User Selects Flight Path En Route Autonomous Flight Alerts User When Fire Detected Maps Fire Perimeter Remains on Station

18 En Route Launch 18Alex Hernandez

19 Ground Control Solutions 19Tyler Kowallis

20 Ground Control Solutions 20Tyler Kowallis

21 Ground Control Solutions 21Tyler Kowallis

22 Command and Control 22Name

23 Command and Control 23Name

24 Command and Control 24Name

25 Command and Control 25Name

26 Communications Network 26Name Graphic with communications network diagram

27 Multiple Payload Options 27Name

28 Fast Re-launch 28Name Graphic showing Quick Re-Launch Timeline and Payload Swap

29 Pixels on Target 29Name Graphic showing how increased POT improves situational awareness

30 Ruggedness and Availability 30Name 95% availability, define

31 31Name A B C D E F G Typical Mission A.Quick launch < 60 sec B.5 mile dash to first target, with POT < 2 min C.Loiter on target for 5hr D.5 mile dash to second target, with POT < 2 min E.Loiter on target for 5hr F.Egress 2 miles G.Recovery Google Earth

32 Typical Mission 32Name Defining Success KPPs: Launch Time, Time on Station, Ingress Time Launch Time: < 60 sec Minimum Time on Station: 5 hrs/station Maximum Ingress Time: 2 min Google Earth

33 33Name Survey Mission A.Quick launch <60 sec B.Cruise out 1 miles C.Survey D.Return to base E.Recovery Google Earth A B C D E

34 Survey Mission 34Name Defining Success KPPs: Launch Time, Acre/Hr, Total Acre Maximum Launch Time: < 60 sec Minumum Acre/Hr: ??? Minumum Total Acre : ??? Google Earth

35 35Name Loiter Mission A.Quick launch < 60 sec B.Overhead loiter 12hr C.Recovery Google Earth A B C

36 Loiter Mission 36Name Defining Success KPPs: Launch Time, Time on Station Maximum Launch Time: < 60 sec Minimum Time on Station: 12 hr Google Earth

37 A B C D E 37Name Range Mission A.Quick launch < 60 sec B.Cruise out 25 miles C.Loiter on target for 8hr D.Egress 5 miles E.Recovery Google Earth

38 Range Mission 38Name Defining Success KPPs: Launch Time, Range, Time on Station Maximum Launch Time: < 60 sec Minimum Range: 25 mi Minimum Time on Station: 8 hr Google Earth

39 Requirements

40 Assumed Requirements The UAS must be transportable by the Cal Fire Model 34 fire truck Will remain operational at night 40 Name

41 Driving Requirements Top 4 Driving Requirements 1.20,000 ft. ceiling 2.12 hr. endurance 3.Communications 4.FAA Certification 41 Name

42 Ceiling Requirement Tree Line: 10,000 ft. Max Elevation: 14,000 ft. Flight Ceiling: 20,000 ft. Name42

43 Long Endurance 43Name Graphic Depicting Various Endurance Times and Coverage Areas

44 Communications Challenges 44Name Graphic with communications challenges

45 FAA Certification 45Name FAA Guidance: Must File IFR Flight Plan ADS-B Out Equipped Must Communicate with ATC Full Control Override Authority

46 Concept Comparison

47 Design Strategy 47Name Firefly will achieve the missions specified in the RFP by incorporating a highly efficient flight vehicle design and advanced, low-power electronics and sensors.

48 Figure of Merit 48Nick Collison

49 Figure of Merit Explained 49Nick Collison Lifetime System Cost Research, Development, and Test Acquisition Operation and Support Disposal

50 Key Performance Parameters 50Name Mission Success Pixels on Target Time on Station Dash TimeAcre/ Hr Launch/ Recovery Time Total Acre Acoustic and Visual Detection System Cost

51 Battery Mass Fraction Analysis 51Trevor Hahm Endurance Time (Hours) Assumptions n = Peukert Constant = 1.3 h = 10,000 ft k = 0.13 Lance W. Traub. "Range and Endurance Estimates for Battery-Powered Aircraft", Journal of Aircraft, Vol. 48, No. 2 (2011), pp. 703-707. * β=0.32 β=0.41 β=0.64 Specific Energy = 170 Wh/kg

52 Weight Breakdown Analysis 52Trevor Hahm TABLE SHOWING WEIGHT BUILD-UPS FROM SWaP ANALYSIS

53 Electric vs. Gas Power Trade Study Ryan Godfrey53

54 Sizing Analysis Ryan Godfrey54

55 General Picture Concept 1 NAME55

56 Vehicle Sizing Plot for Various Ceiling Altitudes and Endurances Concept 1 NAME56

57 General Picture Concept 2 NAME57

58 Vehicle Sizing Plot for Various Ceiling Altitudes and Endurances Concept 2 NAME58

59 MetricWeightingConcept 1Concept 2 Metric 1 Metric 2 Metric 3 Metric 4 Metric 5 Metric 6 Total Concept Trade Study NAME59

60 Conclusion

61 Recommended RFP Revisions and Configuration Our Recommendation NAME61


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