Visuospatial abilities refer to the brain’s capacity to process and interpret visual information from the environment and to manipulate objects in space. Visuospatial skills are important for daily activities, such as navigating roads and buildings, reading maps, making measurements, constructing geometric forms, and for day-to-day tasks such as dressing properly. Furthermore, visuospatial abilities are a crucial component for engineering, design, and scientific work. Visuospatial abilities involve the convergence of visual (perception), spatial (location/orientation), and motor (movement) functions. Visual abilities are mainly responsible for the processing and interpretation of visual information from the environment. This information includes elements such as size, shape, form, perspective, and color. Spatial abilities involve interpreting the arrangement and position of objects in space, as well as direction and distance of objects. Motor skills are closely related to visuospatial abilities and involve the manipulation of objects in space. There are a number of components to visuospatial abilities, including mental rotation, working memory, and figure-ground discrimination. Mental rotation is the ability to rotate visual information mentally, without moving a physical object.
Title : Neuromodulation of scalp electroacupuncture in the treatment of autism spectrum disorder
Zhenhuan Liu, Guangzhou University of Chinese Medicine, China
Title : Managing healthcare transformation towards intelligent and ethical personalized, preventive, predictive, participative precision medicine ecosystems
Bernd Blobel, University of Regensburg, Germany
Title : Defining the genetic landscape of developmental and Epileptic encephalopathy in Egyptian children using whole exome sequencing
Hisham Megahed, The National Research Center, Egypt
Title : The action potential as a soliton: A geometric derivation from the de Broglie relation with anatomical and clinical implications
Mustafa A Khan, Sevaro Health Inc., United States
Title : Prince transform: A wave-mechanical framework for real-time EEG analysis and early Seizure prediction using chirp and drift detection
Mustafa A Khan, Sevaro Health Inc., United States
Title : Translational insights into molecular mechanisms and neurodegeneration: Bridging experimental models and clinical realities
Benjamin Adebisi Temidayo, Institute of Anatomy Cell Biology Brain and Neurodegeneration, Nigeria