The scientists believe the biomaterial is a promising alternative to the current standard practice of using a patient s own tissues, which requires additional surgery for bone extraction. At the same time, the production of this biomaterial tackles the problem of aquaculture waste. Credit: NTU Singapore. Read Time:
Scientists at Nanyang Technological University, Singapore (NTU Singapore) have developed a new biomaterial made entirely from discarded bullfrog skin and fish scales that could help in bone repair.
The porous biomaterial, which contains the same compounds that are predominant in bones, acts as a scaffold for bone-forming cells to adhere to and multiply, leading to the formation of new bone.
Thursday, 27 May 2021 10:02 PM MYT
A research team from the National Technological University in Singapore has developed a new biomaterial made entirely from discarded bullfrog skin and fish scales that could help in bone repair. Nanyang Technological University pic via TODAY
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SINGAPORE, May 27 Researchers from the Nanyang Technological University have discovered a new way of repurposing food waste for medical use by turning discarded bullfrog skin and fish scales into a “biomaterial scaffold” that can be used for tissue repair.
The porous biomaterial contains the same compounds that are predominant in bones, and acts as a support for bone-forming cells to adhere to and multiply, which then leads to the formation of new bone.
Credit: NTU Singapore
Scientists at Nanyang Technological University, Singapore (NTU Singapore) have developed a new biomaterial made entirely from discarded bullfrog skin and fish scales that could help in bone repair.
The porous biomaterial, which contains the same compounds that are predominant in bones, acts as a scaffold for bone-forming cells to adhere to and multiply, leading to the formation of new bone.
Through laboratory experiments, the NTU Singapore team found that human bone-forming cells seeded onto the biomaterial scaffold successfully attached themselves and started multiplying - a sign of growth. They also found that the risk of the biomaterial triggering an inflammatory response is low.