Life Size Human Foot and Ankle Model with Muscle Insertion Markings, Fully Articulated, Anatomical Foot Bone Model for Podiatry, Orthopedic Study, Education

Features

• Muscle Origin and Insertion MarkingsThis model features precise, dual-colored red and blue markings for muscle origins and insertions on every bone of the foot and ankle. This allows students and clinicians to easily identify and study the attachment sites of key foot muscles, thereby significantly deepening their understanding of musculoskeletal biomechanics.
• Complete Foot and Ankle Skeletal StructureThe model encompasses the complete skeletal structure of the foot (including the tarsals, metatarsals, and phalanges), as well as the distal portions of the tibia and fibula, accurately replicating the full skeletal anatomy of the human foot and ankle joint. The cut surfaces of the tibia and fibula are marked with red dots, clearly indicating their anatomical cross-sectional level for easy reference and orientation.
• Flexible, Articulated Joint DesignThe foot bones are connected via metal pins, allowing for natural flexion, extension, inversion, and eversion movements, thereby realistically simulating the actual range of motion of the foot and ankle joint. This interactive design is ideal for demonstrating joint function, range of motion, and injury mechanisms to both students and patients.
• Stable Display ConfigurationConstructed from premium PVC material, the model is wear-resistant, and easy to clean; it is specifically designed for long-term use in clinical and classroom environments. The product includes a sturdy white display base and a metal stand, ensuring the model remains securely and stably positioned on desks, teaching podiums, or examination room countertops.
• Versatile ApplicationsThis model serves as an ideal educational tool for podiatry clinics, orthopedic practices, medical schools, and anatomy courses. It acts as a powerful visual aid for explaining conditions such as foot fractures, ankle sprains, arthritis, and other skeletal pathologies to patients, thereby significantly enhancing patient understanding of their condition and improving the efficiency of clinical communication.