Browsing Other - PRISM: Polymer, Recycling, Industrial, Sustainability and Manufacturing Institute by Author "Brennan Fournet, Margaret"
Now showing items 1-5 of 5
-
Development of a new bone scaffold for the treatment of large bone defects
Zhou, Keran; Cao, Tom Zhi; Brennan Fournet, Margaret; Devine, Declan (Athlone Institute of Technology, 2020-06)Large bone defects are typically caused by incidents such as fractures, diseases, trauma or surgeries. Worldwide more that 3/5 million bone grafts (either autografts or allografts) are performed each year. -
Orthopaedic 3D printing in orthopaedic medicine.
Brennan Fournet, Margaret; Azman, Farah Alwani Binti; Günbay, Suzan; Chen, Yuanyuan; Devine, Declan M. (Springer, 2019-09-17)Orthopaedic surgeries are commonly extremely challenging, and innovations are required to overcome a series of recognised difficulties and improve patient outcomes. Complications, in particular, the high occurrence of ... -
Preclinical assessment of biomimetic and bioactive bone regeneration scaffold in femoral condyle defect of Sprague Dawley rats.
Azaman, Farah Alwani; Brennan Fournet, Margaret (Athlone Institute of Technology, 2020)A fabricated biomimetic bone scaffold, incorporating osteogenic factors, presents a promising alternative to traditional autologous and allogeneic bone fracture treatments. Here, the principles of biology and engineering ... -
Turning agricultural waste into wealth: production of sustainable cellulose for hydroponic farming
Araujo, Jeovan; Brennan Fournet, Margaret; Chen, Yuanyuan (Technological University of the Shannon Midlands Midwest, 2022)Globally, it is estimated that approximately 998 million of agricultural wasteis produced yearly. This enormous amount of waste has become a matter of great public concern. However, agricultural waste is a natural resource ... -
We have a solution for plastic pollution!
Azeem, Mohammad; Adly, Olivia; Devine, Declan; Brennan Fournet, Margaret (Technological University of the Shannon Midlands Midwest, 2022-01)Most plastics degradation methods are currently inefficient and are limited by processing difficulties, quality loss and diminished value. This research focuses on the development of novel ultra-green chemical recycling ...