Enlarged Neuron Model with Myelinated Axon – Detailed Soma, Dendrites & Synapse Structure - Myaskro

At Anatomy Shop, we understand that mastering neuroanatomy requires more than two-dimensional illustrations. Our Neuron Model is engineered to provide a comprehensive, three-dimensional perspective on the microanatomy and functional architecture of the nerve cell.

This highly enlarged model captures the intricate details of a multipolar neuron, including:

• Cell Body (Soma): Clearly demonstrates the nucleus, prominent nucleolus, Nissl granules, and perikaryon—critical for discussions on neuronal metabolism and protein synthesis.

• Dendritic Arborization: Extensive branching to visualize afferent signal reception, facilitating explanation of synaptic input and integration.

• Axon Hillock and Myelinated Axon: Distinct axon hillock for teaching action potential initiation; myelin sheath, nodes of Ranvier, Schwann cells, and internodal segments depicted for illustrating saltatory conduction.

• Axon Terminals & Synaptic Endings: Highlighting synaptic boutons and pre-synaptic structures—ideal for explaining neurotransmission, synaptic plasticity, and neuropharmacology.

• Vascular and Supporting Elements: Includes representations of neuroglia and associated blood vessels for a holistic understanding of the neuronal microenvironment.

Clinical & Academic Applications:

• Essential for explaining the structural basis of neurological pathologies such as demyelinating diseases (e.g., Multiple Sclerosis), neuropathies, and neurodegenerative conditions.

• Supports neurophysiology, histology, and clinical neurology teaching at undergraduate and postgraduate levels.

Model Features:

• Enlarged for high-visibility demonstration in lecture halls, practical labs, and clinics.

• Durable, medical-grade construction—engineered for years of repeated use and tactile exploration.

• Ideal for medical, dental, nursing, and allied health education.

At Anatomy Shop, our commitment is to anatomical excellence—delivering models that translate microscopic complexity into real-world clarity for future clinicians and educators.