Neuroimaging experiments are applicable in the study of memory loss. Brain imaging is very crucial. This is because it enables the examination of the cognitive and affective processes. The “functional Magnetic Resonance imaging,” (fMRI) may also be applicable in the examination of memory loss. It facilitates the gathering of images related to various neural actions. These actions are pertinent to specific stimuli. Notably, these stimuli occur within adequate intervals. Most of the commonly set intervals are 14-16 seconds. The investigator determines the baseline condition. Ideally, this simply stands for the neural activity of the individual under examination. It is also important to average the outcomes of individual trials. For consistency, it is necessary to document the time taken to achieve the various results. The random trial selection may include another methodology applied in these processes. Randomization enables the analysis of specific trials during the process of investigation. Evidently, it enhances the process of identification of major experimental errors. There are potential benefits associated with averaging. For instance, it allows the elimination of temporal limitations caused by hemodynamic responses. Additionally, it enables the specification of disparities in periods of fMRI signals. These differences in periods can be as short as 100ms. However, in order to attain consistent and accurate outcomes, it is necessary to conduct several trials. Observably, the randomization processes remain difficult. It is important to engage the use of “single-photon emission computed tomography,” (SPECT). This is because it improves the outcome of the empirical investigation. SPECT refers to a neuroimaging technique. It enables for the construction of three-dimensional data pertinent to the basic neural activities. SPECT enhances the outcome of the investigation. This is because it enables selection of data from all parts of the brain. Indicatively, the fMRI performs a similar role. However, fMRI lacks certain specific features within the SPECT. “Fusiform Gyrus” offers the main region for the activation process during this experiment. It operates as the region for recognition of colors, faces and words. Visual Processing in the Brain Pathways are very important elements. They permit the development of visual information. These critical pathways include the ventral and the dorsal pathways. The elementary visual cortex forms the fundamental source of visual information. Information process move through these pathways in a logical manner. For instance, within the larger dorsal pathway, basic data initially flows through the visual region 1. Consequently, it travels to the visual region 2. This critical information further moves to the important dorsomedial region. Notably, some also reach the visual region MT. This information finally arrives at the “posterior parietal cortex”. This important pathway is typically associated with actions or activities that involve motion and location of objects. Visual regions 1 mainly deal with colors and angle lines. On the other hand, the visual region 2 explicitly deals with motion and depth. Observably, the visual region MT operates to aid the process of optic flow. This process also assists the motions within the environment. The motion