'fade' away visually. It is suggested that this occurrence is due to the reduction in firing rates and reduction in sensitivity of the particular neurons responding to that particular stimulus over time. Neural adaptation is said to be prevalent in early and late stages of visual processing and it can occur for tens of milliseconds or even up to several seconds. It plays a fundamental role in sensory information processing and is important in perceptual suppression. In the context of contrast adaptation, neural adaption to a high-contrast stimulus results in a reduction in perceived contrast of the stimulus. Recordings of the primary visual cortex during contrast adaptation showed that it is the predominance of contrast sensitivity reduction that results in this adaptation. Neural adaptation can affect the relative strength of the visual stimuli and can affect perceptual suppression in events such as binocular rivalry. Several research have shown that manipulating neural adaption can allow one to control perceptual dominance during binocular rivalry; rivalry dominance durations are longer in situations where neural adaptation is minimal. As such, mitigation of neural adaptation is required to ensure better quality and longer perceptual dominance and perceptual suppression. There are several ways to minimise neural adaptation and one of it is to induce motion to reduce or prevent neural adaption from occurring. Movement can be introduced either to the stimuli itself or to the eye through small eye movements during fixation to prevent or reduce loss of vision at the retinal receptors. How does binocular switch suppression work? In the paper written by Arnold et al., (2008), they introduced this method called "Binocular Switch Suppression" where conflicting images of differing contrast (Figure 1) are repeatedly switched between the left and right eye at a predetermined constant rate. This switching aims to diminish or reduce adaptation of the monocular neurons and cells such as the retinal ganglion cells at early stages of visual processing. To manipulate signal strength of the stimuli, random white noise patterns which are used to suppress the target grayscale image are designed to have higher signal strength, higher contrast, and higher spatial frequency content. In line with the current literature, with control over signal strength of the stimulus and proper management of neural adaptation, it is predicted that a stronger visual stimulus (random white noise pattern) should predictably dominate perception and the weaker visual stimulus (target grayscale image) would be suppressed. Arnold