Tissue engineering scaffolds strive to create biophysical and chemical signals that resemble the stem cell environment. Stem cells, on the other hand, may detect these features and alter their fate. Scientists use scaffold design and in vitro studies to try to explain these events, but the mechanisms involved are still unknown. Mechanical forces in cell behaviour, in particular, have only recently begun to gain attention. Mechanical stress, for example, can cause cell deformation and remodelling, which has a substantial impact on cellular function. Living cells also sustain or create forces, and mechanical loading causes deformation and remodelling, which has an impact on many aspects of human health and disease. As a result, stress in cell behaviour has received increased attention. It's difficult to model the constitutive behaviour of cells using biophysical cues. The stimuli are present in vivo, but reproducing their features in vitro is a difficulty.
Title : AI-integrated high-throughput tissue-chip for space-based biomanufacturing applications
Kunal Mitra, Florida Tech, United States
Title : The era of artificial intelligence (AI) and its use in regenerative medicine
Vasiliki E Kalodimou, European University-Cyprus Ltd, Cyprus
Title : Advanced 3D tissue models: Pioneering tools for investigating health and disease
Lucie Bacakova, Institute of Physiology of the Czech Academy of Sciences, Czech Republic
Title : The role of gingival fibroblasts in periodontal diseases and regeneration
Katarzyna Gawron, Medical University of Silesia in Katowice, Poland
Title : Channel fidelity limits in in-wound hydrogel printing for cartilage regeneration
Evgenia Papadimitriou, AVT.CVT, RWTH University, Germany
Title : Role of textile materials in tissue engineering and regenerative medicine
Gokarneshan Narayanan, SSM College of Engineering (Formerly), India