Transverse Plate Stabilization
Transverse Plate Stabilization - Related Videos
03:57
Transverse Fracture of the Mouse Femur with Stabilizing Pin
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Cited by 3 •
2021
This protocol describes a method to perform fractures on adult mice and monitor the healing process.
05:45
Stabilizing a Femur Osteotomy with a Plate Fixation in Ambystoma mexicanum
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2024
A protocol for femoral osteotomy surgery with the use of internal plate fixation in mature axolotls is presented. The procedure can be used to perform comparative studies on limb regeneration and fracture healing in aquatic amphibians.
06:38
Establishment of a Segmental Femoral Critical-size Defect Model in Mice Stabilized by Plate Osteosynthesis
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Cited by 12 •
2016
Although mouse models are invaluable tools for bone tissue engineering, models of long bone defects are sparse. This need motivated development of the present protocol which uses a locking plate with four screws and a dedicated jig to perform and stabilize a reproducible, femoral, critical-size defect with low morbidity.
08:25
Transverse Aortic Constriction in Mice
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Cited by 263 •
2010
Transverse aortic constriction (TAC) in the mouse is a commonly used experimental model to study mechanisms underlying cardiac hypertrophy and heart failure development. Here, we describe procedures to constrict the aorta to create a reproducible degree of cardiac hypertrophy in mice.
08:32
Directional Solidification and Phase Stabilization
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2023
Source: Sina Shahbazmohamadi and Peiman Shahbeigi-Roodposhti-Roodposhti, School of Engineering, University of Connecticut, Storrs, CT Directional solidification zone melting is a metallurgical process in which a narrow region of a crystal (usually in the form of bar) is melted. The furnace moves along the rod shape sample, meaning that the molten zone is moved along the crystal and the molten zone is moved from one end of the bar to the other. This mechanism is widely used in alloys, however...
FAQs
Load sharing reduces the mechanical burden carried solely by the healing fracture region. Once screws secure the plate to bone on both sides, the construct helps limit displacement while distributing loads through the fixation. That stability allows new bone to bridge the fracture gap and helps maintain the anatomy needed for functional recovery.
Each screw anchors the plate to bone on a particular side of the fracture, allowing the plate to act across the injured area. Together, the screws help maintain alignment and resist displacement. Their bilateral fixation is therefore central to creating the stable positioning required while healing progresses, rather than serving only to attach hardware.
Maintaining alignment preserves the intended relationship of the bone as healing progresses. The plate and screws limit displacement, helping keep the fracture positioned while new bone bridges the gap. This matters clinically because the technique is used when stable positioning supports restoration of anatomy and functional recovery. Mechanical control therefore supports both structural and practical goals.
This approach may be considered for selected fractures in which stable positioning is needed to restore anatomy and permit functional recovery. The decision is therefore linked to the fracture’s need for reliable alignment and mechanical stability, rather than to hardware placement alone. In medicine, that role places transverse plate stabilization within surgical management of fractures requiring controlled positioning during healing.
The essential workflow centers on positioning the plate across the transverse fracture, securing it with screws to bone on both sides, and maintaining the intended alignment. These elements work together as an internal splint, providing mechanical stability during healing. The purpose is not simply hardware placement, but sustained control of fracture position as new bone bridges the gap.
Clinicians seek two linked outcomes: preservation of restored anatomy during healing and recovery of function. Plate-and-screw fixation supports these goals by limiting displacement and sharing loads while new bone bridges the gap. In this context, mechanical stability is valuable because it connects fracture management with the patient’s ability to regain useful function.