Social Environments, Mixed Communication and Goal-Oriented Control Application Using a Brain-Computer Interface

被引:0
作者
Edlinger, Guenter [1 ]
Guger, Christoph
机构
[1] G Tec Med Engn GmbH, Herbersteinstr 60, A-8020 Graz, Austria
来源
UNIVERSAL ACCESS IN HUMAN-COMPUTER INTERACTION: USERS DIVERSITY, PT 2 | 2011年 / 6766卷
关键词
Brain-Computer Interface; P300 evoked potential; EEG; BCI; PROSTHESIS; PEOPLE; BCI;
D O I
暂无
中图分类号
TP301 [理论、方法];
学科分类号
081202 ;
摘要
For this study a P300 BCI speller application framework served as a base to explore the operation for three different applications. Subjects exchanged messages in the networks of (i) Twitter (Twitter Inc.) and socialized with other residents in Second Life (Linden Lab) and (ii) controlled a virtual smart home. Although the complexity of the various applications varied greatly, all three applications yielded similar results which are interesting for the general application of BCI for communication and control: (a) icons can be used together with characters in the interface masks and (b) more crucially, the BCI system does not need to be trained on each individual symbol and allows the use of icons for many different tasks without prior time consuming and boring training for each individual icon. Hence such a type of BCI system is more optimally suited for goal oriented control amongst currently available BCI systems.
引用
收藏
页码:545 / 554
页数:10
相关论文
共 50 条
[1]   Goal-Oriented Control with Brain-Computer Interface [J].
Edlinger, Guenter ;
Holzner, Clemens ;
Groenegress, Christoph ;
Guger, Christoph ;
Slater, Mel .
FOUNDATIONS OF AUGMENTED COGNITION, PROCEEDINGS: NEUROERGONOMICS AND OPERATIONAL NEUROSCIENCE, 2009, 5638 :732-+
[2]   The impact of goal-oriented task design on neurofeedback learning for brain-computer interface control [J].
McWhinney, S. R. ;
Tremblay, A. ;
Boe, S. G. ;
Bardouille, T. .
MEDICAL & BIOLOGICAL ENGINEERING & COMPUTING, 2018, 56 (02) :201-210
[3]   The impact of goal-oriented task design on neurofeedback learning for brain–computer interface control [J].
S. R. McWhinney ;
A. Tremblay ;
S. G. Boe ;
T. Bardouille .
Medical & Biological Engineering & Computing, 2018, 56 :201-210
[4]   Control of a Visual Keyboard Using an Electrocorticographic Brain-Computer Interface [J].
Krusienski, Dean J. ;
Shih, Jerry J. .
NEUROREHABILITATION AND NEURAL REPAIR, 2011, 25 (04) :323-331
[5]   Using Motor Imagery to Control Brain-Computer Interfaces for Communication [J].
Brumberg, Jonathan S. ;
Burnison, Jeremy D. ;
Pitt, Kevin M. .
FOUNDATIONS OF AUGMENTED COGNITION: NEUROERGONOMICS AND OPERATIONAL NEUROSCIENCE, AC 2016, PT I, 2016, 9743 :14-25
[6]   Brain-Computer Interface: Generic Control Interface for Social Interaction Applications [J].
Hintermueller, C. ;
Guger, C. ;
Edlinger, G. .
Advances in Computational Intelligence, IWANN 2011, Pt I, 2011, 6691 :386-392
[7]   A Hybrid Brain-Computer Interface for Smart Home Control [J].
Edlinger, Guenter ;
Holzner, Clemens ;
Guger, Christoph .
HUMAN-COMPUTER INTERACTION: INTERACTION TECHNIQUES AND ENVIRONMENTS, PT II, 2011, 6762 :417-426
[8]   Control of Electric Wheelchair by Brain-Computer Interface Using Mixed Reality and Virtual Sound Source [J].
Mori, Fumina ;
Sugino, Masato ;
Huang, Yunshan ;
Kotani, Kiyoshi ;
Jimbo, Yasuhiko .
IEEJ TRANSACTIONS ON ELECTRICAL AND ELECTRONIC ENGINEERING, 2024, 19 (06) :1014-1025
[9]   EEG Acquisition and Application in Brain-Computer Interface [J].
Zhao Haibin ;
Liu Chong ;
Wang Hong .
PROCEEDINGS OF THE THIRD INTERNATIONAL SYMPOSIUM ON TEST AUTOMATION & INSTRUMENTATION, VOLS 1 - 4, 2010, :1397-1399
[10]   Brain-Computer Interface using Directional Auditory Perception [J].
Koike, Yuto ;
Hiroi, Yuichi ;
Itoh, Yuta ;
Rekimoto, Jun .
PROCEEDINGS OF THE 4TH AUGMENTED HUMANS INTERNATIONAL CONFERENCE 2023, AHS2023, 2023, :342-345