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Statement of the problem:
Regenerative medicine has received great attention as a new
strategy for injuries and diseases that are difficult to treat using
current methods. Cell production, which is vital for regenerative
medicine, has seen remarkable progress through breakthroughs
in evolutionary biology and tissue engineering; currently, cell
production requires many experimental operators who perform
small-scale manual cell cultures. Technological developments are
required to overcome this, including automation rather than manual
culture. The purpose is to highlight the developing automated cell
culture systems that feature a completely closed configuration with
the aim of helping regenerative medicine enter widespread use.
Methodology & Theoretical Orientation:
The practical application of automated cell culture systems in the
production of cells is essential for medical use. Development of a
robotic AI system that autonomously induces the differentiation of
induced Pluripotent Stem Cell-derived Retinal Pigment Epithelial
(iPSC-RPE) cells. The system replaces the manual operations
involved in cell culture with robotic arms.
Findings:
Induced Pluripotent Stem Cells (iPSCs) can be differentiated
into different retinal lineage cells, including Retinal Pigment
Epithelium cells (RPEs) and Retinal Ganglion Cells (RGCs),
which may show therapeutic effects in Age-related Macular
Degeneration (AMD) and glaucoma, respectively. The use of
autonomous robotic AI systems accelerates systematic and
unbiased exploration of experimental search space, suggesting
immense use in medicine and research. The harness of cells and
tissue produced from iPSCs may successfully treat a number of
otherwise difficult-to-treat diseases.
Conclusion:
The field of regenerative medicine is entering a new phase of
practical application in which iPSCs provide the basis for a variety
of revolutionary new treatments for previously difficult-to-treat
diseases. If automated cell culture techniques can be used to mass
produce the cells at lower cost with stable quality, more patients
could have access to regenerative medicine therapies.
Biography
Laila M. Montaser MD is a distinguished Prof. of Clinical Pathology, Chair Stem Cell, Regenerative Medicine, Nanotechnology and Tissue Engineering (SRNT) Research Group. She served as the Chair, Founder leader of Clinical Pathology Department, Faculty of Medicine, Menoufia University, Egypt. She is an internationally recognized stem cell technology and regenerative medicine professional is a transformational leader and original thinker who are responsive to change. She has key competence in stem cell technology and regenerative medicine policy reinforced by global level and international experience in research, formulation and capacity building. She gained three Awards: Medal of Merit for the ideal Doctor from Egyptian Medical Syndicate in 1986, 1998 and 2002. In the era of COVID-19, she was awarded forty one certificates of appreciation for successfully presenting 53 Global Webinars 43/53 (80.1%) for outstanding contribution to the commitment to provide continuing education to the international community from her home office.
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