Shop Now
DVM Central
md-e-c0024r-canine-radius-right-1705999372-.jpg
md-e-c0024r-canine-radius-right-1705999380-.jpg
md-e-c0024r-canine-radius-right-1705999401-.jpg
md-e-c0024r-canine-radius-right-1705999414-.jpg

$NaN
832 Viewed
Need Advice
Need Advice?
Ask Our Experts!
+1(407) 881-2002
Need help?
click below button to watch video, how you can add products to your cart!
Payment Methods
Payment Method
stripe
Secure Express Checkout
Secure Express Checkout

Save your payment information securelystripefor express checkout.

Sold by
Med Dimensions
Product Description

The Med Dimensions Canine Radius Right is a meticulously accurate, anatomically detailed bone model of the canine right radius the primary weight-bearing bone of the canine antebrachium produced by Med Dimensions using advanced 3D printing technology derived directly from real canine imaging data. As one of the most commonly fractured bones in veterinary clinical practice, the radius is a critical focus of canine orthopedic education, and this model delivers the anatomical accuracy and surface detail required for effective teaching at all levels. The model faithfully reproduces all clinically significant surface anatomy landmarks of the canine right radius including the radial head and neck, bicipital tuberosity, cranial border, interosseous space, medial and lateral styloid processes, and distal articular surface providing outstanding visual and tactile reference fidelity. As the right-side counterpart to the Canine Radius Left model (MD-E-C0024L), it supports bilateral comparative anatomy study and enhances clinical training realism for fracture classification, orthopedic surgical planning, and client communication sessions.

Anatomically accurate right radius primary forelimb weight-bearing bone in precise detail
Advanced 3D printed model precision manufacturing from real canine CT/MRI imaging data
Multi-purpose educational tool fracture teaching, orthopedic training & client communication
All key landmarks depicted radial head, bicipital tuberosity, styloid processes & articular surface