Examples of using Dendrites in English and their translations into Malay
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These patterns are dendrites of various salts.
Dendrites which receive information do not get myelinated.
Neurons have specialised cell parts called dendrites and axons.
Dendrites bring electrical signals to the cell body and axons take information away from the cell body.
The cell membrane of neurons covers the axons, cell body, dendrites, etc.
A typical neuron consists of dendrites, the cell body, and an axon.
Some types of neurons have no axon and transmit signals from their dendrites.
A neuron receives a signal through the dendrites, which is then transmitted to the cell body and then through the axon.
A typical neuron possesses a cell body(soma), dendrites, and an axon.
Dendrites themselves appear to be capable of plastic changes during the adult life of animals, including invertebrates.
The messages are sent as electrical signalsand picked up by thousands of short, hair like fibres called dendrites(also produced by the neurons).
Neuronal dendrites have various compartments known as functional units that are able to compute incoming stimuli.
Unipolar neurons have a stalk that extends from the cellbody that separates into two branches with one containing the dendrites and the other with the terminal buttons.
Dendrites often taper off in shape and are shorter, while axons tend to maintain a constant radius and be relatively long.
Pyramidal cells are multipolar cortical neurons with pyramid shaped cell bodies and large dendrites called apical dendrites that extend to the surface of the cortex.
Dendrites are one of two types of protoplasmic protrusions that extrude from the cell body of a neuron, the other type being an axon.
All these molecules interplay with each other in controlling dendritic morphogenesis including the acquisition of type specific dendritic arborization, the regulation of dendrite size and the organization of dendrites emanating from different neurons.[2][3].
Dendrites, but never to more than one axon, although the axon may branch hundreds of times before.
Electrical stimulation is transmitted onto dendrites by upstream neurons(usually via their axons) via synapses which are located at various points throughout the dendritic tree.
Dendrites(from Greek δένδρον déndron,"tree"), also dendrons, are branched protoplasmic extensions of a nerve cell that propagate the electrochemical stimulation received from other neural cells to the cell body, or soma, of the neuron from which the dendrites project.
The structure and branching of a neuron's dendrites, as well as the availability and variation of voltage-gated ion conductance, strongly influences how the neuron integrates the input from other neurons.
Dendrites play a critical role in integrating these synaptic inputs and in determining the extent to which action potentials are produced by the neuron.[1] Dendritic arborization, also known as dendritic branching, is a multi-step biological process by which neurons form new dendritic trees and branches to create new synapses.[1] The morphology of dendrites such as branch density and grouping patterns are highly correlated to the function of the neuron.
For example, there are neurons that lack dendrites, neurons that have no axon, and synapses that connect an axon to another axon or a dendrite to another dendrite.
The term dendrites was first used in 1889 by Wilhelm His to describe the number of smaller"protoplasmic processes" that were attached to a nerve cell.[9] German anatomist Otto Friedrich Karl Deiters is generally credited with the discovery of the axon by distinguishing it from the dendrites.
Unipolar dendrites are used to detect sensory stimuli such as touch or temperature.[1][7][8] other parts of a neuron also include an axon.
A complex array of extracellular and intracellular cues modulates dendrite development including transcription factors, receptor-ligand interactions, various signaling pathways, local translational machinery, cytoskeletal elements, Golgi outposts and endosomes.
During development, dendrite morphology is shaped by intrinsic programs within the cell's genome and extrinsic factors such as signals from other cells.
This change in the membrane potential will passively spread across the dendrite but becomes weaker with distance without an action potential.
The term neurite is used to describe either a dendrite or an axon, particularly in its undifferentiated stage.
Therefore, plasticity that leads to changes in the dendrite structure will affect communication and processing in the cell.