Sains Malaysiana 49(9)(2020): 2091-2099
http://dx.doi.org/10.17576/jsm-2020-4909-07
Nocturnal Blue Light Exposure Increase Alpha and Beta Brain Waves
as Cognition Function for Two Consecutive Night Driving in a Car Simulator
(Pendedahan Cahaya Biru Nokturnal Meningkatkan Gelombang Otak Alfa dan Beta sebagai Fungsi Pengecaman untuk Dua Pemanduan Malam Berturut-turut dalam Pensimulasi Kereta)
LULU LUSIANTI FITRI1*, KINANTI
PRESTIASANI1 & SUPRIJANTO2
1School of Life Science and Technology, Institut Teknologi Bandung, Jalan Ganesha 10, Bandung
40312, Indonesia
2Engineering
Physics Department, Faculty of Industrial Technology, Institut Teknologi Bandung, Jalan Ganesha 10, Bandung 40132, Indonesia
Received: 26 January 2020/Accepted: 1 April 2020
ABSTRACT
Driving is a complex activity that engage complex motor,
sensor, and cognitive
function which can be analyzed through brain wave using electroencephalograph
(EEG). Decrease of cognitive function while driving in long period at night
linked with drowsiness and exposure of blue light to driver in night-driving
could improve cognitive function; yet, studies describing its exposure in
longer duration and repetition effects are needed. In this study, 15 adult
males experienced driving session on the car simulator with a straight and
monotonous road for 2 consecutive nights for 30 min without pause. The
participants were divided into three driving groups as follows: in dark
condition (control), under exposure to polychromatic blue light (450-540 nm)
and monochromatic blue LED light (460 nm). All participants’ brain waves were
recorded by EEG during the driving session from two channels of F3 and F4
representing cognitive function of the brain. The results showed that there was
a significant increase of beta and alpha wave power spectral density on the second day of
exposure in both blue light treatment groups. However, monochromatic blue light
gave a more stable beta wave than the other two lights which indicate a much
stronger cognitive process. There was also a synchronization from both channels
of F3 and F4 in all treatments which shows that alpha and beta waves do not necessarily work in an antagonistic way.
In summary, repeated, continuous exposure of blue light may increase alpha and
beta wave power spectral density, in which monochromatic blue light causes better cognitive
state than polychromatic blue light.
Keywords: Blue light; brain wave; driving
simulator; EEG; power spectral density
ABSTRAK
Memandu ialah aktiviti kompleks yang dipengaruhi fungsi motor, sensor dan pengecaman otak serta dapat diukur melalui perangkat elektroensefalograf (EEG). Memandu pada tempoh yang lama pada waktu malam boleh meningkatkan rasa mengantuk serta menurunkan fungsi pengecaman. Ini dapat dibantu dengan mendedahkan cahaya biru untuk meningkatkan fungsi pengecaman, namun data menunjukkan bahawa pendedahan memerlukan tempoh yang lama dan berulang. Kajian ini menggunakan 15 pemandu lelaki dalam pensimulasi kereta selama dua malam berturut-turut di jalan raya yang lurus dan bosan selama 30 min tanpa berhenti. Pemandu dibahagikan kepada tiga kumpulan iaitu: tanpa cahaya (kawalan), pendedahan kepada cahaya biru polikromatik (450-540 nm) dan pendedahan cahaya biru LED monokromatik (460 nm). Gelombang otak setiap pemandu diukur menggunakan EEG daripada dua saluran F3 dan F4 yang mewakili fungsi pengecaman di otak, Hasil menunjukkan kenaikan daya gelombang beta dan alfa secara bererti (p <0.01) pada hari kedua dalam kedua-dua pendedahan cahaya biru. Gelombang beta cahaya biru monokromatik lebih stabil sejurus menjelaskan berlangsungnya proses pengecaman yang lebih tinggi berbanding cahaya biru polikromatik dan kawalan. Penyegerakan pola gelombang otak di F3 dan F4 menunjukkan gelombang alfa dan beta tidak perlu bertindak secara bertentangan. Secara rumusan, pendedahan berulang cahaya biru dapat meningkatkan gelombang alfa dan beta pada fungsi pengecaman otak ketika memandu pada waktu malam dan cahaya biru monokromatik memfasilitasi proses pengecaman yang lebih baik daripada cahaya biru polikromatik.
Kata kunci: Cahaya biru; EEG; gelombang otak; nilai daya gelombang; pensimulasi memandu
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*Corresponding author; email: lfitri@sith.itb.ac.id
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