drone a assisted fi field i irrigati tion remediati tion
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Drone A Assisted Fi Field I Irrigati tion Remediati tion CSU - PowerPoint PPT Presentation

Welcome Drone A Assisted Fi Field I Irrigati tion Remediati tion CSU Agriculture Research Institute Sponsor 2 Mee eet T t The e Team Olga L a Leal al Lui uis V Vazqu quez Ryan Er Ry Erb Bria ian Fr n Frede denbe berg Wi


  1. Welcome Drone A Assisted Fi Field I Irrigati tion Remediati tion CSU Agriculture Research Institute Sponsor

  2. 2 Mee eet T t The e Team Olga L a Leal al Lui uis V Vazqu quez Ryan Er Ry Erb Bria ian Fr n Frede denbe berg Wi Wima mansha Wijeko koon Mechatronic Mechatronic Mechatronic Mechatronic Mechatronic CSU Agriculture Research Institute Sponsor Dr. Ramesh Varahamurti Advisor

  3. 3 The P e Problem 1) Crop yields are negatively impacted through inefficient watering 2) Leads to irregularities in crop growth and financial losses $

  4. 4 The N e Need ed LOWER COST GROW WELL SAVE WATER FIELD MAINTENANCE WATERED CROPS EASILY

  5. 5 Specif Sp ificatio ions Must Do Should Do Maximum altitude of 400 feet Flight time of 12.5 minutes Transmit data to base station wirelessly Transmit distance greater than 1 mile Automatically enable sprinklers based on Flight path and photo locations determined chlorophyll levels by GPS waypoints Photograph to sprinkler response time under 2 minutes

  6. 6 Design gn S Solution on 01 02 03 04 System Setup Data Acquisition Data Processing Watering

  7. 7 Sy System S Setup Mission Planner Flight Path Setup DAFAPP – Setup Screen

  8. 8 Data A a Acquisition & Filter ering NDVI Image Grayscale Image

  9. 9 Data P Proce cessing Zone Mapping Graphical Representation

  10. 10 Water ering Proof of Concept OpenSprinkler

  11. 11 Fabrication on & & Progr gram amming & & the he ho hours spe pent o on n each Fabrication Sprinkler Array • 6 Drone Modifications • Completely Standalone • 600 Programming Complete GUI • Image processing & analysis • Data transmission • Camera control • Drone automation •

  12. 12 Prog ogrammin ing Major d dev evelopmen ent C 1700 LINES OF CODE 300 LINES OF CODE 1400 LINES OF CODE

  13. 13 Prog ogrammin ing Ups ps & D Downs ns  ImageJ Automation issues o  MatLab Smart design choice o Very efficient code o  Camera Control Nonexistent o

  14. 14 Te Testing Qua uantitativ ive S Spe pecif ific icatio ions Test Procedures Target Values Tested Values Altitude Test No higher than 400 feet Passed Data Transfer Range 1 Mile 1.1 Miles Flight Time At least 12.5 minutes 6.34 Minutes Response Time Under 2 minutes 1:55 (m:ss)

  15. 15 Budget get $2706.60 $27,000 DAFIR Engineering Labor DAFM Engineering Labor DAFM Purchased Parts $2150 DAFIR Software Base Station DAFIR Purchased Parts $1142.28 $107,384.70 Contingency $1019.07 $980.93 DAFIR – Drone Assisted Field Irrigation Remediation (Phase 2 – Current) DAFM – Drone Assisted Field Mapping (Phase 1)

  16. 16 Budget get RUNNING Total Project Costs: $142,383.58 TOTAL DONATED $139,676.98 DAFM Purchased Parts $2,706.60 DARM Engineering Labor $27,000.00 $112,676.98 DAFIR Engineering Labor $107,384.70 $5,292.28 $3,142.28 DAFIR Software $2,150.00 Base Station $1,142.28 $2,000.00 SPONSOR FUNDS $2,000.00 DAFIR Purchase Parts $1,0199.07 $980.93 Contingency $980.93 $0.00

  17. 17 Reflec ection on & & Summary Ups ps & D Downs ns What d did w we do w wrong? What d did w we do r right? • Automation of third part software • Met our design requirements • Too many programming • Came in under budget languages

  18. 18 Spec ecifi ficati tions ns – Must Do t Do Quantitative Qualitative Maximum altitude of 400 ft. Wirelessly transmit data Have base station Turn on specific sprinklers automatically base on chlorophyll levels

  19. 19 Spec ecifi ficati tions ns – Should D Do Quantitative Qualitative Flight path and photo locations Flight time of 12.5 min. Determined by GPS waypoints Have a friend Graphical User Transmit distance of 1 mile Interface (GUI) Photograph to sprinkler Be as off the shelf as possible Response time of 2 min

  20. 20 Spec ecifi ficati tions ns – Woul uld Be Be Ni Nice ce Quantitative Qualitative Data logging Green comparative watering time duration Autonomous sequence start from base station Graphical representation of data

  21. 21 Future P e Proo oof Advanced Programming 01 Thermal Imaging 02 Complete Automation 03

  22. 22 Conclusion on Tha hank nk y you u for your t time Data Watering Acquisition Initialization Data Processing

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