Cell encapsulation is a process in which living cells are encapsulated in selectively permeable polymeric materials (membranes/beads), making them a potential treatment for diseases like haemophilia, Parkinson's disease, lysosomal storage disorder (LSD), cancer, and diabetes. The encapsulated cells become immune, which means that the host's immune system is unable to recognize them and hence does not mount an immunological reaction against them. In tissue engineering applications, cell encapsulation could be a remedy to transplant rejection. Immobilization of cells within a polymeric semi-permeable membrane is the goal of cell microencapsulation technology. It allows for the bidirectional diffusion of molecules required for cell metabolism, such as oxygen, nutrients, growth factors, and other growth factors, as well as the outward diffusion of waste products and therapeutic proteins. At the same time, the membrane's semi-permeable nature prevents immune cells and antibodies from attacking the encapsulated cells, which they consider as foreign intruders, due to their semi-permeable nature. After an organ transplant, cell encapsulation may lessen the requirement for long-term immunosuppressive medicines to control side effects.
Title : Small activating RNA from concept to phase 2 clinical trials
Nagy Habib, MiNA Therapeutics Ltd, United Kingdom
Title : Mechanical modulation of cell response in 3D bioprinted hydrogels
Ruben F Pereira, University of Porto, Portugal
Title : Electroactive polymer-based smart scaffolds for tissue engineering and regenerative medicine
Federico Carpi, University of Florence, Italy
Title : Graphene “Hastalex®”, butterfly, and stem cells are set to revolutionise the development of human organs.
Alexander Seifalian, NanoRegMed Ltd, BioScience Innovation Centre, United Kingdom
Title : Design of 3D bioengineered personalized scaffolds to potentiate bone ingrowth and angiogenic network for oral tissues reconstruction
Christiane Salgado , Institute of Research and Innovation in Health(i3S), Brazil
Title : RADA16-I based scaffolds for wound healing and regenerative medicine
Deptula Milena, Medical University of Gdansk, Poland