Computational nanotechnology is a field of study that combines the principles of nanotechnology with the power of computer science to create new and innovative technological solutions. Nanotechnology, which is the manipulation and control of matter at the atomic and molecular level, has enabled scientists and engineers to create materials, devices and systems with properties and capabilities not found in nature. Computational nanotechnology takes this one step further by applying computer science principles to nanotechnology in order to create more efficient and effective solutions. In the field of computational nanotechnology, scientists and engineers use computer simulations to study the behavior of nanoscale systems. By understanding the properties and behavior of nanoscale materials, engineers can design and fabricate new materials and devices with specific properties to meet specific needs. Examples of such materials and devices include nanotubes and nanowires for electronics, nanosensors for environmental monitoring, and nanomedicines for drug delivery. Computer simulations can also be used to optimize the design of nanoscale systems, allowing engineers to identify the most efficient and effective design. Additionally, simulations can be used to investigate the behavior of nanoscale systems in different environments, allowing engineers to develop robust and reliable systems. In addition to the use of computer simulations, computational nanotechnology also involves the development of software tools for the design, fabrication and characterization of nanoscale systems. These software tools allow engineers to analyze the properties and behavior of nanoscale systems more quickly and accurately than ever before. Furthermore, the software can be used to automate the fabrication and characterization process, allowing engineers to create new materials and devices faster and more efficiently. Computational nanotechnology is a rapidly evolving field with the potential to revolutionize many industries. By combining the power of computer science and nanotechnology, engineers can create new materials and devices with unprecedented properties and capabilities. In the near future, computational nanotechnology will continue to be a driving force in the development of new materials and devices with more efficient and effective solutions.
Title : Recent advances in nanomedicine: Sensors, implants, artificial intelligence, saving the environment, human studies, and more
Thomas J Webster, Hebei University of Technology, China
Title : Harnessing the unique transport properties of InAs nanowires for single molecule level sensing
Harry E Ruda, University of Toronto, Canada
Title : Success in developing CVD graphene coating on mild steel: A disruptive approach to remarkable/durable corrosion resistance
Raman Singh, Monash University, Australia
Title : Photonic metasurfaces in azobenzene materials
Ribal Georges Sabat, Royal Military College of Canada, Canada
Title : Advances in sustainable stimuli-responsive nanoscale platforms for biomedical applications
Manuela Cedrun Morales, CNR NANOTEC, Italy
Title : Using CuO polycrystalline nanofilms as sensor for small organic molecules
Paulo Cesar De Morais, Catholic University of Brasilia, Brazil