Amino Acid and Proximate Analysis of Type-1 Collagen from Sea Cucumber and Tilapia-Skin and its Potential Application as Artificial Tendon

Tendon injury is a medical indication that requires surgical therapy and prolonged recovery. Collagen plays a crucial role in the wound healing process. Collagen maintains homeostasis, interacts with platelets, and enhances cellular components. Most living organisms consist of collagen components as...

Бүрэн тодорхойлолт

Номзүйн дэлгэрэнгүй
Үндсэн зохиолчид: Safira, Arifia, Rani, Cinta Atsa Mahesa, Puspitasari, Roro Ayu, Ayuningtyas, Anindyta Kirana Putri, Mahendra, Yayang Amru, Purnomo, Agus, Fikri, Faisal, Chhetri, Shekhar, Purnama, Muhammad Thohawi Elziyad
Формат: Өгүүллэг
Хэл сонгох:English
Хэвлэсэн: Universitas Airlangga 2022
Нөхцлүүд:
Онлайн хандалт:https://repository.ugm.ac.id/282963/1/PharmacognJ-14-4-358.pdf
Тодорхойлолт
Тойм:Tendon injury is a medical indication that requires surgical therapy and prolonged recovery. Collagen plays a crucial role in the wound healing process. Collagen maintains homeostasis, interacts with platelets, and enhances cellular components. Most living organisms consist of collagen components as fibrillar proteins. In this study, the potential properties of type-1 collagen from sea cucumber and Tilapia-skin were evaluated depend on proximate analysis, amino acid composition, and moisture-absorption ability. The result showed that Tilapia-skin has a higher protein and fat composition compared to the sea cucumber. In contrast, moisture, ash, and yield composition showed higher for sea cucumber compared to Tilapia-skin. Meanwhile, based on amino acid analysis was revealed that proline, alanine, methionine, isoleucine, leucine, phenylalanine, and lysine were lower on sea cucumber compared to Tilapia-skin. In conclusion, both type-1 collagen material from sea cucumber and Tilapia-skin might be developed as a biomaterial for tendon injury. It is crucial that further studies be carried out to emphasize the potential of biodegradable and bio-replaceable materials using the in vivo model.