Your trusted destination for CME, CPD & Medical Education across the Middle East.
The conference focuses on tissue engineering, regenerative medicine, stem cell research, biomaterials, and cell-based therapies. Topics may include tissue scaffolds, 3D bioprinting, stem cells, biomaterial development, organ regeneration, cellular therapies, gene-based approaches, engineered tissues, wound healing, translational research, and emerging regenerative technologies.
The International Conference on Tissue Engineering and Regenerative Medicine (ICTEREM-26) brings together researchers, clinicians, biomedical engineers, cell biologists, scientists, and healthcare professionals to discuss recent advances in tissue engineering and regenerative medicine. The conference focuses on innovative approaches for repairing, replacing, and regenerating damaged tissues and organs through the integration of biology, engineering, and medical science. It provides a multidisciplinary platform for presenting research on stem cells, biomaterials, tissue scaffolds, cellular therapies, and engineered biological structures. Key discussions may address 3D bioprinting, organ regeneration, cell-based therapies, biomaterial development, tissue repair, and advanced regenerative technologies. The program also highlights translational research aimed at advancing promising laboratory discoveries toward clinical applications. Participants can exchange knowledge on emerging techniques, therapeutic challenges, safety considerations, and potential applications of regenerative medicine across different medical fields. ICTEREM-26 aims to foster interdisciplinary collaboration and support the development of innovative strategies for tissue repair, restoration, and regeneration.
Fundamental concepts and current applications of engineering biological tissues for repair, replacement, and regeneration.
Advances in therapies designed to restore, repair, or regenerate damaged tissues and organs.
Current research on stem-cell biology, differentiation, expansion, and therapeutic applications.
Techniques for controlling stem-cell behavior and directing cells toward specific tissue lineages.
Development and application of biocompatible materials that support tissue regeneration and cellular growth.
Design of three-dimensional structures that provide mechanical and biological support for regenerating tissues.
Use of additive manufacturing and bioinks to construct tissue-like structures for research and potential clinical applications.
Development of three-dimensional cellular models that reproduce selected structural and functional characteristics of human tissues.
Emerging approaches to reconstruct or regenerate complex organs using cells, biomaterials, scaffolds, and engineering technologies.
Therapeutic use of living cells to support tissue repair, regeneration, and restoration of biological function.
Application of gene-based technologies to influence cellular behavior and enhance regenerative processes.
Innovative cellular, biomaterial, and therapeutic approaches for accelerating tissue repair and wound healing.
Engineering strategies for repairing bone defects and promoting new bone formation.
Regenerative approaches for restoring damaged cartilage and addressing musculoskeletal conditions.
Tissue-engineering strategies for restoring skin and other soft tissues following injury or disease.
Emerging cell-, biomaterial-, and tissue-engineering approaches for repairing damaged cardiac tissue.
Regenerative strategies aimed at repairing damaged neural tissues and supporting neurological recovery.
Use of bioreactors to provide controlled mechanical, chemical, and environmental conditions for tissue development.
Development of engineered systems that reproduce important structural, mechanical, and biochemical features of natural tissues.
Strategies for moving regenerative technologies from experimental research toward clinical implementation.
Secure your seat and earn full credit eligibility with encrypted checkout.
Secure payment processing & PCI-aligned flow