Tibial Condyles
Tibial Condyles - Related Videos
08:07
A Morphometric and Cellular Analysis Method for the Murine Mandibular Condyle
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Cited by 4 •
2018
This manuscript presents methods for analyzing morphometric and cellular changes within the mandibular condyle of rodents.
04:42
Generating a Rat Model of Tibial Neuroma Transposition
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2025
Source: Brakkee, E. M., et al. Surgery and Behavioral Testing in the Tibial Neuroma Transposition Model in Rats. J. Vis. Exp. (2023).This video demonstrates a procedure to generate a rat tibial neuroma transposition (TNT) model. After exposing the tibial nerve in the hind leg of an anesthetized rat, transect the nerve. Next, create a subcutaneous tunnel, thread the severed nerve through the tunnel, and suture it in place. In the absence of a target for reinnervation, disorganized axonal...
10:50
Tibial Nerve Transection - A Standardized Model for Denervation-induced Skeletal Muscle Atrophy in Mice
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Cited by 38 •
2013
The tibial nerve transection model is a well-tolerated, validated, and reproducible model of skeletal muscle atrophy. The model surgical protocol is described and demonstrated in C57Black6 mice.
06:53
A Rat Tibial Growth Plate Injury Model to Characterize Repair Mechanisms and Evaluate Growth Plate Regeneration Strategies
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Cited by 22 •
2017
The growth plate is a cartilaginous region in children's long bones where longitudinal growth occurs. When injured, bony tissue can form and impair growth. We describe a rat model of growth plate injury that leads to bony repair tissue, allowing the study of repair mechanisms and growth plate regeneration strategies.
10:31
Surgical Angiogenesis in Porcine Tibial Allotransplantation: A New Large Animal Bone Vascularized Composite Allotransplantation Model
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Cited by 5 •
2017
Currently any kind of vascularized composite allotransplantation depends on long-term-immunosuppression, difficult to support for non-life-critical indications. We present a new porcine tibial VCA model that can be used to study bone VCA and demonstrate the use of surgical angiogenesis to maintain bone viability without the need of long-term immune-modulation.
FAQs
The medial and lateral condyles receive forces from the femoral condyles and transmit body weight into the tibia. Their articular relationships work with the menisci, which improve joint congruence and distribute loads across the joint. This arrangement helps the knee bear weight while supporting controlled movement rather than concentrating forces in a single area.
The intercondylar region provides attachment sites for key knee ligaments and supports the menisci. These structures help coordinate the relationship between the femur and tibia during movement. Their positioning contributes to controlled rotation and helps limit excessive motion, so disruption in this region can affect both mechanical stability and the efficiency of force transmission.
The shape and spatial relationships of the condyles allow the knee to flex and extend while also permitting controlled rotation. At the same time, the surrounding articular, ligamentous, and meniscal relationships restrict excessive movement. This balance is important because the knee must remain mobile for locomotion without sacrificing stability during weight bearing.
These problems can disturb the relationships that normally coordinate articulation, load distribution, and movement. Fractures may compromise the condylar structure, cartilage damage can affect smooth joint interaction, and alignment abnormalities may redirect forces through the knee. The resulting changes can impair stability, movement, and efficient transmission of body weight.
An anatomical study should consider how the medial and lateral condyles relate to the femoral condyles, the intervening intercondylar region, the key knee ligaments, and the menisci. Examining these connections explains how the upper tibia participates in joint formation, supports controlled motion, and contributes to load distribution and stability.
Biomechanical analysis uses the condyles and their associated structures to understand how the knee transfers body weight, distributes loads, and controls movement. Attention to articulation, meniscal support, ligament anchoring, and alignment helps explain why altered anatomy can reduce mechanical efficiency. This context is useful when relating structure to movement and joint stability.
Their clinical importance comes from the functional consequences of damage or altered alignment. Fractures, cartilage injury, and structural abnormalities can interfere with the knee's stability, movement, and force transmission. Studying the condyles therefore connects anatomical structure with recognizable biological effects and helps frame how local joint problems may impair overall knee function.