COE CST First Annual Technical Meeting: Autonomous Rendezvous & Docking Penina Axelrad. Federal Aviation. Administration.

Similar documents
End-to-End Simulation and Verification of Rendezvous and Docking/Berthing Systems using Robotics

The TEXAS Satellite Design Laboratory: An Overview of Our Current Projects FASTRAC, BEVO-2, & ARMADILLO

Office of Chief Technologist - Space Technology Program Dr. Prasun Desai Office of the Chief Technologist May 1, 2012

Range Commanders Council 2015

Airbus Autonomy Roadmap

Commercializing Federal R&D: Secrets to Startup Success

Design for Removal. Executive Summary Report

KPI is one of the oldest and biggest technical universities in Ukraine. It was founded in 1898.

Joint Collaborative Project. between. China Academy of Aerospace Aerodynamics (China) and University of Southampton (UK)

Exploration Systems Research & Technology

for future RPAS Ground Control Station

Distribution Statement A (Approved for Public Release, Distribution Unlimited)

Flight Control Laboratory

A Reconfigurable Guidance System

International Perspectives on Rendezvous and Proximity Operations in Space and Space Sustainability

Modeling and Simulation Made Easy with Simulink Carlos Osorio Principal Application Engineer MathWorks Natick, MA

Proximity Operations Nano-Satellite Flight Demonstration (PONSFD) Overview

Space Debris Related Activities -Japanese Case-

Agenda Item No. C-29 AGENDA ITEM BRIEFING. Vice Chancellor and Dean of Engineering Director, Texas A&M Engineering Experiment Station

On- orbit Satellite Servicing Status and Strategy of Japan

Bayesian Filter to accurately track airport moving objects

Design of a Remote-Cockpit for small Aerospace Vehicles

LOCALIZATION WITH GPS UNAVAILABLE

Automation & Robotics (A&R) for Space Applications in the German Space Program

CPE/CSC 580: Intelligent Agents

China Manned Space Flight Program

ROBOSUB. Isaac Peral y Caballero. Future Vehicles. Entrepreneurs

ESA PREPARATION FOR HUMAN LUNAR EXPLORATION. Scott Hovland European Space Agency, HME-HFH, ESTEC,

ACAS Xu UAS Detect and Avoid Solution

AN INTEGRATED FUTURE. Steve Hewitson - 8 July 2014

Executive Summary. Chapter 1. Overview of Control

Unmanned Ground Military and Construction Systems Technology Gaps Exploration

Table of Contents. Page # Title Name Department Arctic Research Team John Hedengren Multiple. C-UAS Center for Unmanned Aircraft Systems 12-20

Constellation Systems Division

Jager UAVs to Locate GPS Interference

Space Challenges Preparing the next generation of explorers. The Program

Resilient and Accurate Autonomous Vehicle Navigation via Signals of Opportunity

Space Situational Awareness 2015: GPS Applications in Space

Interoperability for Critical Situations

ARL Fall 2017 Meetings

The Hybrid Space Program: A Commercial Strategy for NASA s Constellation Program

CubeSat Integration into the Space Situational Awareness Architecture

New Methods for Architecture Selection and Conceptual Design:

The Active Flutter Suppression (AFS) Technology Evaluation Project

Figure 1. Proposed Mission Operations Functions. Key Performance Parameters Success criteria of an amateur communicator on board of Moon-exploration

COS Lecture 1 Autonomous Robot Navigation

Flight Control: Challenges and Opportunities

SpaceDataHighway. Commercial Data Relay Service and its Evolution

Experimental Study of Autonomous Target Pursuit with a Micro Fixed Wing Aircraft

The PROBA Missions Design Capabilities for Autonomous Guidance, Navigation and Control. Jean de Lafontaine President

Clean Space. A new cross-cutting initiative of ESA. The Clean Space Team 15/04/2013. ESA UNCLASSIFIED For Official Use

Integrated Technology Concept for Robotic On-Orbit Servicing Systems

Tropnet: The First Large Small-Satellite Mission

Barron Associates, Inc. Current Research

National Aeronautics and Space Administration

Multisensory Based Manipulation Architecture

Walking and Flying Robots for Challenging Environments

Autonomous and Autonomic Systems: With Applications to NASA Intelligent Spacecraft Operations and Exploration Systems

CanX-2 and NTS Canada's Smallest Operational Satellites

Analysis of European Architectures for Space Exploration

Formation Flying Slide 2 ION Alberta Chapter > Calgary > 20 Dec 2012

Canadian Activities in Intelligent Robotic Systems - An Overview

FAA Research and Development Efforts in SHM

IEEE IoT Vertical and Topical Summit - Anchorage September 18th-20th, 2017 Anchorage, Alaska. Call for Participation and Proposals

Status of Active Debris Removal (ADR) developments at the Swiss Space Center

Credible Autocoding for Verification of Autonomous Systems. Juan-Pablo Afman Graduate Researcher Georgia Institute of Technology

Pterodactyl: Integrated Control Design for Precision Targeting of Deployable Entry Vehicles

Cover. DLR-ESA Workshop on ARTES-11. SGEO: Implementation of of Artes-11. Dr. Andreas Winkler

estec PROSPECT Project Objectives & Requirements Document

VBS - The Optical Rendezvous and Docking Sensor for PRISMA

GPS Field Experiment for Balloon-based Operation Vehicle

Stanford Center for AI Safety

Autonomy Test & Evaluation Verification & Validation (ATEVV) Challenge Area

ATI Horizon (AM) Programme helping to build the future Additively

Model Based AOCS Design and Automatic Flight Code Generation: Experience and Future Development

Focus Session on Commercial Crew

Keeping the universe connected. NASA Update: GNSS Space Service Volume Providers Forum

2015 Phoenix Integration, Inc. All Rights Reserved. Proprietary and Confidential. phoenix-int.com

Asteroid Redirect Mission and Human Exploration. William H. Gerstenmaier NASA Associate Administrator for Human Exploration and Operations

Assessment of Smart Machines and Manufacturing Competence Centre (SMACC) Scientific Advisory Board Site Visit April 2018.

The Army s Future Tactical UAS Technology Demonstrator Program

NASA s Exploration Plans and The Lunar Architecture

HEOMD Update NRC Aeronautics and Space Engineering Board Oct. 16, 2014

Space Debris Mitigation Status of China s Launch Vehicle

GENEVA COMMITTEE ON DEVELOPMENT AND INTELLECTUAL PROPERTY (CDIP) Fifth Session Geneva, April 26 to 30, 2010

Download report from:

Unmanned Air Systems. Naval Unmanned Combat. Precision Navigation for Critical Operations. DEFENSE Precision Navigation

EE631 Cooperating Autonomous Mobile Robots. Lecture 1: Introduction. Prof. Yi Guo ECE Department

AFRL-VA-WP-TP

NRC s Role in the Future of Aerospace in Canada

Space Architecture MARYLAND U N I V E R S I T Y O F. Space Architecture. ENAE 483/788D - Principles of Space Systems Design

Advances in Industrial Automation Leveraging ROS-Industrial and Open Source Tools. Matthew M. Robinson Southwest Research Institute

Unmanned on-orbit servicing (OOS), ROKVISS and the TECSAS mission

Orbicraft Pro Complete CubeSat kit based on Raspberry-Pi

The Global Exploration Roadmap International Space Exploration Coordination Group (ISECG)

Committee on Development and Intellectual Property (CDIP)

MOBILITY RESEARCH NEEDS FROM THE GOVERNMENT PERSPECTIVE

Comparing Different Functional Allocations in Automated Air Traffic Control Design

DMTC Guideline - Technology Readiness Levels

Lecture: Allows operation in enviroment without prior knowledge

Transcription:

Administration COE CST First Annual Technical Meeting: Autonomous Rendezvous & Docking Penina Axelrad November 10, 2011 Administration 1

Overview Team Members Purpose of Task Research Methodology Results or Schedule & Milestones Next Steps Contact Information Administration 2

AR&D Team CU Basis for requirements, standards and methods Florida State Approach trajectories Stanford Target pose and shape sensing U of Florida Post capture operations Identifying and addressing key technology gaps Administration 3

Team Members Current Penina Axelrad, CU Holly Borowski, PhD Student, CU, Aerospace Engineering Sciences (Summer 2011) + Planned Draper Lab, Ball Aerospace, LMCO Stanford (Todd Walter) IIT (Boris Pervan) Administration 4

Purpose of Task Purpose Develop a framework to enable licensing of multiple vendor vehicle systems that will make LEO orbital rendezvous and docking a routine and safe activity. Objectives Define requirements and identify critical safety and technological issues for each phase of AR&D timeline; identify technology gaps and viable system alternatives Goals Construct a draft basis for standards for AR&D of vehicles in LEO encompassing approach trajectories, sensing, estimation, guidance and control, human interaction, and reliability. Administration 5

Research Methodology First year is a small-scale ($17K) effort to construct a roadmap for the overall project Review relevant aspects of the state-of-the-art in LEO rendezvous and docking, UAV formation flying and mid-air refueling, aircraft landing Establish AR&D mission phases and classes of requirements and risks for each Identify critical systems, technologies, and concepts required Organize and plan research tasks that will lead to comprehensive basis for standards at the end of 5 years Administration 6

Roadmap for Commercial LEO AR&D Identify stages, requirements & risks for commercial LEO AR&D Evaluate the maturity of key technologies Develop requirements flow down (technology pull) Look at promising technologies that can enhance performance, safety, robustness, reliability (technology push) Identify connections to other FAA activities including aircraft collision avoidance, UAV flight rules, mid-air refueling, and space situational awareness Draft plan for bringing the pieces together over a 5 year period to form the basis for standards development Administration 7

AR&D Phases & Technologies AR&D Phases Phasing (>5 km) Homing Closing (few km to 250m) Final approach (<250m) Docking (vehicle dimension) AR&D Technologies Sensors and algorithms Guidance and control algorithms and actuators Software real-time onboard mission manager and flight software Docking/capture systems Administration 8

Commercial, LEO AR&D considerations Manned or unmanned Automated or autonomous Target geometry known or unknown Target cooperative or non-cooperative Target attitude controlled or uncontrolled Number of vehicles - two or more Duration long (multi-orbit) or short Administration 9

Results or Schedule/Milestones Initial literature search completed, summary of existing AR&D approaches compiled. Key mission phases defined and relevant technology elements and some risks for each identified. Met with potential industrial collaborators from Ball Aerospace who provided information on sensor development and experiments. Administration 10

Next Steps Coordinate with COE partners Meet with other industrial potential partners Develop draft roadmap and proposal for 3 year project Administration 11

Contact Information Penny Axelrad penina.axelrad@colorado.edu 303.492.6872 Administration 12