DocumentCode
174469
Title
Decision of braking intensity during simulated driving based on analysis of neural correlates
Author
Jeong-Woo Kim ; Il-Hwa Kim ; Seong-Whan Lee
Author_Institution
Dept. of Brain & Cognitive Eng., Korea Univ., Seoul, South Korea
fYear
2014
fDate
5-8 Oct. 2014
Firstpage
4129
Lastpage
4132
Abstract
Recently neurophysiological studies have been concerned with using brain signals for driving assistance technologies. These studies verified that neurophysiological characteristics could be used for detection of emergency situations during simulated driving. However, it is hard to develop the braking assistant system which could control the vehicle continuously using this approach. In this article, the method for decoding of driver´s braking intention based on analysis of neural correlates is proposed to control the braking of vehicle continuously. The participants´ braking intention is decoded by kernel ridge regression (KRR) model to overcome the limitation of classification approach. In addition, the combination of three different features is employed to enhance the decoding performance. The decoding performances are evaluated by the correlation coefficient (r-value) and the normalized root-mean square error (NRMSE).
Keywords
behavioural sciences computing; brain-computer interfaces; braking; correlation methods; driver information systems; electroencephalography; human computer interaction; mean square error methods; medical signal processing; neurophysiology; regression analysis; road accidents; road traffic; signal classification; BCI; EEG; brain signals; brain-computer interface; braking assistant system; braking intensity decision; classification approach; correlation coefficient; decoding performance enhancement; driver´s braking intention decoding; driving assistance technologies; driving simulation; electroencephalography; emergency situation detection; kernel ridge regression model; neural correlates analysis; neurophysiological characteristics; neurophysiological studies; normalized root-mean square error; traffic accident; Accidents; Brain modeling; Decoding; Electroencephalography; Feature extraction; Kernel; Vehicles; Brain-computer interface (BCI); Electroencephalography (EEG); Kernel ridge regression model (KRR);
fLanguage
English
Publisher
ieee
Conference_Titel
Systems, Man and Cybernetics (SMC), 2014 IEEE International Conference on
Conference_Location
San Diego, CA
Type
conf
DOI
10.1109/SMC.2014.6974583
Filename
6974583
Link To Document