Ted Hench Electronics. Our goals  Meet minimum contest guidelines with ability to expand  Stay within budget Balance the capability of our team with.

Slides:



Advertisements
Similar presentations
Company Presentation.
Advertisements

Ch-11 Project Execution and Termination. System Testing This involves two different phases with two different outputs First phase is system test planning.
MicroCART Micro processor C ontrolled A erial R obotics T eam Abstract MicroCART is a group of EE/CprE students tasked with developing an autonomous helicopter.
Design Presentation Spring 2009 Andrew Erdman Chris Sande Taoran Li.
Group Members: Shuohan Wan Dustin Douglas Kevin Oberg Advisors: Prof. Hammer Prof. Ernie.
Proposal Presentation EE 396 – Micromouse Spring 2008 Saturday, February 9, 2008 Donald Kim Lab - POST 214.
Reegan Worobec & David Sloan In collaboration with UAARG.
Smart Irrigation System Raihan Haque Brian Moy Puneet Karnawat Group 7 ME 3484 Polytechnic University April 24, 2003.
UHM CanSat Team Members: Chris Ho: Team master, software Tyson Fukuyama: Hardware.
Vehicle Tracking/Payload Release System For Small UAV Project Team
Introduction UAV is an Unmanned Aerial Vehicle Our goal is to setup two different plane configurations with Paparazzi autopilot and fly them autonomously.
Justin DeStories Aircraft Design. Objective/Requirements  The UAV team at Arizona State University is designing, optimizing, and building an autonomous.
UAV Helicopter Project 12-May-08 Presented by Mark Diel Whirled Air Incorporated Stanford University.
Smart Guard of Your Data Storage EXAGATE monitors, manages and warns for you.
Μ - CART Microprocessor – Controlled Aerial Robotics Team (Ongo03) An Ongoing Senior Design Project Department of Electrical and Computer Engineering Iowa.
Team Phoenix March 15, Project Goal Our team will develop an air vehicle that will not only navigate a course autonomously while providing real.
2nd International Hybrid Marine Propulsion Conference 12 November 2012 | Amsterdam RAI Media Partner.
2nd International Hybrid Marine Propulsion Conference 12 November 2012 | Amsterdam RAI Media Partner.
Cansat 2011 PDR (UYARI) 1 UYARI TEAM PRELIMINARY DESIGN REPORT.
Unmanned aerial systems, what they are and what is available? Professor Sandor M Veres University of Sheffield.
Introduction UAV is an Unmanned Aerial Vehicle Our goal is to setup two different plane configurations with Paparazzi autopilot and fly them autonomously.
How cheap and simple can a UAV be? Chris Anderson, Wired Magazine/DIY Drones.
1.  The Autonomous Helicopter Navigation System 2010 is focused on developing a helicopter system capable of autonomous control, navigation and localising.
David Gitz, EE, ICARUS Lead Engineer Senior Design.
Ted Hench Imaging. Objectives  Determine target locations to within 50 feet Targets are all unique, but similar Large area to search Limited time  How.
o Portable low-cost aerial drone that can be used for reconnaissance o Relay real-time video and data, like location, heading, battery life o Take high-resolution.
o Portable low-cost aerial drone that can be used for reconnaissance o Relay real-time video and data, like location, heading, battery life o Take high-resolution.
AEM 5333 UAV Search and Surveillance. Mission Description Overhead surveillance and tracking – Humans on foot – Moving vehicles Onboard GPS transceiver.
Hardware Overview Autopilot Control Board- Serves as common platform for other components and has autopilot code and flight plans Battery- Powers the.
Obstacle Avoidance using Machine Vision Joose Rautemaa
Introduction UAV is an Unmanned Aerial Vehicle Our goal is to setup two different plane configurations with Paparazzi autopilot and fly them autonomously.
Can - SAT Project. Agenda Project Description CanSat Objectives Project Objectives Project Rules –Mandatory –Optional History of CanSAT Design Goals Team.
2nd International Hybrid Marine Propulsion Conference 12 November 2012 | Amsterdam RAI Media Partner.
1. Where to use Multimedia ? 2  Business  Government  Education  Broadcasting & Entertainment  Research & Development  Health.
Hardware Overview Autopilot Control Board- Serves as common platform for other components and has autopilot code and flight plans Battery- Powers the board.
Personnel Nick BabcockAutonomous Systems Public Relations Kendrick Gibson Airship Technology Communications Jesse HuguetFlight Director Program Manager.
UK Aerial Robotics Team UK IDEA Laboratory Workforce Development: The UK Aerial Robotics Team and the PAX River Student UAV Competition Dale McClure (Matt.
ECE 477 Final Presentation Team 12  Spring 2013 Xirong Ye Zongyang Zhu Chun Ta Huang Libo Dong.
David Gitz, EE, ICARUS Lead Engineer.  Michael Welling  PhD Candidate  ICARUS Vehicle Engineer  Ben Wasson  Masters Student  ICARUS Business Manager.
Final Design Presentation AUVSI 2013 Student Unmanned Air Systems Competition Team 6: Autonomous Ariel Vehicle Robert Woodruff Matthew Yasensky Cristopher.
Tethered Glider - Base Station Group P16462 Sarah Collmus Laura Arciniegas Kevin Collins Aleksandr Kim Michael Ostaszewski Kevin Larkin Sukmin Lee Design.
X-Pilot: Autopilot Solutions C. Edwards, J. Lasseigne, W. Overstreet, B. Penland Project Description: The X-Pilot: Autopilot Solutions project is developing.
Flamewheel UAV EEL4665 Intelligent Machine Design Lab Fall 2012 Matt Thompson.
Team SHERPA May 8, Our Team Outline Project Selection Problem Challenges Project Outline Prototype Success! Future Additions Experience Acknowledgements.
General Meeting 25-Jan  12pm-12:30pm: Business Meeting Ben Wasson  12:30-2pm: Engineering Meeting/Progress David Gitz Agenda.
Laboratory 2 Group 19 The Group of Destiny. User Interface - Debugging Objectives:  Display: Sensor data (telemetry) – including IR sensors, status of.
Design Review #2-Spring ‘13 Team 6: Autonomous Ariel Vehicle AUVSI 2013 Student Unmanned Air Systems Competition Ken Anderson, Arielle Duen, Eric Milo,
Ground Control Station Flight conTrol
Final Semester 2 Presentation: April 24, Joshua Lasseigne: Team Lead and Autopilot Programming Christopher Edwards: AGL Subsystem and Website Maintenance.
Interim Design Review AUVSI 2013 Student Unmanned Air Systems Competition Team 6: Autonomous Ariel Vehicle Robert Woodruff Matthew Yasensky Cristopher.
Engineering Meeting 9 April 2011 David Gitz, EE FAST Robotics CEO, ICARUS Lead Engineer.
Mid Semester 2 Presentation: February 27, Joshua Lasseigne: Team Lead and Autopilot Programming Christopher Edwards: AGL Subsystem and Website Maintenance.
End of Semester 1 Presentation: November 28, 2007.
Introduction to Avionics Mac Mollison. What I Want to Talk About l What do we mean by “avionics”? l What is the focus of this course?
1 Virtual Vultures PROMISING PARTNERS IN CONSERVATION ON LAND AND AT SEA.
P07122: Autonomous Quadcopter Jason Enslin – EE: Team Leader, Circuit Design/Testing Glenn Kitchell – CE: Programming, Software Design Richard Nichols.
X-Pilot: Autopilot Solutions C. Edwards, J. Lasseigne, W. Overstreet, B. Penland X-pilot flight testing X-pilot groundstation demonstrating waypoint navigation.
P07122: Autonomous Quadcopter Jason Enslin – EE: Team Leader, Circuit Design/Testing Glenn Kitchell – CE: Programming, Software Design Richard Nichols.
P07122 – Autonomous Quadcopter Jason Enslin (EE – Team Leader) Courtney Walsh (ME – Aero) Richard Nichols (EE) Glenn Kitchell (CE) Jeff Welch (ME) Dr.
UC Consumer Report MULTIROTOR AND FIXED WING UAS.
FlySpy Patent Liabilities Analysis
Planetary Lander PDR Team Name
PAX River Competition UK Aerial Robotics Team University of Kentucky.
UAV Aerial Imagery & Autopilot Integration
Lockheed Martin Challenge
Control Award This award is given to the Team that demonstrates innovate thinking in the control system to solve game challenges such as autonomous operation,
ECE 477 Final Presentation Team 10  Spring 2008
By: Aurora Kiehl Scott Neuman Jeremie Snyder Dennis Vega Stephen Wess
Peregrine Jet UAV Team Members: Nabil Osorio, Christian Cambron, Anthony Messina Faculty Sponsor: Siddhartha Bhattacharyya Website: peregrinejetuav.com.
Presentation transcript:

Ted Hench Electronics

Our goals  Meet minimum contest guidelines with ability to expand  Stay within budget Balance the capability of our team with the capability of what we throw together

Contest Guidelines  At a minimum: Meet safety guidelines Flight waypoints autonomously Identify the location of objects on the ground  Additional goals: Takeoff and land autonomously Identify the location of objects on the ground in real time

Autopilot  Hardware and airborne software from the Paparazzi project Open source software and hardware plans Wide range of features ○ Complex flight plans ○ Extensive data reporting Expandable hardware ○ Including sensors for autonomous takeoff and landing Adequate safety features

Autopilot  Paparazzi fills a niche market and isn’t officially supported by anyone - documentation was a problem  I spent a lot of time: Reading available documentation Browsing code base and schematics Talking to developers and users

Talking to the Ground Station  Programs can communicate via the Ivy software Bus  Turned out to be as easy as described, and programming errors we make won’t crash the plane  More information is available than anticipated, including  GPS location  Plane attitude  Servo positions

Video Control  We control the camera servos from the ground Custom circuit and code Errors we make won’t crash the plane  Using information from the GCS we can calculate the location of objects we see Camera servo position Plane attitude GPS location Altitude

Acknowledgement  Thanks to Srikanth Saripalli ○ For any advice he provided Tom Sharp ○ For allowing us to start and focus on a new project April Zuber, and Jason and Justin DeStories ○ Just because…

Questions?