International audienceThis paper introduces the use of a Fuzzy Inference System (FIS) for classification in EEG-based Brain-Computer Interfaces (BCI) systems. We present our FIS algorithm and compare it, on motor imagery signals, with three other popular classifiers, widely used in the BCI community. Our results show that FIS outperformed a Linear Classifier and reached the same level of accuracy as Support Vector Machine and neural networks. Thus, FIS-based classification is suitable for BCI design. Furthermore, FIS algorithms have two additionnal advantages: they are readable and easily extensible
We evaluate the possibility of application of combination of classifiers using fuzzy measures and in...
This paper focuses on classification of motor imagery in Brain Computer Interface (BCI) by using cla...
This paper focuses on classification of motor imagery in Brain Computer Interface (BCI) by using cla...
International audienceThis paper introduces the use of a Fuzzy Inference System (FIS) for classifica...
International audienceThis paper studies the use of Fuzzy Inference Systems (FISs) for motor imagery...
An approach to EEG signal classification for brain-computer interface (BCI) application using fuzzy ...
The nonlinear, noisy and outlier characteristics of electroencephalography (EEG) signals inspire the...
This paper presents an investigation aimed at drastically reducing the processing burden required by...
In brain-computer interface (BCI) applications, classification of motor imagery electroencephalogram...
Motor-imagery based Brain Computer Interface (BCI) provides a direct communication pathway between t...
Effective handling of uncertainties associated with variability in brain dynamics and other factors ...
Brain Computing interface technology represents a very highly growing field now-a-days for the resea...
A Brain-Computer Interface uses measurements of scalp electric potential (electroencephalography - E...
Selles lõputöös uuritakse hägusate klassifikatsioonialgoritmide kasutamist elektroentsefalograafial ...
Brain–computer interface (BCI) is a system that provides a way for brain and computer to communicate...
We evaluate the possibility of application of combination of classifiers using fuzzy measures and in...
This paper focuses on classification of motor imagery in Brain Computer Interface (BCI) by using cla...
This paper focuses on classification of motor imagery in Brain Computer Interface (BCI) by using cla...
International audienceThis paper introduces the use of a Fuzzy Inference System (FIS) for classifica...
International audienceThis paper studies the use of Fuzzy Inference Systems (FISs) for motor imagery...
An approach to EEG signal classification for brain-computer interface (BCI) application using fuzzy ...
The nonlinear, noisy and outlier characteristics of electroencephalography (EEG) signals inspire the...
This paper presents an investigation aimed at drastically reducing the processing burden required by...
In brain-computer interface (BCI) applications, classification of motor imagery electroencephalogram...
Motor-imagery based Brain Computer Interface (BCI) provides a direct communication pathway between t...
Effective handling of uncertainties associated with variability in brain dynamics and other factors ...
Brain Computing interface technology represents a very highly growing field now-a-days for the resea...
A Brain-Computer Interface uses measurements of scalp electric potential (electroencephalography - E...
Selles lõputöös uuritakse hägusate klassifikatsioonialgoritmide kasutamist elektroentsefalograafial ...
Brain–computer interface (BCI) is a system that provides a way for brain and computer to communicate...
We evaluate the possibility of application of combination of classifiers using fuzzy measures and in...
This paper focuses on classification of motor imagery in Brain Computer Interface (BCI) by using cla...
This paper focuses on classification of motor imagery in Brain Computer Interface (BCI) by using cla...