Brain Structure Function
Brain Structure Function - Related Videos
17:06
Co-analysis of Brain Structure and Function using fMRI and Diffusion-weighted Imaging
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Cited by 17 •
2012
We describe a novel approach for simultaneous analysis of brain function and structure using magnetic resonance imaging (MRI). We assess brain structure with high-resolution diffusion-weighted imaging and white-matter fiber tractography. Unlike standard structural MRI, these techniques allow us to directly relate anatomical connectivity to functional properties of brain networks.
01:56
Structural Protein Function
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2020
Structural proteins are a category of proteins responsible for functions ranging from cell shape and movement to providing support to major structures such as bones, cartilage, hair, and muscles. This group includes proteins such as collagen, actin, myosin, and keratin. Collagen, the most abundant protein in mammals, is found throughout the body. In connective tissue, such as skin, ligaments, and tendons, it provides tensile strength and elasticity. In bones and teeth, it mineralizes to form...
01:58
Fruit Development, Structure, and Function
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2020
Fruits form from a mature flower ovary. As seeds develop from the ovules contained within, the ovary wall undergoes a series of complex changes to form fruit. In some fruits, such as soybeans, the ovary wall dries; in other fruits, such as grapes, it remains fleshy. In some cases, organs other than the ovary contribute to fruit formation; such fruits are called accessory fruits. Fruits can be classified based on the number of flowers and the structure of the carpels involved in their formation.
16:41
A Protocol for Computer-Based Protein Structure and Function Prediction
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Cited by 79 •
2011
Guidelines for computer based structural and functional characterization of protein using the I-TASSER pipeline is described. Starting from query protein sequence, 3D models are generated using multiple threading alignments and iterative structural assembly simulations. Functional inferences are thereafter drawn based on matches to proteins with known structure and functions.
01:29
Structure and Function of Erythrocytes
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2024
There are between 4.2 and 6 million erythrocytes, also known as red blood cells, in every microliter of blood. These cells are small, flattened biconcave discs with centers that are depressed. The erythrocyte plasma membrane is associated with proteins such as spectrin, which forms a flexible cytoplasmic meshwork. This meshwork allows erythrocytes to twist, turn, become cup-shaped, and regain their biconcave shape as they pass through narrow capillaries. Additionally, erythrocytes can form...
FAQs
Anatomical organization establishes where neural populations are arranged, while connectivity determines how those populations exchange information. Synapses link neurons into circuits that can receive, integrate, and transmit signals across regions. Examining both features helps researchers distinguish the contribution of a local structure from the contribution of interactions among multiple areas during sensation, movement, memory, or decision-making.
Neurotransmitters influence how signals pass between neurons, whereas electrical activity reflects the transmission and integration of information within neural circuits. Considering both provides complementary evidence about circuit operation. These measurements can connect cellular processes with larger functions, helping explain how neural activity supports cognition and behavior rather than treating brain regions as anatomically isolated units.
A region’s function depends not only on its architecture but also on its connections, signaling chemistry, and electrical activity. Two areas with different anatomical roles may participate in the same circuit, and disruption of one connection can affect activity elsewhere. For this reason, neuroscience combines anatomical analysis with circuit-level and functional measurements when interpreting specialized activities.
Researchers combine neuroimaging, electrophysiology, anatomical analysis, and clinical observation to examine complementary levels of organization. Neuroimaging can relate activity or structure to broader functions, electrophysiology examines electrical signaling, anatomical analysis maps organization, and clinical observation links changes to behavior or cognition. Together, these approaches connect cellular mechanisms, neural circuits, and observable outcomes.
Neuroimaging helps researchers relate brain organization and activity to functions such as sensation, movement, memory, and decision-making. Its value increases when findings are interpreted alongside electrophysiology, anatomical evidence, or clinical observations, because no single approach captures every level of organization. This combined perspective supports more careful links between observed brain patterns and behavior.
Clinical observation can reveal how injury or disease alters behavior and cognition, while anatomical and functional methods help identify the affected structures, circuits, or signaling processes. These findings can support diagnostic approaches by linking neural changes with outcomes. They also provide a scientific basis for developing targeted interventions aimed at relevant brain systems rather than relying only on broad descriptions of symptoms.