W w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION Overview of Activities at the Australian Research Centre for Aerospace Automation.

Slides:



Advertisements
Similar presentations
BY S V SATISH GM (AIR TRAFFIC MANAGEMENT) AIRPORTS AUTHORITY OF INDIA.
Advertisements

Casa RPAS regulatory Development
Airpower: the Industry Vision
Development of Guidance and Control System for Parafoil-Payload System VVR Subbarao, Sc ‘C’ Flight Mechanics & Control Engineering ADE.
Activities on GNSS Implementation in Korea APEC GIT/15 Meeting June 13~17, 2011 June 13~17, 2011 Brisbane, Australia The 15th Meeting of the APEC GNSS.
Ames Research Center 1October 2006 Aviation Software Systems Workshop FACET: Future Air Traffic Management Concepts Evaluation Tool Aviation Software Systems.
Federal Aviation Administration Next Generation Air Transportation System (NextGen) Briefing to COMSTAC Kelvin Coleman May 16, 2008.
MASKS © 2004 Invitation to 3D vision Lecture 11 Vision-based Landing of an Unmanned Air Vehicle.
AT 209 Introduction to Civil Unmanned Aerial Systems (UAS)
International Civil Aviation Organization Block Upgrades Next Steps & AN-Conf/12 Alexander Korsakov Air Navigation Commissioner International Civil Aviation.
Matt McKeever Jonathan Baker UAV Design Team 11/16/2006
Mr. Hooper Harris FAA/JAA Annual Meeting Phoenix, AZ June 3 - 7, 2002
Automatic Control & Systems Engineering Autonomous Systems Research Mini-UAV for Urban Environments Autonomous Control of Multi-UAV Platforms Future uninhabited.
6th Framework Programme Thematic Priority Aeronautics and Space.
Sense & Avoid for UAV Systems
Image Processing of Video on Unmanned Aircraft Video processing on-board Unmanned Aircraft Aims to develop image acquisition, processing and transmission.
1 AE - Control and Simulation – Micro Air Vehicle laboratory Flying Robots : the MAV-lab - Delfly: 3g, 10 cm, camera - Guinness book of records - Autonomous.
August, School of Aeronautics & Astronautics Engineering Optical Navigation Systems Takayuki Hoshizaki Prof. Dominick Andrisani.
Navigation Systems for Lunar Landing Ian J. Gravseth Ball Aerospace and Technologies Corp. March 5 th, 2007 Ian J. Gravseth Ball Aerospace and Technologies.
POLI di MI tecnicolano VISION-AUGMENTED INERTIAL NAVIGATION BY SENSOR FUSION FOR AN AUTONOMOUS ROTORCRAFT VEHICLE C.L. Bottasso, D. Leonello Politecnico.
What SMS means for an Operator’s relationship with the CAA
Data Processing Equipment
Presented to: MPAR Working Group By: William Benner, Weather Processors Team Manager (AJP-1820), FAA Technical Center Date: 19 March 2007 Federal Aviation.
Federal Aviation Administration General Aviation’s Technology Transition Presented to: SETP Flight Test Workshop By: FAA Small Airplane Directorate Lowell.
Aerospace Engineering By Patrick Ferrell. Aerospace Engineering is the main branch of engineering concerned with the research, design, development, construction,
Aeronautics & Astronautics Autonomous Flight Systems Laboratory All slides and material copyright of University of Washington Autonomous Flight Systems.
Jason Li Jeremy Fowers Ground Target Following for Unmanned Aerial Vehicles.
1 DTSI / Interactive Robotics Unit IST Advanced Robotics µdrones µDRone autOnomous Navigation for Environment Sensing JM ALEXANDRE CEA List.
Unmanned aerial systems, what they are and what is available? Professor Sandor M Veres University of Sheffield.
AGCC CGSIC ISC Feb US DEPARTMENT OF TRANSPORTATION CIVIL GPS SERVICE INTERFACE COMMITTEE INTERNATIONAL SUB COMMITTEE MEETING Melbourne, Australia,
Genesis UAV Challenge Presented by Simon Butterworth Aerospace Operational Support Group RAAF.
Autonomous Surface Navigation Platform Michael Baxter Angel Berrocal Brandon Groff.
Development of a Mini-UAV for Urban Environments Tony Dodd and Beniamin Apopei.
This action is co-financed by the European Union from the European Regional Development Fund The contents of this poster are the sole responsibility of.
Project Partners AUVSI North America 10 th - 14 th August 2009 Mr Reece Clothier Prof. Rodney Walker The Smart Skies Project.
1.  The Autonomous Helicopter Navigation System 2010 is focused on developing a helicopter system capable of autonomous control, navigation and localising.
Computational Mechanics and Robotics The University of New South Wales
Massachusetts Institute of Technology 4 April 2003
Adopting a Whole-of-Nation Approach to a Sustainable, Multi-GNSS Enabled National Positioning Infrastructure John Dawson and Gary Johnston.
Designing Smart Cities: Opportunities and Regulatory Challenges CREATe Conference University of Strathclyde, Glasgow, 31 March – 1 April 2015 The Emergence.
USDOT, RITA RITA: Oversight of USDOT’s R&D programs  University Transportation Centers $100M  UTC Consortia $80M  UTC Multimodal R&D $40M  Intelligent.
Vision-based Landing of an Unmanned Air Vehicle
Symbiotic Simulation of Unmanned Aircraft Systems (UAS)
I n t e g r i t y - S e r v i c e - E x c e l l e n c e 1 GPS Operations Past, Present, Future Colonel John E. Hyten Commander, 50th Space Wing 29 Mar.
Performance Based Navigation (PBN) Canadian Implementation Presentation to Air Transport Association of Canada 9 November 2010.
Jake Forsberg An environment for research and automation system development.
5/9/02 1 Spaceport Vision Team Members Organizations that contributed: Federal Government DoD DoC DoT NASA State Government NCSS Industry University Detailed.
What Is Multilateration Triangulation System Uses Aircraft Transponder Multiple Ground Receivers Central Computer Calculates & Displays Aircraft Position.
10/19/2005 ACGSC Fall Meeting, Hilton Head SC Copyright Nascent Technology Corporation © 2005 James D. Paduano 1 NTC ACTIVITIES 2005 Outline 1)Activities.
03/11/021 Spaceport Vision Team Members. 03/11/022 Systems Definition Spaceport System Spaceport Stakeholder Needs High-Level Trade Study Performance.
1 Airport mobiles surveillance and control by means of EGNOS METIS Workshop Benefits of EGNOS in Civil Aviation Istanbul 18 November 2009 Pierre GRUYER.
NASA Use Cases for the Earth Observation Sensor Web Karen Moe NASA Earth Science Technology Office WGISS-26 Boulder,
UAV See & Avoid Employing Vision Sensors
1 Structure of Aalborg University Welcome to Aalborg University.
A Summary of Drone Applications Yen-Yu Chen 2016/02/12.
03/20/021 Spaceport Vision Team Members Organizations that contributed: Air Force NASA NCSS FAA Industry University Etc.
Flight Operations Research Centre of Excellence Dr. Hazel Courteney Head of Research & Strategic Analysis.
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?
High Fidelity Simulation as a Route to Certification Autonomous Systems: Legal / Regulatory Aspects and V&V Workshop 22 nd February 2016 Dr. M. Jump.
© 2012 Anwendungszentrum GmbH Oberpfaffenhofen Idea by: Dr. Eng. Mohamed Zayan | 1.
The value of Location Alan Smart – ACIL Allen Consulting 7 November 2013.
Vision Based Autonomous Control of a Quadcopter
Friends and Partners of Aviation Weather
Helping Agriculture One Flight at a Time
Drones and Autonomous Systems
FAA and JPDO ASAS Activities
2018 Roadmap for the Aerial Industrial Revolution
Aerospace Systems Integration Engineering Panel
© 2016 Global Market Insights, Inc. USA. All Rights Reserved Global AHRS Market Report to exceed $455 million by 2025.
Federal Aviation Administration General Aviation’s Technology Transition Presented to: SETP Flight Test Workshop By: FAA Small Airplane Directorate Lowell.
Presentation transcript:

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION Overview of Activities at the Australian Research Centre for Aerospace Automation (ARCAA), Queensland University of Technology Troy Bruggemann A/Prof Rod Walker

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION Outline ARCAA Background Current Research Research Samples (Vision and GNSS)

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION What is ARCAA? A successful QLD Government Smart State Research Facility Fund bid ($4M +) Joint venture: CSIRO ICT Centre and QUT Airborne Avionics Research group Wide-spread support of industry and government (DSTO, DITR, BAL, Boeing PW, SMEs) Initial focus on Civil Unmanned Air Vehicle (UAV) research for high-autonomy applications

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION Research Research to remove impediments facing the routine use of UAVs for civilian applications –Focus on safety (vision, GNSS) –Reliability –Certification by regulators –Reduced operator requirements –Robustness (GNSS) –Reduced cost (increased automation) –Public acceptance (societal issues)

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION ARCAA Facilities A dedicated research, development and commercialisation facility Space for ~40 researchers, developers World class simulation and testing facilities to be developed Fostering international collaboration

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION Who we are? CRC for Satellite Systems 18 PhD students in undergraduate Avionics students/year 5 full-time CSIRO staff 8 full-time QUT staff

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION ARCAA Workshop Major Sponsor IEEE AESS 100+ delegates Workshop to drive ARCAA research programs

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION ARCAA Workshop

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION Workshop Outcomes Flight Systems & Safety –Reliable low cost systems (GNSS) –Safety of Autonomous Aircraft ‘Virtual safety bubble’ See-N-Avoid Advanced FTS (Forced Landing) –Future air traffic management technologies (pFMS) –Increased onboard autonomy –Intuitive Operator interfaces (Drag-N-Fly) OPPORTUNITIES Civ. Applications –Infrastructure Powerlines Pipelines Buildings Towers / Bridges –Environmental Bushfires Farms / Land Rivers / Reef –Search and support –Surveillance Political, Social & Regulatory –Insurance –Regulations – next generation ‘101’ –UAV Risk management –Certification standards and industry ‘best practice framework –Community acceptance –UAV training KEY IMPEDIMENTS

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION Current QUT Research Areas advanced collision avoidance systems intelligent mission planning flight termination systems vision-based navigation and GNSS attitude determination systems onboard flight performance analysis and adaptive control investigation into UAV risk identification and certification airborne Ground-based Regional Augmentation System (GRAS) receiver

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION QUT Research Sampler #1 Vision-Based method of estimating Pitch and Roll Real-Time implementation on standard computers Developed for wide range of cameras Provides a level of virtual redundancy

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION QUT Research Sampler #2 UAV Collision Avoidance –Current FAA regulations require UAVs to be provided with… “a method that provides an equivalent level of safety, comparable to the see-and-avoid requirements of manned aircraft” [U.S. FAA Order Chapter 12, Section 9] –Can computer vision be used to provide a reliable, cost- effective see and avoid capability?

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION QUT Research Sampler #2

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION QUT Research Sampler #2

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION QUT Research Sampler #3 UAV Forced Landing Research Human pilots trained for forced landings –Detect and evaluate slope, surface, shape, field surroundings, proximity to emergency services Why not UAVs?

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION QUT Research Sampler #4 GRAS Airborne Navigation Receiver Augmentation using Low Cost MEMS Inertial Sensors and aerodynamic modelling for General Aviation Aircraft This research is funded by the ARC, Airservices Australia and GPSat Systems Australia.

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION QUT Research Sampler #4 Require Signal-in-Space of GRAS and GPS –Coverage limited by line-of-sight and modulation scheme –What areas are out of coverage at altitudes where GA are operating? Cannot account for local effects –Un-modelled atmospheric effects (eg. scintillation) –Multi-path, receiver errors, equipment failures

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION QUT Research Sampler #4 Development of a framework and architecture for high integrity navigation for G.A aircraft using –GRAS technology –MEMS technology Evaluate the benefits and remaining challenges of using low-cost MEMS inertial devices for approach navigation in G.A.

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION QUT Research Sampler #4 Research new strategies for aerodynamic modelling to improve GPS integrity monitoring for general aviation

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION QUT Research Sampler #5 Single Antenna GPS Attitude Algorithm for non-uniform Antenna Gain Pattern New algorithm RMS error = 13.8 deg. Previous algorithms: Duncan rms error = 21.5 deg Axelrad rms error = 16.4 deg

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION QUT Research Sampler #6 Fixed Wing UAV Navigation and Control through Integrated GNSS and Vision (GVSS)

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION QUT Research Sampler #6 Optic Flow Method Image flow generated from image stream –Gradient based method being utilised

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION QUT Research Sampler #6 Optic Flow Method –Looking at characteristics of gradient based optic flow and the possibility of utilizing other methods –Feature tracking approach for sparse velocity measurements Sensor Architecture

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION Abnormal Flight - Stall Results

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION GVSS Controlled Flight Mean [deg]Std. [deg] Roll Pitc h Yaw

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION QUT Research Sampler #6 The GVSS shows potential in the confines of the simulation environment –Sub-degree Euler angle accuracy –Capable of being used to drive the control loop –Flight path information –Flight control information –Collision avoidance information Conclusion

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION QUT Research Sampler #6 Tightly Coupled GNSS / Vision Information for Improved Fault Tolerant UAV Flight Control GNSS / Vision using Multiple Image Sources Conclusion

w w w. a r c a a. a e r o AUSTRALIAN RESEARCH CENTRE FOR AEROSPACE AUTOMATION Conclusions ARCAA welcomes collaboration Opportunity for further GNSS research at ARCAA Thankyou!