31st International Conference on Nanomedicine and Nanomaterials

1. Stronger Materials/Higher Strength Composites Even lighter and stronger constructions than those made feasible by carbon fibre will be produced by the next generation of graphene and carbon nanotube-based electronics, which will increasingly be seen in automobiles, bicycles, and athletic goods. The creation of carbon nanotube-pre-impregnated materials, which offer superior conductivity and solve one of the main problems with traditional carbon fibre/epoxy composites, is one area of advancement. Moreover, several space missions have already used carbon nanotube meshes. 2. Scalability of Production The scalability of technology that can have an impact on grand challenge issues like food, water, energy, and the environment is a major hurdle in the production of nanomaterials. The major cause of these issues' enormous scale is their pervasiveness, which has led to the commoditization of connected business marketplaces. A technology that makes use of a special property of a

Organic, inorganic, and hybrid nanomaterials are the most commonly investigated types of nanomaterials in nanomedicine. Dendrimers, liposomes and exosomes, quantum dots, fullerenes, polymeric micelles, nanoemulsions, RNA nanoparticles, and nanotubes are among the examples. Dendrimers, which have a branched structure, and liposomes, which are similar to lipids, are examples of organic molecules, with each having a feature that helps stop a cancer cell. Drug carriers Nanoparticles (particles less than 100nm in length) outperform standard medications and their delivery techniques in three ways: surface properties, the ability to change the toxicity of active cancer cells, and tumor-specific components. A drug carrier is an inorganic nanoparticle such as gold, silver, or platinum. How does the medication get to the patient? "The electrostatic forces between adjacent molecules aid in the delivery of drug to the tumor site," he explains. Nanomaterials are particularly be