Chairman: Prof. Shih-Chung Chen Presented by: :XUAN-JIA GUO Adviser: Prof. Shih-Chung Chen Date: Mar. 11, 2015 1 Assistance Eating Robot.

Slides:



Advertisements
Similar presentations
Presented by : Bo-Yang Hou Adviser : Shih-Chung Chen Chairman : Hung-Chi Yang Date : 2012/12/19 Mervyn V.M. Yeo, Xiaoping Li, Kaiquan Shen, Einar P.V.
Advertisements

Non-Invasive BCI.
IntroductionMethods Participants  7 adults with severe motor impairment.  9 adults with no motor impairment.  Each participant was asked to utilize.
Brain-computer interfaces: classifying imaginary movements and effects of tDCS Iulia Comşa MRes Computational Neuroscience and Cognitive Robotics Supervisors:
1 1 MPI for Biological Cybernetics 2 Stanford University 3 Werner Reichardt Centre for Integrative Neuroscience Eberhard Karls University Tuebingen Epidural.
DEVELOPMENT OF A FAST AND EFFICIENT ALGORITHM FOR P300 EVENT RELATED POTENTIAL DETECTION A MASTER’S THESIS PRESENTATION BY ELLIOT FRANZ ADVISOR: IYAD OBEID,
Brain-Computer Interfaces for Communication in Paralysis: A Clinical Experimental Approach By Adil Mehmood Khan.
Billy Vermillion. EEG  Electroencephalography A test to measure the electrical activity of the brain. ○ Brain cells communicate by producing tiny electrical.
Lunch Talk on Brain-Computer Interfacing Artificial Intelligence, University of Groningen Pieter Laurens Baljon December 14, :30-13:00.
Abstract  Obstructive Sleep Apnea Syndrome (OSAS) is a very common sleep disorder with potential severe implications in essential aspects and the patient's.
Dr. Boris Hyle Park BIEN 175A Group F Joseph Steven Fletcher Ryan Alan LaCroix Gary Matthew Stroup Kenneth Gerard Sugerman March 15, 2010.
Brain Waves. Brain Fingerprinting Forensic Science, Biometrics, etc…
Discussion Section: Review, Viirre Lecture Adrienne Moore
BRAIN-COMPUTER INTERFACES (BCI)
Cyberlink Headband Brainfingers: Hands-Free Computer Access Solution.
Brain Computer Interfaces
James Brooks BME 281 Presentation 1. What are BCI? Brain-computer interfaces are direct pathways of communication between the brain and some external.
Engineering the Brain KAIST 바이오및뇌공학과 정재승. Ardipithecus.
Brain-Computer Interfaces for Communication in Paralysis: A Clinical Experimental Approach By Adil Mehmood Khan.
Brain-Computer Interface for VR control Christoph Guger.
Presenter : Jung-Ting Jin Adviser : Dr. Shih-Chung Chen Chairman : Dr. Hung-Chi Yang Date : December 31, 2014 BCI2000 : A General- Purpose Brain-Computer.
Electrical and Computer Engineering Team14: BMW Brainwave Manipulated Wagon Comprehensive Design Review.
Kasey Jones TELEKINESIS: MIND OVER MECHANICS. THE DISCOVERY Thanks to researchers from the Minnesota College of Science and Engineering, the theme of.
IntroductionMethods Participants  7 adults with severe motor impairment performed EEG recording sessions in their own homes.  9 adults with no motor.
Directeur : Mr S. PERREY (PR). Improving Usability in Human Computer Interfaces: an investigation into cognitive fatigue and its influence on the performance.
ICRA2009 Evaluation of a robot as embodied interface for Brain Computer Interface systems E. Menegatti, L. Tonin Intelligent Autonomous System Laboratory.
Virtual Reality in Brain- Computer Interface Research F. Lee 1, R. Scherer 2, H. Bischof 1, G. Pfurtscheller 2 1) Institute for Computer Graphics and Vision.
 A direct communication pathway between the brain and an external device.  Directed at assisting, augmenting, or repairing human cognitive or sensory-motor.
Cryptanalysis and Improvement of an Access Control in User Hierarchy Based on Elliptic Curve Cryptosystem Reporter : Tzer-Long Chen Information Sciences.
1 The Low-Cost Implement of a Phase Coding SSVEP-Based BCI System Kuo-Kai Shyu, Po-Lei Lee, Ming-Huan Lee and Yun-Jen Chiu Department of Electrical Engineering.
1 EEG-based Online Brain- Computer Interface System Chi-Ying Chen,Chang-Yu Tsai,Ya-Chun Tang Advisor:Yong-Sheng Chen.
EEG-Based Communication and Control: Short-Term Role Feedback Present by: Yu Yuan-Chu Dennis J. Mcfarland, Lynn M. McCane, and J. R. Wolpaw.
Analysis of Movement Related EEG Signal by Time Dependent Fractal Dimension and Neural Network for Brain Computer Interface NI NI SOE (D3) Fractal and.
Motivation Increase bandwidth of BCI. Reduce training time Use non invasive technique.
Workshop on direct brain/computer interface & control Febo Cincotti Fondazione Santa Lucia IRCCS Brussels, August 2, 2006.
Institute of Automation Christian Mandel Thorsten Lüth Tim Laue Thomas Röfer Axel Gräser Bernd Krieg-Brückner.
Group D: Malkesh Agheda and Belinda Stiles
A N SSVEP-A CTUATED B RAIN C OMPUTER I NTERFACE U SING P HASE -T AGGED F LICKERING S EQUENCES : A C URSOR S YSTEM Chairman : Dr. Hung-Chi Yang Presenter.
Epilepsy affects approximately one percent of the world population. A huge chunk of the people who have epilepsy live in 3 rd world countries so they.
EEG-controlled Robot and Interactive Technology Chairman: Dr.Hung-Chi Yang Presented by: :XUAN-JIA GUO Adviser: Prof. Shih-Chung Chen Date: Nov. 26, 2014.
Brain-Computer Interface systems based on the Steady-State Visual Evoked Potential Presenter : Ching-Kai Huang Adviser : Dr. Shih-Chung Chen 2017/4/26.
Kuo-Kai Shyu,Member,IEEE, Yun-Jen Chiu, Po-Lei Lee, Jia-Ming Liang,and Shao-Hwo Peng Presenter : Zi-Wei Wang Adviser : Dr. Yeou-Jiunn Chen Date:2016/1/5.
Chairman: Shih-Chung Chen Presenter: Chung-Yi Li Advisor: Dr. Chun-Ju Hou Date:2015/10/7 JUN JO, YONGKWI LEE, and HYUN SOON SHIN Recent Advances in Electrical.
Intelligent Systems Research Centre University of Ulster, Magee Campus BCI Research at the ISRC, University of Ulster N. Ireland, UK By Dr. Girijesh Prasad.
Brain Computer Interfaces: Digital Signal Processing of Steady-State Visually Evoked Potentials Ian Linsmeier & Ahmed Saif ECE630.
THINK AND TYPE: DECODING EEG SIGNALS FOR A BRAIN-COMPUTER INTERFACE VIRTUAL SPELLER Table 2: 10 x 10 CV Confusion matrix for 5 classes of MA using data.
IPSIHAND AN EEG BASED BRAIN COMPUTER INTERFACE FOR MOTOR REHABILITATION.
Adaptive Technology Thought-Controlled Wheelchairs By: Mary Nell Patterson.
ICT-enabled assistive systems based on non-invasive BCI Joseph Bremer European Commission, DG Information Society and Media E-Inclusion Unit (H3) BRAIN-COMPUTERINTERACTIONBRAIN-COMPUTERINTERACTION.
Jordi Bieger Brain, Body & Behavior June 18, 2010 Stimulation Effects in SSVEP-based BCIs 1.
Roberto Sironi | Paolo Perego | Riccardo Lavezzari | Giuseppe Andreoni Study of integrated neuro-motor rehabilitation system based on User Centered Design.
Brain-Computer Interfaces
Date of download: 6/26/2016 Copyright © 2016 SPIE. All rights reserved. Screen shots of an example stimulus on the prism array-based display. Although.
introduction Brain driven car which would be of great help to the physically disabled people. These cars will rely only on what the individual is thinking.
A Cortico-Muscular-Coupling based Single-Trial Detection in EEG-EMG based BCI for Personalized Neuro-Rehabilitation of Stroke Patients 1. Introduction.
Brain Machine Interface. EEGs Neurons is like a battery; when active, it’s voltage changes Free running EEGs vs ERP (event related potential)
SEMINAR on ‘BRAIN COMPUTER INTERFACE’ Submitted by: JYOTI DOSAYA
Brain Computer Interface. Outlines What is BCI? How does it work? Brain Wave Control Simple introduction of the brain Data Acquisition Apps Drawbacks.
Stimulation Effects in SSVEP-based BCIs Jordi Bieger, July 8, 2010.
Effects of Watermark and Music on Mobile Message Advertisements
Date of download: 11/11/2017 Copyright © ASME. All rights reserved.
Journal of Vision. 2015;15(6):4. doi: / Figure Legend:
Figure 1 General framework of brain–computer interface (BCI) systems
Introduction Brain driven car which would be of great help to the physically disabled people. These cars will rely only on what the individual is thinking.
An Exploration of BCI2000 Utility Across Multiple Sessions
The Berlin Brain-Computer Interface: Machine Learning-Based Detection of User Specific Brain States Umar Farooq.
Fig. 1. Reports rising. Reports rising. Number of publications recorded in Scopus that have, in the title or abstract, at least one of the following expressions:
Brain-computer interfaces.
Fig. 1. Reports rising. Reports rising. Number of publications recorded in Scopus that have, in the title or abstract, at least one of the following expressions:
Kick-off Meeting Luigi Bianchi “Tor Vergata” University of Rome, Italy
Presentation transcript:

Chairman: Prof. Shih-Chung Chen Presented by: :XUAN-JIA GUO Adviser: Prof. Shih-Chung Chen Date: Mar. 11, Assistance Eating Robot

Outline 2 Abstract Technology Overview Action Process Sub-Projects -Brainwave control Plate Assistance Eating Robot of Exterior Tested Data References

Abstract 3 Brain-Wave Control Robotic Movements Hands Visual Five Sub-Projects

Sub-Projects -Brainwave control 4 NuAmps-Electrode position interpolation points change Fig. 3 Electrode position interpolation

Sub-Projects -Brainwave control 5 Old-BCI Fig. 4 Old-BCI

Tested data 6 6Hz7Hz8Hz9HzAccuracy Subjects1 40%70% 63% Subjects2 50%30%50%30%40% Subjects3 40%60%50%20%43% Subjects4 80%100% 80%90% Subjects5 40% 0%30% Subjects6 70%50% 70%60% Subjects7 50%40%60%20%43% Subjects8 40%70%80%70%65% Subjects9 50%100%60% 68% Subjects10 60%90% 70%78% Average 70%87% 70%79% Tab.1Tested data

Tested data 7 6Hz7Hz8Hz9HzAccuracy Subjects1 40%70% 63% Subjects2 50%30%50%30%40% Subjects3 40%60%50%20%43% Subjects4 80%100% 80%90% Subjects5 40% 0%30% Subjects6 70%50% 70%60% Subjects7 50%40%60%20%43% Subjects8 40%70%80%70%65% Subjects9 50%100%60% 68% Subjects10 60%90% 70%78% Average 70%87% 70%79% Tab.2Tested data

Tested data 8 6Hz7Hz8Hz9HzAccuracy Subjects1 40%70% 63% Subjects2 50%30%50%30%40% Subjects3 40%60%50%20%43% Subjects4 80%100% 80%90% Subjects5 40% 0%30% Subjects6 70%50% 70%60% Subjects7 50%40%60%20%43% Subjects8 40%70%80%70%65% Subjects9 50%100%60% 68% Subjects10 60%90% 70%78% Average 70%87% 70%79% Tab.3Tested data

Tested data 9 Line chart Hz Accuracy Average Tab.4 Line chart

References 10 Cecotti H (2011) Spelling with non-invasive brain-computer interfaces--current and future trends, J Physiology-Paris, vol. 105 no. 1-3, pp Mcfarland DJ and Wolpaw JR (2011) Brain-computer interfaces for communication and control, Commun ACM, 54: Chen S-C, Hong W-J, Chen Y-C, Hsieh S-C, and Yang S-Y (2010) The Page Turner Controlled by BCI, IFMBE Proceedings, 31: See AR, Chen S-C, Ke H-Y, Su C-Y and Hou P-Y (2013) Hierarchical Character Selection for a Brain Computer Interface Spelling System, INTECH2013 (Accepted) Duffy FH and H Als (2012) A stable pattern of EEG spectral coherence distinguishes children with autism from neuro-typical controls - a large case control study, BMC Med, 10:

References 11 H. Cecotti, “Spelling with non-invasive brain-computer interfaces--current and future trends,” Journal of Physiology - Paris, vol. 105 no. 1-3, pp , F.-B. Vialatte, et al., “Steady-state visually evoked potentials: Focus on essential paradigms and future perspectives,” Progress in Neurobiology, vol. 90, no. 4, pp , “The Fundamentals of FFT-Based Signal Analysis and Measurement in LabVIEW and LabWindows/CVI” National Instruments, [Online]Available: [Accessed: 3 September 2013]. S.-C. Chen, A.R. See, Y.-J. Chen, et al. “The Use of a Brain Computer Interface Remote Control to Navigate a Recreational Device,” Mathematical Problems in EngineeringVolume, Vol. 2013, S.-C. Chen, A.R. See, C.-H. Yeng, et al. “Recreational Devices Controlled Using an SSVEP-based Brain Computer Interface (BCI),” Innovation, Communication and Engineering, pp , 2013.