This study investigates the human electroencephalogram (EEG) responses to flickering light at frequencies ranging from 1 to 100 Hz, focusing on resonance phenomena in the visual cortex. The research aims to explore whether neural oscillators with resonance frequencies, particularly around 40 Hz, play a role in binding visual features and cognitive processes. Previous studies have shown that neurons in the visual cortex synchronize their firing to the frequency of flickering light, leading to steady-state visual evoked potentials (SSVEPs) that match the flickering frequency. These SSVEPs are faster when presented at gamma frequencies ( approximately 30–80 Hz, mainly around 40 Hz). The experiment involved ten human subjects, who were exposed to flickering light at various frequencies. The results revealed steady-state oscillations at frequencies up to 90 Hz, with clear resonance phenomena around 10, 20, 40, and 80 Hz. This suggests that the brain may respond more strongly to these frequencies, potentially explaining the faster processing of stimuli at these frequencies. The findings align with previous research on animal brains and support the idea that resonance phenomena in the brain may contribute to cognitive functions such as visual binding, Gestalt perception, attention, and memory representations.This study investigates the human electroencephalogram (EEG) responses to flickering light at frequencies ranging from 1 to 100 Hz, focusing on resonance phenomena in the visual cortex. The research aims to explore whether neural oscillators with resonance frequencies, particularly around 40 Hz, play a role in binding visual features and cognitive processes. Previous studies have shown that neurons in the visual cortex synchronize their firing to the frequency of flickering light, leading to steady-state visual evoked potentials (SSVEPs) that match the flickering frequency. These SSVEPs are faster when presented at gamma frequencies ( approximately 30–80 Hz, mainly around 40 Hz). The experiment involved ten human subjects, who were exposed to flickering light at various frequencies. The results revealed steady-state oscillations at frequencies up to 90 Hz, with clear resonance phenomena around 10, 20, 40, and 80 Hz. This suggests that the brain may respond more strongly to these frequencies, potentially explaining the faster processing of stimuli at these frequencies. The findings align with previous research on animal brains and support the idea that resonance phenomena in the brain may contribute to cognitive functions such as visual binding, Gestalt perception, attention, and memory representations.