PVC neuron model produced by die casting, designed for clear, handson anatomical study. The model consists of two detachable parts showing an enlarged view of neuronal cell bodies and nerve fibers as seen under an electron microscope. It combines realistic appearance, functional detail, and durable construction for repeated classroom and training use. Key benefits Durable construction: Made from PVC plastic using a die casting process for a realistic look and long service life. Clear, detailed anatomy: Displays neuronal axons, dendrites, Nissl bodies, neurofilaments, myelin sheaths, Schwann cells, Langhe nodes, microtubules, and other structures with a total of 15 site indicators. Twopart, detachable design: Separate cell body and nerve fiber sections allow close inspection and practical demonstration of internal structures. Easy to use in teaching: Provides a clear view of all main neuronal structures, supporting explanation and student interaction. Practical and portable: Compact, sturdy design suitable for classroom handling and repeated demonstration. Features Material: PVC plastic. Manufacturing: Die casting process for stable shape and surface detail. Composition: Twopiece model showing enlarged neuronal cell bodies and nerve fibers under electron microscope perspective. Markings: Fifteen labeled sites to identify and discuss key structures. Operation: Designed for convenient disassembly and reassembly during demonstrations. Suggested applications and scenarios Anatomy lectures and demonstrations: Use the model on a table or demonstration stand to point out axons, dendrites, Nissl bodies, and other structures during classroom teaching. Laboratory practicals and study sessions: Students can handle the twopart model for close study and review before exams or practical assessments. Clinical teaching and staff training: Useful for practical training in medical schools, nursing schools, occupational health schools, clinical hospitals, and primary health units to support curriculum objectives and improve conversion rates. This model is intended for educational and training purposes where a clear, durable, and accurate representation of neuronal microanatomy is required.