ARGUS “Assisting peRsonal GUidance System for people with visual impairment” Oihana Otaegui – Vicomtech-IK4.

Slides:



Advertisements
Similar presentations
REAL CORP 2012 Author: Daniel Vander Vorst Company: Vicomtech-IK4
Advertisements

Chunyi Peng, Guobin Shen, Yongguang Zhang, Yanlin Li, Kun Tan BeepBeep: A High Accuracy Acoustic Ranging System using COTS Mobile Devices.
Real-time, low-resource corridor reconstruction using a single consumer grade RGB camera is a powerful tool for allowing a fast, inexpensive solution to.
and Trend for Smart Grid
Project Proposal.
The Bioloid Robot Project Presenters: Michael Gouzenfeld Alexey Serafimov Supervisor: Ido Cohen Winter Department of Electrical Engineering.
3-D Sound and Spatial Audio MUS_TECH 348. Wightman & Kistler (1989) Headphone simulation of free-field listening I. Stimulus synthesis II. Psychophysical.
Can GPS Wayfinding Technology with Narrative Descriptions Assist in Destination Management? By Trudy Bowden-Callahan & Robert Sweetman.
Personal Navigation Phone Technical Presentation.
Philippe Terrier*, Q. Ladetto º, B. Merminod º, Y. Schutz* * Institute of Physiology, University of Lausanne, Switzerland º Institute of Geomatics, Swiss.
SuperGIS Mobile Tour 3 SuperGIS Mobile Tour 3. Overview  SuperGIS Mobile Tour is a mobile GIS application for outdoor tour guide system.  An easy-to-use.
Final Year Project LYU0301 Location-Based Services Using GSM Cell Information over Symbian OS Mok Ming Fai CEG Lee Kwok Chau CEG
HIPS - UCD : Localization and Orientation Capabilities of GPS HIPS Project Meeting IRST, Trento, Italy April 1998 G.M.P O’Hare, R. O’Rafferty,
A Navigation System for Increasing the Autonomy and the Security of Powered Wheelchairs S. Fioretti, T. Leo, and S.Longhi yhseo, AIMM lab.
May 30, 2007 Citizen Science Training Manuals Lesson 3: How to Use a GPS The Training Workshop Title 2007 Annual Meeting Location, CO Your Name – Your.
An Integral System for Assisted Mobility Manuel Mazo & the Research group of the SIAMO Project Yuchi Ming, IC LAB.
Garmin GPS III Plus Data Collection. Objectives Collect: - Waypoints -Average Position Waypoints -Reference Waypoints - Multiple Tracks in One Track Log.
GPS – Global Positioning System. How Do You Use a GPS?  Each brand of GPS is set up differently.  At the Smith Center, we use Garmin etrex units.
Mobile Multimodal Applications. Dr. Roman Englert, Gregor Glass March 23 rd, 2006.
June 12, 2001 Jeong-Su Han An Autonomous Vehicle for People with Motor Disabilities by G. Bourhis, O.Horn, O.Habert and A. Pruski Paper Review.
BlindAid Semester Final Presentation Sandra Mau, Nik Melchior, and Maxim Makatchev.
Radio Interference Calculations
1 September 2005 Confidential Mobile Location and Navigation: Is Now the Time for Mass Market Success? Ronen Soffer, Executive VP, Telmap.
Presented by: Z.G. Huang May 04, 2011 Did You See Bob? Human Localization using Mobile Phones Romit Roy Choudhury Duke University Durham, NC, USA Ionut.
Fall 2002CS/PSY On-Speech Audio Area Overview Will it be heard ? Will it be identified ? Will it be understood Four Areas Uses of Non-speech Audio.
1 Shawlands Academy Higher Computing Software Development Unit.
Chemical Engineering 3P04
ARGUS “Assisting peRsonal GUidance System for people with visual impairment” Oihana Otaegui Vicomtech-IK4.
Flotilla Navigation Study Guide Chapter 9: Radionavigation Instructor: Fred Williston All Questions are important for exam PowerPoint Presentation.
A haptic presentation of 3D objects in virtual reality for the visually disabled MSc Marcin Morański Professor Andrzej Materka Institute of Electronics,
GNSS Receiver - Software Radio Concept František Vejražka Czech Technical University in Prague Faculty of Electrical Engineering.
Project Objectives Today’s GPS technology allow calculating and producing accurate positioning and tracking of the movement path in open environments.
© 2012 Anwendungszentrum GmbH Oberpfaffenhofen25/26 September 2012 | 1.
Projectargus.eu ARGUS Assisting Personal Guidance System for People with Visual Impairment Presented by Manfred Schrenk Managing Director of.
Navigation System for the Visually Impaired Based on an Information Server Concept Ari Virtanen, Sami Koskinen.
GPS for Teachers. What is GPS? Global Positioning System –A Network of satellites that continuously transmit coded information, which makes it possible.
1 The Software Development Process  Systems analysis  Systems design  Implementation  Testing  Documentation  Evaluation  Maintenance.
VIRTUAL REALITY (VR) INTRODUCTION AND BASIC APPLICATIONS الواقع الافتراضي : مقدمة وتطبيقات Dr. Naji Shukri Alzaza Assist. Prof. of Mobile technology Dean.
September Technical Meeting Slovenia September Session: Application 2. Animal Tracking Santiago Zazo – Universidad Politécnica de Madrid
3-D Sound and Spatial Audio MUS_TECH 348. Main Types of Errors Front-back reversals Angle error Some Experimental Results Most front-back errors are front-to-back.
13 Step Approach to Network Design Steps A Systems Approach 8Conduct a feasibility Study 8Prepare a plan 8Understand the current system 8Design.
GLOBAL POSITINING SYSTEM WORKING,ERRORS AND CORRECTION USING DGPS Department Of Electronics and Communication Engineering.
GPS for Teachers. What is GPS? Global Positioning System –A Network of satellites that continuously transmit coded information, which makes it possible.
Human Tracking System Using DFP in Wireless Environment 3 rd - Review Batch-09 Project Guide Project Members Mrs.G.Sharmila V.Karunya ( ) AP/CSE.
The Software Development Process
ARGUS “Assisting peRsonal GUidance System for people with visual impairment” ION GNSS AuthorJürgen Seybold CompanyTeleConsult Austria Session F4:
AN INTELLIGENT ASSISTANT FOR NAVIGATION OF VISUALLY IMPAIRED PEOPLE N.G. Bourbakis*# and D. Kavraki # #AIIS Inc., Vestal, NY, *WSU,
Adobe AuditionProject 4 guide © 2012 Adobe Systems IncorporatedOverview of Adobe Audition workspace1 Adobe Audition is an audio application designed for.
Improving O&M Skills Through the Use of VE for People Who Are Blind: Past Research and Future Potential O. Lahav School of Education, Tel Aviv University.
 A navigational display should serve these four different classes of tasks:  Provide guidance about how to get to a destination  Facilitate planning.
Creating & Building the Web Site Week 8. Objectives Planning web site development Initiation of the project Analysis for web site development Designing.
Projectargus.eu ARGUS Assisting Personal Guidance System for People with Visual Impairment Presented by Manfred Schrenk Managing Director of.
Oman College of Management and Technology Course – MM Topic 7 Production and Distribution of Multimedia Titles CS/MIS Department.
1 The Software Development Process ► Systems analysis ► Systems design ► Implementation ► Testing ► Documentation ► Evaluation ► Maintenance.
MOBILE CAMPUS NAVIGATION APPLICATION WITH AUGMENTED REALITY GROUP - 20.
Soundscapes James Martin. Overview Review System TestingPrototype Q & A.
Garmin 60CSx How To Use The Available Features Photos by IN-TF1 Technical Search, Stephen Bauer Written by IN-TF1 Technical Search, Jean Seibert.
Presented by: Lihi Yahav Alexander Isenshtat Supervisor: Kfir Lev-Ari Accessible Navigation.
SOFTWARE TESTING Date: 29-Dec-2016 By: Ram Karthick.
Non-Speech Audio Area Overview Four Areas Will it be heard ?
Chapter 11 Designing Inputs, Outputs, and Controls.
Object-Oriented Analysis and Design
Alaa Omar Rana Diab Supervised by Dr.Raed Jaber
Dead Reckoning, a location tracking app for Android™ smartphones Nisarg Patel Mentored by Adam Schofield and Michael Caporellie Introduction Results (cont.)
Automatic Picking of First Arrivals
GRALLE Galileo-based Reliable Automatic and Low Latent EWS
Project Schematics Circuit Working Principle and Equations
Course: Module: Lesson # & Name Instructional Material 1 of 32 Lesson Delivery Mode: Lesson Duration: Document Name: 1. Professional Diploma in ERP Systems.
Project Schematics Circuit Working Principle and Equations
SDLC Phases Systems Design.
Presentation transcript:

ARGUS “Assisting peRsonal GUidance System for people with visual impairment” Oihana Otaegui – Vicomtech-IK4

List of Contents  Argus Consortium  Motivation  Objectives  Argus System  Headphonests  Argus Preliminary Tests  Conclusions

ARGUS: Assisting personal guidance system for people with visual impairment FP7-ICT  Duration: 30 Months  Start date:  End date: 

Motivation  Visually disabled people have striking needs for trustful navigation systems providing them efficient mobility services, mainly considering safety and autonomy.  Limitations of existing products and solutions: Lack accuracy and integrity: they do not provide a suitable and efficient man-machine interface adjusted to this user segment, or rely on costly infrastructures. Are based on GNSS providing information through graphical displays or verbal output. Are not convenient for people who cannot see or have to operate in environments where verbal instructions could interfere with other external sounds.

Motivation People with visual impairment require guidance support in outdoor activities.

Motivation and Goals GNSS technologies are being implemented in innovative personal navigation devices Track perception will allow blind people to imagine the geometry of the path and walk along it.Track perception will allow blind people to imagine the geometry of the path and walk along it. To develop a GNSS-based mobility service for people with impaired visually capabilities, to guide them along a pre-defined track, using acoustic and audio-haptic signals, which meets the level of accuracy and reliability they need in urban environment for improving their day-to-day life autonomy

ARGUS Guidance Concept The sequence of the bell rings allows any person to build a mental map of the path. Although the sound is the same it is perceived in a different way depending on the distance and orientation ARGUS PROPOSES 3D SOUND FOR GUIDANCE USING STEREO OUTPUT

Binaural audio Binaural technologies reproduce the interaural differences (arrival time and amplitude between the ears). Binaural sounds create the illusion that sounds produced by a stereo headphone emanate from specific directions and distances in the surrounding space.

System Operation GPX file is loaded in the user terminal and activated for track guidance to reproduce the path and reach the destination. A.Track Recording B. Track on Map Processing C. Track Server Obtaining Track Data Track Recreation GPX data (Tracks and Waypoints) can be obtained through different options Absolute System Reference User System Reference GPX data recorded and activated Guidance instructions are provided based on user position and orientation obtained through GNSS and electronic compass Optional Head Mounted

System Architecture

Headphone set Main Objective: The selection and validation of headphones that meet the safety needs of the blind and partially sighted in outdoor navigation tasks. And specifically, headphones non-disturbing the general hearing of ambient sounds. Headphones non-disturbing the general hearing 1. Audiobone 2. Vibe BS NVE Normal headphones: 3. Elecom 4. Sennheiser

Wizard of Oz Tool to carry out tests on binaural sounds perception and guiding Very valuable for user training and to help to define the values of the most relevant parameters of the Binaural Module of the PPoC Functionality –Set of applications for testing and training users. –Oral STOP message to avoid risky situations Objective –Get the personalization options for the future ARGUS system Sound latency Orientation perception Distance between consecutive binaural points. Velocity between points Height of the perceived sound –Trainning

User Tests Open field –Public meadow near the Airfield Paderborn-Haxterberg –PPoC user tests

Test Results GNSS Reception Environment –Lower number of used satellites –No jumping Good GNSS position performance –User walked at higher speed 3-4 km/h COG and SOG smoother User Graphical Route –maximum deviation distance by the external GPS was 3.23 meters –maximum distance from the reference track during the first section was less than one meter

Test Results GNSS Reception Environment –10 satellites on average: min7 max 11 –a static period of the user of about 30 seconds –At the last third of the track, the user reduced his walking speed, when he approached the end point User Graphical Route –Except the third section, the other are inside the -/+ 3 meters corridor during most of the time –Section very sharp angle. Not very common in real life. User must make an orientation change of more than 120º degrees to the left. The first instruction given by the audio at the reference point is a 90º change to the left (it is maximum value). Audio keeps asking for more orientation change, which may be perceived by the user as the first instruction being repeated

Graphical comparison of heading reaction vs. heading instructions From tests a KML file has been generated from the internal logs of the audio played during the tests and the individual compass heading measurements –Impossible to plot all the information, only relevant point selected –Powerful overview of the performance of the system and how the user reacts to each order Result –a good “order following” –user reacts correctly to the orders –The user process correctly the direction of the sound and therefore the user has no problem following the track

Graphical comparison of heading reaction vs. heading instructions Zoom view in 2 nd user test where a late reaction of the user can be appreciated. –The arrows above the white line show the direction of the played sound to guide the user –the user takes a long time to change his walking direction. –Although the system is trying to get the user back to the ideal track the user keeps deviating due to his late reaction –To avoid this cases ARGUS system should increase the sound rate to warn the user and to encourage him to change his walking direction

Conclusions The results of the Preliminary Proof of Concept tests in Paderborn have been compiled in order to show the first tangible development of the ARGUS concept. Preliminary Proof of Concept of the guidance support system, using map/tracks, binaural sounds and satellite signals has been tested successfully with four end-users performing nine navigation tasks Although the users were aware that this was a preliminary prototype they were satisfied with ARGUS system guiding capability, simplicity and non disturbance of the general hearing –the binaural guiding principle should be explained in detail before using the system in real navigation tasks in order to achieve optimum results The examined test parameters led to satisfying results with regard to the early stage of the current development phase The interviews highlighted the need of providing personalization options for the binaural guiding at the final prototype to cope with the high variability of technical skills and visual capabilities of the end users 7 out of 9 tests have an average distance error of below 5 meters to the ideal track in the four waypoint sections of the proposed route

Conclusions