Neurons antibodies

and ELISA kits, proteins related to Neurons.

Introduction to Neurons

Neurons are the essential building blocks of the nervous system, responsible for transmitting and processing information throughout the body. These specialized cells communicate through intricate electrical and chemical signals, enabling everything from basic reflexes to complex cognitive functions like learning, memory, and emotion. Understanding neuronal structure and function is crucial for unraveling the complexities of the brain and addressing neurological disorders. Antibodies play a vital role in neuron research by allowing scientists to identify, visualize, and manipulate specific proteins and pathways within these cells. High-quality neuronal antibodies facilitate breakthroughs in mapping neural networks, studying synaptic connections, and exploring the molecular mechanisms underlying conditions such as Alzheimer's, Parkinson's, and autism. Our comprehensive selection of neuron-related antibodies supports cutting-edge research, empowering scientists to advance our knowledge of the nervous system and develop innovative therapeutic strategies.

Neurons biomarkers

MA1071

Anti-NEFH Antibody (Monoclonal, N52), Immunofluorescence identification of SCNs. (A) Cell nuclei are identified with DAPI. (B) SCNs are stained with the anti-NF200 monoclonal antibody. M...

M11954

Anti-NeuN RBFOX3 Rabbit Monoclonal Antibody, FCGR2B were up-regulated in hippocampus of DM mice. A qRT-PCR was performed to detect the expression of ALB, AREG and FCGR2B mRNA expr...

A02930

Anti-NSE/ENO2 Antibody Picoband®, IF analysis of NSE using anti-NSE antibody (A02930).
NSE was detected in immunocytochemical section of A431 cells. Enzyme antigen retrieva...

Protein Name	Gene Name	Function
NeuN	RBFOX3	Neuronal nuclei marker for mature neurons
MAP2	MAP2	Microtubule-associated protein involved in dendritic structure
Synaptophysin	SYP	Presynaptic vesicle protein involved in synaptic transmission
Tau	MAPT	Microtubule-associated protein involved in axonal stability
PSD-95	DLG4	Postsynaptic density protein involved in synaptic signaling
ChAT	CHAT	Choline acetyltransferase involved in acetylcholine synthesis
Neurofilament 200	NEFH	Structural component of the neuronal cytoskeleton
VGLUT1	SLC17A7	Vesicular glutamate transporter involved in glutamate neurotransmission
GAD67	GAD1	Glutamate decarboxylase involved in GABA synthesis
DARPP-32	PPP1R1B	Dopamine- and cAMP-regulated neuronal phosphoprotein involved in signal transduction
Calbindin	CALB1	Calcium-binding protein involved in calcium buffering in neurons
REELIN	RELN	Extracellular matrix protein involved in neuronal migration and positioning
SNAP25	SNAP25	Synaptosomal-associated protein involved in synaptic vesicle fusion
NSE	ENO2	Neuron-specific enolase, a marker for neuronal differentiation and injury
NCAM1	NCAM1	Neural cell adhesion molecule involved in cell-cell adhesion and neurite outgrowth
STMN2	STMN2	Stathmin 2 involved in microtubule destabilization and neuronal development
SYP	SYP	Synaptophysin, involved in synaptic vesicle trafficking
FOX3	RBFOX3	RNA-binding protein involved in neuronal differentiation
CAMKIIα	CAMK2A	Calcium/calmodulin-dependent protein kinase involved in synaptic plasticity
ELAVL3	ELAVL3	RNA-binding protein involved in neuronal mRNA stabilization

Important Mechanisms

Synaptic Plasticity

Synaptic plasticity refers to the ability of synapses—the connections between neurons—to strengthen or weaken over time in response to increases or decreases in their activity. This dynamic adaptability is fundamental to processes such as learning, memory formation, and cognitive flexibility. There are two primary forms of synaptic plasticity: long-term potentiation (LTP) and long-term depression (LTD). LTP involves the persistent strengthening of synaptic connections following high-frequency stimulation, enhancing the efficiency of neuronal communication. Conversely, LTD entails the gradual weakening of synaptic efficacy in response to low-frequency stimulation, allowing for the fine-tuning of neural circuits. Understanding synaptic plasticity mechanisms provides critical insights into how experiences shape the brain's structure and function, contributing to both normal cognitive processes and the development of neurological disorders. Advanced research in this area explores molecular pathways, such as calcium signaling and receptor trafficking, that underlie synaptic modifications, offering potential therapeutic targets for enhancing cognitive abilities and treating conditions like Alzheimer's disease and depression.

Ion Channel Dynamics

Ion channel dynamics encompass the study of how ion channels—protein structures embedded in neuronal membranes—regulate the flow of ions such as sodium, potassium, calcium, and chloride across the cell membrane. These channels are essential for generating and propagating electrical signals known as action potentials, which are the foundation of neuronal communication. The precise opening and closing of ion channels determine the excitability of neurons, influencing processes like signal initiation, transmission speed, and synaptic integration. Research in this area investigates various types of ion channels, including voltage-gated, ligand-gated, and mechanically-gated channels, each responding to different stimuli to modulate neuronal activity. Additionally, the modulation of ion channel function by neurotransmitters, second messengers, and pharmacological agents is a key focus, with implications for understanding and treating neurological disorders such as epilepsy, multiple sclerosis, and chronic pain. Advances in ion channel research also contribute to the development of novel drugs and therapeutic strategies aimed at restoring normal neuronal function and mitigating the effects of ion channelopathies.