Katana VentraIP

Cellular neuroscience

Cellular neuroscience is a branch of neuroscience concerned with the study of neurons at a cellular level. This includes morphology and physiological properties of single neurons. Several techniques such as intracellular recording, patch-clamp, and voltage-clamp technique, pharmacology, confocal imaging, molecular biology, two photon laser scanning microscopy and Ca2+ imaging have been used to study activity at the cellular level. Cellular neuroscience examines the various types of neurons, the functions of different neurons, the influence of neurons upon each other, and how neurons work together.

Synaptic plasticity[edit]

Synaptic plasticity is the process whereby strengths of synaptic connections are altered. For example, long-term changes in synaptic connection may result in more postsynaptic receptors being embedded in the postsynaptic membrane, resulting in the strengthening of the synapse. Synaptic plasticity is also found to be the neural mechanism that underlies learning and memory.[3] The basic properties, activity and regulation of membrane currents, synaptic transmission and synaptic plasticity, neurotransmission, neuroregensis, synaptogenesis and ion channels of cells are a few other fields studied by cellular neuroscientists.[4][5] Tissue, cellular and subcellular anatomy are studied to provide insight into mental retardation at the Mental Retardation Research Center MRRC Cellular Neuroscience Core.[6] Journals such as Frontiers in Cellular Neuroscience and Molecular and Cellular Neuroscience are published regarding cellular neuroscientific topics.

Action potential

Calcium concentration microdomains

Cell biology

Cell signaling

Chemical synapse

Dendrite

Hair cells

IKK2

Neuroendocrinology

Neuropharmacology

Pyramidal cells

Soliton model

Synaptotropic hypothesis