ISCW 2001 Tutorial. An Introduction to Augmented Reality

Similar documents
preface Motivation Figure 1. Reality-virtuality continuum (Milgram & Kishino, 1994) Mixed.Reality Augmented. Virtuality Real...

COLLABORATION WITH TANGIBLE AUGMENTED REALITY INTERFACES.

Job Description. Commitment: Must be available to work full-time hours, M-F for weeks beginning Summer of 2018.

Theory and Practice of Tangible User Interfaces Tuesday, Week 9

Augmented and mixed reality (AR & MR)

Augmented Reality Lecture notes 01 1

Immersive Authoring of Tangible Augmented Reality Applications

Immersive Training. David Lafferty President of Scientific Technical Services And ARC Associate

AUGMENTED REALITY: PRINCIPLES AND PRACTICE (USABILITY) BY DIETER SCHMALSTIEG, TOBIAS HOLLERER

Mission Space. Value-based use of augmented reality in support of critical contextual environments

Occlusion based Interaction Methods for Tangible Augmented Reality Environments

Tangible Augmented Reality

EMPOWERING THE CONNECTED FIELD FORCE WORKER WITH ADVANCED ANALYTICS MATTHEW SHORT ACCENTURE LABS

MIRACLE: Mixed Reality Applications for City-based Leisure and Experience. Mark Billinghurst HIT Lab NZ October 2009

A Survey of Mobile Augmentation for Mobile Augmented Reality System

Augmented Reality. Virtuelle Realität Wintersemester 2007/08. Overview. Part 14:

Short Course on Computational Illumination

Future Directions for Augmented Reality. Mark Billinghurst

An augmented-reality (AR) interface dynamically

New interface approaches for telemedicine

Upper Austria University of Applied Sciences (Media Technology and Design)

Welcome, Introduction, and Roadmap Joseph J. LaViola Jr.

The Mixed Reality Book: A New Multimedia Reading Experience

Augmented Reality Mixed Reality

Transportation Informatics Group, ALPEN-ADRIA University of Klagenfurt. Transportation Informatics Group University of Klagenfurt 3/10/2009 1

Ubiquitous Home Simulation Using Augmented Reality

synchrolight: Three-dimensional Pointing System for Remote Video Communication

Tiles: A Mixed Reality Authoring Interface

Interface Design V: Beyond the Desktop

Chapter 1 - Introduction

VIRTUAL REALITY Introduction. Emil M. Petriu SITE, University of Ottawa

AUGMENTED REALITY IN URBAN MOBILITY

Avatar: a virtual reality based tool for collaborative production of theater shows

Recent Progress on Wearable Augmented Interaction at AIST

Augmented and Virtual Reality

Computer Graphics. Spring April Ghada Ahmed, PhD Dept. of Computer Science Helwan University

Augmented Reality in Transportation Construction

Einführung in die Erweiterte Realität. 5. Head-Mounted Displays

AR 2 kanoid: Augmented Reality ARkanoid

Multi-Modal User Interaction

ThumbsUp: Integrated Command and Pointer Interactions for Mobile Outdoor Augmented Reality Systems

Extending X3D for Augmented Reality

immersive visualization workflow

UMI3D Unified Model for Interaction in 3D. White Paper

VIRTUAL REALITY AND SIMULATION (2B)

Occlusion based Interaction Methods for Tangible Augmented Reality Environments

Augmented Reality And Ubiquitous Computing using HCI

November 30, Prof. Sung-Hoon Ahn ( 安成勳 )

Tangible Bits: Towards Seamless Interfaces between People, Bits and Atoms

Virtual Object Manipulation on a Table-Top AR Environment

INTERACTION AND SOCIAL ISSUES IN A HUMAN-CENTERED REACTIVE ENVIRONMENT

Toward an Augmented Reality System for Violin Learning Support

mixed reality mixed reality & (tactile and) tangible interaction (tactile and) tangible interaction class housekeeping about me

FlexAR: A Tangible Augmented Reality Experience for Teaching Anatomy

Stereo-based Hand Gesture Tracking and Recognition in Immersive Stereoscopic Displays. Habib Abi-Rached Thursday 17 February 2005.

Integrating Hypermedia Techniques with Augmented Reality Environments

Presenting Past and Present of an Archaeological Site in the Virtual Showcase

Remote Collaboration Using Augmented Reality Videoconferencing

Mixed and Augmented Reality Reference Model as of January 2014

Enterprise ISEA of the Future a Technology Vision for Fleet Support

MIXED REALITY IN ARCHITECTURE, DESIGN AND CONSTRUCTION

Virtual Co-Location for Crime Scene Investigation and Going Beyond

Industrial Use of Mixed Reality in VRVis Projects

Enhancing Shipboard Maintenance with Augmented Reality

Geo-Located Content in Virtual and Augmented Reality

Interior Design using Augmented Reality Environment

Collaborating with a Mobile Robot: An Augmented Reality Multimodal Interface

Recent Progress on Augmented-Reality Interaction in AIST

The Holographic Human for surgical navigation using Microsoft HoloLens

Supporting Mixed Reality Visualization in Web3D Standard

Shared Imagination: Creative Collaboration in Mixed Reality. Charles Hughes Christopher Stapleton July 26, 2005

FRAUNHOFER INSTITUTE FOR OPEN COMMUNICATION SYSTEMS FOKUS COMPETENCE CENTER VISCOM

THE VIRTUAL-AUGMENTED-REALITY ENVIRONMENT FOR BUILDING COMMISSION: CASE STUDY

Enhancing Tabletop Games with Relative Positioning Technology

András László Majdik. MSc. in Eng., PhD Student

Tangible User Interface for CAVE TM based on Augmented Reality Technique

Collaborative Visualization in Augmented Reality

Augmented Reality Interface Toolkit

Head Tracking for Google Cardboard by Simond Lee

Marco Cavallo. Merging Worlds: A Location-based Approach to Mixed Reality. Marco Cavallo Master Thesis Presentation POLITECNICO DI MILANO

AR Tamagotchi : Animate Everything Around Us

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

3D Virtual Worlds and the Active Worlds Toolkit

Design and Development of a Marker-based Augmented Reality System using OpenCV and OpenGL

Real life augmented reality for maintenance

CSC 2524, Fall 2018 Graphics, Interaction and Perception in Augmented and Virtual Reality AR/VR

Virtual Object Manipulation using a Mobile Phone

Autonomous Mobile Robot Design. Dr. Kostas Alexis (CSE)

Activities at SC 24 WG 9: An Overview

CAPACITIES FOR TECHNOLOGY TRANSFER

Mobile and Pervasive Game Technologies. Joel Ross ICS 62 05/19/2011

INTERNATIONAL JOURNAL OF ENGINEERING SCIENCES & RESEARCH TECHNOLOGY. Augmented Reality-An Emerging Technology

Definitions and Application Areas

Lifelog-Style Experience Recording and Analysis for Group Activities

To the Front Lines of Digital Transformation

Virtual Reality Calendar Tour Guide

Roadblocks for building mobile AR apps

Interaction Technologies and Context-awareness

TANGIBLE USER INTERFACES FOR AUGMENTED REALITY QIU YAN

Cantag: an open source software toolkit for designing and deploying marker-based vision systems. Andrew Rice. Computer Laboratory

Transcription:

ISCW 2001 Tutorial An Introduction to Augmented Reality Mark Billinghurst Human Interface Technology Laboratory University of Washington, Seattle grof@hitl.washington.edu Dieter Schmalstieg Technical University of Vienna Vienna dieter@cg.tuwien.ac.at Level: Introductory/Intermediate Length: Half Day Summary Statement: This course presents an introduction to Augmented Reality (AR) including a review of AR technology, important research areas and cutting edge applications. Topics covered range from fundamental AR technology to advanced user interface techniques and applications. In addition to featuring hands-on demonstrations we will provide attendees with a general-purpose AR toolkit, equipping participants with the skills they need to start developing their own AR applications. Expanded Statement: As computers become more and more invisible, Augmented Reality (the overlaying of virtual images on the real world) is becoming an increasingly important application area for computer graphics and user interface design. The user interface can literally be placed everywhere. This course is designed to provide attendees with the background, skills and software necessary to start developing AR applications. Attendees will be given a detailed introduction to AR technology with reviews of important research areas such as tracking and registration, interaction techniques, wearable AR systems and hybrid AR interfaces. They will also be able to try several AR demonstrations to experience the technology for themselves, and will be given an introduction to ARToolKit, a software library that enables developers to easily build their own applications. Topics List: These topics are among those that will be covered : Augmented Reality Interface Technology Tracking for AR Interaction techniques for AR Collaborative AR Applications Heterogeneous AR User Interfaces Mobile AR Developing AR applications using ARToolkit

Course Syllabus ( 3 ½ hours): Overview Elapsed Time Topic Time 0:00 Introduction to Augmented Reality 30:00 30:00 Tracking for Augmented Reality 30:00 60:00 Interaction Techniques for AR 20:00 80:00 Break 10:00 90:00 Collaborative AR 20:00 110:00 Heterogeneous AR + Hybrid User Interfaces 20:00 130:00 Mobile AR 20:00 150:00 Developing Applications with ARToolKit 30:00 180:00 Discussion/Demos 30:00 210:00 Finish Introduction to Augmented Reality (30 minutes) Definition of Augmented Reality History of Augmented Reality / Past Research AR Systems Overview Input and Output Devices for AR Optical vs. Video See-Through AR Sample Applications medical, military, manufacturing Research Directions tracking, interaction techniques, outdoor AR, etc Introduction to the Course Sections What Participants will Learn: A broad foundation of the components and terminology used in developing AR systems so that they can read the current research literature and understand what the authors are referring to. They will also gain an appreciation for how AR technologies can be applied in their own applications and what are the promising future research areas. Tracking for Augmented Reality (30 minutes) The Importance of Accurate Head Tracking / The Tracking Problem The Choice of the Tracking Technologies Registration + Calibration static and dynamic Real Time Performance Characteristics - spatial, temporal, system robustness Scheduling and Fusing Sensor Information Approaches to head motion prediction. Promising Research Directions What Participants will Learn: Attendees will be given with some intuition, theory, and practical advice for using and developing tracking systems for AR. Topics will range from the relevant characteristics of the fundamental technologies, to the fusion of technologies for hybrid tracking, to calibration and motion prediction. Following this

section attendees should have the knowledge to select or research the appropriate tracking system for their particular application. Interaction Techniques for Augmented Reality (20 minutes) The Importance of Effective AR Interface Design Basic Properties of AR Environments used in Designing AR Interfaces Interaction Techniques Based on Traditional Tracking Techniques magnetic, etc Novel Input Devices - InfoPoint device from Sony CSL Tangible and Graspable Interaction Approaches - ARgroove Augmented Reality Information Browsers AR Widgets and Graphical Interface Elements Evaluating AR Interfaces Basic Unsolved Problems and Research Directions What Participants will Learn: The fundamentals of good interaction technique design for AR environments as well as an overview of a variety of techniques tried in the past. This should give them the knowledge to evaluate and develop interaction techniques suitable for their own specific AR applications. Collaborative Augmented Reality (20 minutes) Introduction to Computer Supported Collaboration AR Collaboration vs. Traditional Computer Supported Collaborative Work Methods for Developing Collaborative AR Interfaces Case Studies: - Face-to-Face Collaboration Shared Space - Remote Collaboration AR Conferencing, Wearable AR Conferencing - Seamless Collaboration The MagicBook Research Directions in Collaborative AR What Participants will Learn: How to develop and evaluate collaborative AR applications, including the factors that must be considered from a communications viewpoint, and the affect AR technologies can have on existing face to face and remote collaboration. Heterogeneous AR User Interfaces (20 minutes) Flavors of augmented reality: video mixing, optical blending, projection devices, spatially augmented reality Combining AR with other user interface metaphors: Immersive virtual reality, desktop metaphor, mobile/wearable computing, ubiquitous computing, tangible user interfaces, computer supported collaborative work Distributed graphics Sample Application Areas Research Directions

What Participants will Learn: How to integrate AR technologies into their existing applications and user interfaces, including projection and desktop display systems and ubiquitous computing environments. Attendees will also learn how to develop heterogeneous AR interfaces that do not rely on head mounted displays. Mobile AR (20 minutes) Introduction to Wearable and Situated Computing AR in a Mobile Setting Current Implementations/Examples Outdoor AR Tracking a Mobile User Mobile Display and Computing Hardware Environmental Modeling User Interface Issues Example Solutions for Mobile Applications Research Directions What Participants will Learn: The basics of AR interfaces for wearable and mobile platforms, including tradeoffs in hardware selection, mobile tracking technologies, and interface development for wearable devices. Developing Applications with ARToolKit (30 minutes) Overview of ARToolKit Computer Vision Based Tracking and Registration Methods used in ARToolKit Steps for Developing a Simple AR Application ARToolKit-based Interaction Methods Future Developments with ARToolKit Demonstrations: MagicBook, VOMAR, ExView, SimpleTest What Participants will Learn: An overview of the ARToolKit software. ARToolKit is an open source, non-proprietary, academic software toolkit for computer-vision based AR. Participants will also be given a copy of the ARToolKit software, so with a desktop computer and camera, participants will have everything necessary to begin developing AR applications when they leave. Course Presenter s Biographies: Mark Billinghurst Mark Billinghurst is a final year PhD student at the Human Interface Technology Laboratory (HIT Lab) at the University of Washington, Seattle. He is active in several research areas including augmented and virtual reality, conversational computer interfaces and speech and gesture recognition. His most recent work centers around using wearable computers and augmented reality to enhance face to face and remote conferencing. He is technical manager of the HIT Lab's wearable computing and

augmented reality research projects and has collaborated on projects with the US Navy, ATR Research Labs in Japan, British Telecom and the MIT Media Laboratory. He has presented tutorials at the VRAIS 96, VRST 96, Visual 98 and HUC 99 conferences and has authored or co-authored more than 50 peer reviewed journal and conference papers. Dieter Schmalstieg Dieter Schmalstieg is a faculty member at Vienna University of Technology, Austria, where he leads the "Studierstube" research project on collaborative augmented reality. His current research interests are virtual environments, augmented reality, threedimensional user interfaces, and distributed graphics. He currently leads research projects on mobile augmented reality and real-time visualization of urban environments, and is involved in the EC-funded Platform for Animation and Virtual Reality. Schmalstieg received an MSc (1993) and PhD (1997) degree from Vienna University of Technology. He is author and co-author of over 40 scientific publications, editorial advisory board member of computers & graphics, and organizer of the Eurographics workshop on virtual environments 1999.