Interbody Device
Interbody Device - Related Videos
06:40
Development of a Rat Caudal Interbody Fusion Model: A Pilot Feasibility Study
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2026
This study demonstrated the technical feasibility of a pilot rat caudal interbody fusion model using posterior cage and plate fixation. Histomorphometric analysis at 12 weeks confirmed continuous bone bridging and distinct intra-cage bone maturation patterns. This technical model serves as a preliminary foundation for future large-scale studies.
08:29
Thermal Measurement Techniques in Analytical Microfluidic Devices
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Cited by 6 •
2015
Here, we present three protocols for thermal measurements in microfluidic devices.
11:06
Fabrication of Fully Solution Processed Inorganic Nanocrystal Photovoltaic Devices
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Cited by 1 •
2016
This protocol describes the synthesis and solution deposition of inorganic nanocrystals layer by layer to produce thin film electronics on non-conductive surfaces. Solvent-stabilized inks can produce complete photovoltaic devices on glass substrates via spin and spray coating following post-deposition ligand exchange and sintering.
05:52
Novel Mini-open Transforaminal Lumbar Interbody Fusion
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2025
The protocol introduces a novel mini-open TLIF, which can significantly reduce intraoperative blood loss, achieving minimally invasive outcomes with enhanced recovery.
08:28
Overview of BioMEM Devices
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2023
Bio-microelectromechanical systems, also called BioMEMs, are microscale devices that enable the use of small sample and reagent volumes for diagnostic devices in vivo and in vitro. These devices perform various functions such as filtration, sensing, or synthesis on the microscale, enabling cost savings and improved sensitivity. This video introduces BioMEMs, touches on their use in the bioengineering field, and presents some prominent methods used in fabrication. Additionally, this video...
FAQs
Its position between adjacent vertebral bodies allows the implant to help preserve disc height and spinal alignment while mechanical loads pass through the reconstructed motion segment. This relationship is important because the device must provide structural support after the damaged disc is removed, while also creating conditions in which the segment can remain supported during the healing process.
Bone graft changes the role of the device from purely structural support to a fusion construct. The available space can support bone growth across the motion segment, allowing biological fusion to develop while the implant maintains height and alignment. This combination matters in spine biology because successful reconstruction depends on both mechanical stabilization and the body's formation of bridging bone.
Design determines how the implant participates in load transfer and how much space is available for bone graft. Those features link physical reconstruction with a biological response: the device supports the vertebral segment, while the graft-filled region can support bone growth. Consequently, design is evaluated not only for immediate structural restoration but also for its contribution to eventual fusion.
Maintaining disc height and alignment helps restore the spatial relationship of the treated vertebral segment after disc removal. These structural goals explain why the implant is placed between vertebral bodies rather than used only as an external stabilizer. In the biological context, preserving the reconstructed geometry also provides the framework within which bone growth can bridge the treated motion segment.
The general workflow begins with removal of the damaged intervertebral disc, followed by placement of the device between the adjacent vertebral bodies to maintain height and alignment. Bone graft may then occupy the device's space, where it can support bone growth across the motion segment. The overall approach combines disc removal, structural reconstruction, and biological fusion.
Interbody devices may be considered when degenerative disc disease, spinal instability, deformity, or another condition requires disc removal and stabilization. Their use therefore extends beyond a single diagnosis: the common rationale is to reconstruct a damaged or unstable motion segment while preserving height and alignment and, when graft is included, supporting fusion.
They provide a clear example of how an implant and a biological repair process operate together. The device supplies structural support and a space for graft, whereas bone growth across the motion segment supplies the biological basis for fusion. This interaction makes implant integration, bone healing, and mechanical reconstruction interconnected topics in spine biology.