An Engineered Meniscus with Zone-specific Biochemical Composition

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Dr Vasif Hasirci and his team at the Middle East Technical University in Turkey has created a 3D printed PCL/hydrogel construct of a meniscus. Read more about the details here, including their dynamic stress test on the constructs.

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The knee meniscus is a rubbery C-shaped disc that acts as a cushion during movement. Creating an engineered meniscus is challenging because the native tissue has an interior cartilaginous zone and outer fibrous zone.

Dr Hasirci and his team at the Middle East Technical University in Turkey have successfully engineered an artificial meniscus through a series of steps including 3D printing, impregnation with agarose and gelatin methacrylate, loading with porcine fibrochondrocytes and incubation. The team then performed dynamic stimulation on the construct to mimic the physiological loading on the tissue and optimize the response of the engineered tissue by comparing them to the characteristics of native tissues. The end result is a construct with potential for use as a substitute for total meniscus replacement.

The CellScale UniVert participated in this research by providing the team a reliable instrument to perform mechanical tests with, allowing them to draw direct comparisons of mechanical properties of the engineered and native tissue. 

Read the full journal article here: https://doi.org/10.1088/1758-5090/aaf707

To read about the treatment of chronic wounds using “bead foams”, click here.

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CELLSCALE INSTRUMENT USED

UniVert

TAGS

Cartilage tissue engineering, Engineered Meniscus, Knee Biomechanics, Mechanical Testing of Soft Tissues, Meniscus Tissue Engineering, orthopedic research, regenerative medicine, UniVert

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Research Highlights

INSTRUMENT USED
UniVert
RESEARCH APPLICATIONS
3D Bioprinting & Bioink Materials TestingCartilage and Meniscus MechanicsScaffold Mechanical Testing
TESTING METHODS
Compression TestingFatigue Testing

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