Design Review #2-Spring ‘13 Team 6: Autonomous Ariel Vehicle AUVSI 2013 Student Unmanned Air Systems Competition Ken Anderson, Arielle Duen, Eric Milo,

Slides:



Advertisements
Similar presentations
DSSI UAV Unmanned Aerial Vehicle Research & Development Project.
Advertisements

Company Presentation.
Learning with Purpose Control Design and Implementation of a Small-Scale Autonomous Hovercraft Ryan Mackay Joshua Bevan Nicholas Lutz Mario Stamatiou University.
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.
Team Shane Stumvoll, Alex Willard, Robert Yarnell, Hubert Jayakumar, Tim Teal 1.
Design Presentation Spring 2009 Andrew Erdman Chris Sande Taoran Li.
Concept Design Review AUVSI 2013 Student Unmanned Air Systems Competition Team 6: Autonomous Ariel Vehicle Robert Woodruff Matthew Yasensky Cristopher.
Team 6: Autonomous Aerial Vehicle Team Members Department of Mechanical Engineering: Ken Anderson, Arielle Duen, Eric Milo, Ernandes Nascimento and Matthew.
Vertical Launch UAV Project Plan. ∞ Construct an unmanned aerial vehicle (UAV) with a camera payload ∞ UAV must autonomously navigate with real-time video.
Autonomous Aerial Vehicle Midterm Presentation I Team Six Greg Buker Steven Cutchins Jennifer Gavin Stephen Kwon Ernandes Nascimento Mark Parish Jason.
Presenter- Dan Carey August 11 and 12, 2009.
A.G.I.L.E Team Members: Brad Ramsey Derek Rodriguez Dane Wielgopolan Project Managers: Dr. Joel Schipper Dr. James Irwin Autonomously Guided Intelligent.
PDR – GPS Rover Travis Gruber Matthew Kennedy Marcin Skirucha Phill Treddenick.
GPSBot 08- “Rikki” An Introduction. Agenda The Team Motivation Objectives Enabling Processes Sub-Systems Time-Line Budget Obstacles Continuation Applications.
Automatic Control & Systems Engineering Autonomous Systems Research Mini-UAV for Urban Environments Autonomous Control of Multi-UAV Platforms Future uninhabited.
Project Review Micro Air Vehicle Project: P Sponsored by Impact Technologies The Boeing Company Mark Baybutt Electrical Engineering David.
AEM 5333 Search and Surveillance. Mission Description Overhead surveillance and tracking Humans on foot Moving vehicles Onboard GPS transceiver Onboard.
Justin DeStories Aircraft Design. Objective/Requirements  The UAV team at Arizona State University is designing, optimizing, and building an autonomous.
April 26, Team Information Designation Ongo-03 Members Advisors Dr. J. Lamont, Prof. R. Patterson, Dr. Rajagopalan, Dr. J. Basart ClientSpace Systems.
Jason Li Jeremy Fowers Ground Target Following for Unmanned Aerial Vehicles.
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.
Unmanned aerial systems, what they are and what is available? Professor Sandor M Veres University of Sheffield.
Integrated Avionics Systems
Development of a Fully Autonomous Micro Aerial Vehicle for Ground Traffic Surveillance Aerospace Systems, University of Braunschweig.
Autonomous Surface Navigation Platform Michael Baxter Angel Berrocal Brandon Groff.
Is Providing More Technology for C4ISR & Security a Good Idea? Bob Chamberlain President Monterey Technologies, Inc. (831)
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.
Computational Mechanics and Robotics The University of New South Wales
ES100 Engineering Design Project Micro Air Vehicle
Interim Review #1 David Akerman, Jen Getz, Greg Goldberg, Zach Hazen, Jason Patterson, Benjamin Reese December 4, 2006 PRV (Peregrine Return Vehicle)
AEM 5333 UAV Search and Surveillance. Mission Description Overhead surveillance and tracking – Humans on foot – Moving vehicles Onboard GPS transceiver.
MAE 435 Project Design and Management II 19 October,
ES100 Engineering Design Project Micro Air Vehicle Group 1 Professor Kung.
Hardware Overview Autopilot Control Board- Serves as common platform for other components and has autopilot code and flight plans Battery- Powers the.
Student Unmanned Aerial System FAMU/FSU College of Engineering Mechanical Engineering Department (1) Electrical and Computer Engineering Department (2)
Autonomous Air & Ground Surveillance Unit Objectives, Preliminary Specifications, and Option Analysis.
Phong Le (EE) Josh Haley (CPE) Brandon Reeves (EE) Jerard Jose (EE)
Intelligent Ground Vehicle Competition Navigation Michael Lebson - James McLane - Image Processing Hamad Al Salem.
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.
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.
 PROFESSOR: CHARLES KUNG  GROUP MEMBERS: AKRAM GERIES, JEEVEN HUGH, MICHAEL LADAS, BRAD LONG.
1. 2 Content: ► 1pc Magnus Fusion Aircraft Vantage ► 1pc - Notebook based workstation for camera control and video display and storage ► 1pc - Peripherals.
1 SOARS Matt Edwards Arseny Dolgov John Shelton Johnny Jannetto Galina Dvorkina Nick Driver Eric Kohut Kevin Eberhart Self Organizing Aerial Reconnaissance.
1 Center for the Collaborative Control of Unmanned Vehicles (C3UV) UC Berkeley Karl Hedrick, Raja Sengupta.
Ted Hench Electronics. Our goals  Meet minimum contest guidelines with ability to expand  Stay within budget Balance the capability of our team with.
Abstract Each July, the Association for Unmanned Vehicle Systems International holds an annual International Aerial Robotics Competition (IARC), with major.
Interim Design Review AUVSI 2013 Student Unmanned Air Systems Competition Team 6: Autonomous Ariel Vehicle Robert Woodruff Matthew Yasensky Cristopher.
Mid Semester 2 Presentation: February 27, Joshua Lasseigne: Team Lead and Autopilot Programming Christopher Edwards: AGL Subsystem and Website Maintenance.
Mini Autonomous Flying Vehicle CASDE is part of the National effort to develop a Micro Air Vehicle. CASDE has chosen a Mini Vehicle, in the short term,
By: Stuti Vyas( ) Drashti Sheth( ) Jay Vala( ) Internal Guide Mr. J. N. Patel.
End of Semester 1 Presentation: November 28, 2007.
Presented by Robert Clark Instrument Technician
P07122: Autonomous Quadcopter Jason Enslin – EE: Team Leader, Circuit Design/Testing Glenn Kitchell – CE: Programming, Software Design Richard Nichols.
Cloud Cap Technologies
Micro-CART SDongo3b Secondary Vehicle Team
Aryal, Johnson, Labrado, Witte, Zhang
R09560 – Open Architecture, Open Source Aerial Imaging Systems
PAX River Competition UK Aerial Robotics Team University of Kentucky.
UAV Vision Landing Motivation Data Gathered Research Plan Background
Critical Design Review
Lockheed Martin Challenge
Arizona State University Autonomous UAV Project
Joe Trefilek Jeff Kubascik Paul Scheffler Matt Rockey
EET2530 Unmanned Aerial Vehicles (UAVs)
ECE 477 Final Presentation Team 10  Spring 2008
Presentation transcript:

Design Review #2-Spring ‘13 Team 6: Autonomous Ariel Vehicle AUVSI 2013 Student Unmanned Air Systems Competition Ken Anderson, Arielle Duen, Eric Milo, Ernandes Nascimento, Cristopher Timmons, Robert Woodruff & Matthew Yasensky

Today’s Topics Brief Overview of Project/Competition Flight Progress Imaging Processing Update Camera/Gimbal System Update Autopilot and Navigation Update Schedule/Budget Summary 2 Presented By: Ken Anderson

3 Project/Competition Overview AUVSI-Competition Project Association for Unmanned Vehicle Systems International Search and Rescue Natural Disaster Scenario I.S.R. Intelligence Surveillance Reconnaissance Presented By: Ken Anderson

Competition Objectives 4 Waypoint Navigation Coordinate Change Autonomous Takeoff and Landing Autonomous Area Search for Ground Targets Image Recognition of Ground Targets Safety Precautions Presented By: Ken Anderson

Plane updates 5 Additional electronics added: Camera/Gimbal Mounted 2 servos = 2 DOF Presented By: Eric Milo Video Transmitter mounted Battery pack installed

Hardware Installed and Functional 6 Sony KPC Camera Gimbal System Autopilot System - 3-Axis Gyroscope - 3-Axis Magnetometer Ublox GPS Telemetry Transmitter Radio Receiver Video Transmitter Electronics Power Supply Magnum XL Engine Pitot Probe

7 Fuel Tank Spare Bladder Engine Pressure Line Fuel Line Fuel Tank Engine Pressure Line Fuel Line Current Fuel Setup: Future Fuel Setup: Presented By: Eric Milo Extending our flight time

Image Processing Update Hardware Implemented system hardware on air vehicle Implemented composite-to-USB encoder First successful wireless video communication Software Utilization of new hardware with existing software Presented By: Robert Woodruff 8

Image Processing Update In-flight Video Image Processing from in-flight video Presented By: Robert Woodruff 9

Image Processing – Future Work Hardware Video Interference Shield communication cables Pursue more efficient antennae Vibrations Better ground targets Software Real-time image processing Refine existing algorithms Presented By: Robert Woodruff 10

11

Gimbal System Update 12 Autopilot is able to control the servos The old system needed improvements Rolling degree of freedom compromised Old system was designed for a bigger camera Camera too close to the ground during landing/taking off Problem: system not working properly on flight Presented By: Ernandes Nascimento

13 Gimbal System Update Redesigning the System Better view clearance Less space required Easier assembly on the plane Better correction angle for rolling movements Less weight on the plane Less center of gravity dislocation Vibrations problem reduced Presented By: Matt Yasensky

Budget 14 Presented By: Arielle Duen

Schedule – Spring Semester 15 Presented By: Arielle Duen

Summary 16 Presented By: Arielle Duen Text

17 Questions?