Nanotechnology has become a cornerstone in the field of tissue engineering, offering transformative solutions to the complexities of regenerative medicine. At its core are nanomaterial-based scaffolds meticulously designed to mimic the intricate architecture of the extracellular matrix. These scaffolds provide an optimal environment for cellular processes, guiding adhesion, proliferation, and differentiation critical for tissue regeneration. Nanoparticles, acting as precise carriers, revolutionize drug delivery by transporting therapeutic agents directly to target cells, minimizing collateral damage to healthy tissues. The nanoscale control over surface properties enables tailored modifications, influencing cell behavior and directing tissue-specific regeneration. Moreover, nanocomposites, such as carbon nanotubes, lend mechanical strength and conductivity to engineered tissues, bringing them closer to the mechanical integrity of native tissues. Diagnostic nanosensors embedded within these structures offer real-time insights into cellular activities, enabling dynamic monitoring of tissue maturation. Advanced 3D nanoprinting techniques ensure the precise layer-by-layer construction of complex tissue structures, allowing for the recreation of intricate anatomical features. Nanotechnology's impact extends to vascularization strategies, where nanoparticles release pro-angiogenic factors, fostering the development of functional blood vessels within engineered tissues. Stem cell engineering at the nanoscale allows for nuanced control over stem cell responses, influencing their fate and behavior for enhanced integration and differentiation within tissues. As these advancements progress, nanotechnology in tissue engineering holds the promise of not only refining our understanding of tissue regeneration but also facilitating clinical translation. The convergence of nanotechnology and tissue engineering stands at the forefront of regenerative medicine, poised to deliver personalized and effective solutions for tissue repair and replacement. The ongoing exploration of nanomaterials and techniques in tissue engineering is set to redefine the landscape of medical interventions, opening new avenues for regenerating damaged or lost tissues.
Title : Circumventing challenges in developing CVD graphene coating on mild steel: A disruptive approach to remarkable/durable corrosion resistance
Raman Singh, Monash University-Clayton Campus, Australia
Title : Highlighting recent advancements in electromagnetic field subwavelength tailoring using nanoparticle resonant light scattering and related topics
Michael I Tribelsky, Moscow State University, Russian Federation
Title : The impact of nanomedicine: 30,000 orthopedic nano implants with no failures and still counting
Thomas J Webster, Hebei University of Technology, United States
Title : Logistic-modified mathematical model for tumor growth treated with nanosized cargo delivery system
Paulo Cesar De Morais, Catholic University of Brasilia, Brazil
Title : Current and future of red and black phosphorus nanomaterials
Hai Feng Ji, Drexel University, United States
Title : Azodye photoaligned nanolayers for liquid crystal: New trends
Vladimir G Chigrinov, Hong Kong University of Science and Technology, Hong Kong
Title : Atomistic simulation of chemical ordering phenomena in nanostructured intermetallics
Rafal Kozubski, Jagiellonian University in Krakow, Poland
Title : The enhanced cytotoxic effect of curcumin on leukemic stem cells via CD123-targeted nanoparticles
Wariya Nirachonkul, Chiang Mai University, Thailand
Title : Efficiency of nanoparticles (Micromage-B) in the complex treatment of multiple sclerosis
Andrey Belousov, Kharkiv National Medical University, Ukraine
Title : Innovative method of nanotechnology application in the complex treatment of multiple sclerosis
Andrey Belousov, Kharkiv National Medical University, Ukraine