Track Categories
The track category is the heading under which your abstract will be reviewed and later published in the conference printed matters if accepted. During the submission process, you will be asked to select one track category for your abstract.
Nanotechnology is a category of science, engineering, and technology that works on a one-to-one hundred-nanometer scale. Nanotechnology is concerned with materials and systems whose structures and components, as a result of their Nano scale size, have novel and significant physical, chemical, and biological properties, processes, and phenomena. All science and engineering subjects include the study and application of extremely small things.nanomedicines are very effective at destroying cancer cells, which are already a popular way to repair damaged tissue and could be used to regenerate nerves in the future.
According to the standard definition of nanoscale, materials with a unit size of 1 to 100 nm (in at least one dimension) are considered to be nanomaterials. According to the standard definition of nanoscale, materials with a unit size of 1 to 100 nm (in at least one dimension) are considered to be nanomaterials.Utilizing developments in materials metrology and synthesis created in support of microfabrication research, nanomaterials research approaches nanotechnology from the perspective of materials science. Nanoscale materials frequently have special optical, electrical, thermal properties, or mechanical capabilities.
A Biomaterials is a substance that has been developed to interact with biological systems for therapeutic (treating, enhancing, repairing, or replacing a tissue function of the body) or diagnostic purposes. Biomaterials have been a field of study for about fifty years. Biomaterials science or biomaterials engineering is the study of biomaterials. Over the course of its history, it has grown consistently and strongly as a result of numerous businesses making significant financial investments in the creation of new goods.
The food and agriculture industries have benefited from the advancement of nanotechnology through the creation of smart packaging that prevents food waste and contamination, as well as nano-remediation of wastewater for irrigation of land. Nanomaterials have been developed to enhance crop growth, food quality and safety, and environmental monitoring. Low toxicity and good performance are important for the development of nanotechnology. The use of nanotechnology in agriculture offers genetic resources to enhance stress tolerance qualities as well as soil fertility and protection.
For tissue engineering and regenerative medicine, nanotechnology is currently used. By creating structures with specialized biochemical, mechanical, and electrical capabilities, nanostructures can simulate skin bioenvironments. Because of the improved cell attraction, growth, and differentiation provided by these nanostructures, tissue can be created. The need for new framework qualities rises in direct proportion to the variety of tissues that are being proposed for engineering.
Green nanotechnology employs existing principles of green chemistry and green engineering to create nanoparticles and nanomaterials that are free of toxic ingredients and can be produced at low temperatures using low energy and renewable inputs. It has two major goals: one is to produce nanomaterials that do not harm the environment or human health, and the other is to produce Nano products that solve environmental problems.
For tissue engineering and regenerative medicine, nanotechnology is currently used. By creating structures with specialized biochemical, mechanical, and electrical capabilities, nanostructures can simulate skin bioenvironments. Because of the improved cell attraction, growth, and differentiation provided by these nanostructures, tissue can be created. The need for new framework qualities rises in direct proportion to the variety of tissues that are being proposed for engineering.
Nanophysics could be a substitute discovery in areas whereNanoscience is used in the textile science industry to create nanoscale physical machines or tools. This session focuses on nanoscale material and structural strength, fabrication, and control. It identifies the physical properties of Nanomaterials .It is involved through nanometric physical structures and material objects.
The medical application of nanotechnology is known as nanomedicine. Nanomedicine includes medical applications of Nanomaterials and biological devices, as well as microelectronics biosensors and potential future applications of molecular nanotechnology such as biological machines. Understanding the toxicity and environmental impact of nanoscale materials is one of the current problems in nanomedicine (materials whose structure is on the scale of nanometers, i.e. billionths of a meter).
The scientific research of measuring at the Nano-scale, including in quantitative terms, as well as other mechanical laws, physical, electrical, magnetic, and optical properties, and their combinations, chemical, and biological properties of the validity of such techniques, and events at the Nano-scale, is referred to as nanometrology.
By definition, nanobiotechnology is a multi-strategic technique that combines nanotechnology and biotechnology to engineer the properties of bioactive molecules, for example, target delivery of therapeutics by nanoparticles, in a unique way as the concept shifts from fundamental biological study to clinical pharmacology. A well-defined Nanobiotechnology has controllable dimensions and properties and can transport a variety of functional biomolecules such as small molecules, proteins, genes, and so on. These unusual properties enable them to demonstrate significant effectivity for the diagnosis and/or treatment of a variety of diseases such as cancer by precisely tuning the size, morphology, and surface property.
Polymer science, also known as macromolecular science, is a branch of materials science that studies polymers, primarily synthetic polymers like plastics and silicones. Polymer scientists come from a variety of disciplines, including chemistry, physics, and engineering. The physical properties of polymer materials and their engineering applications are the focus of polymer physics. It aims to present the mechanical, thermal, electronic, and optical properties of polymers in relation to the underlying physics that governs a polymer microstructure. Despite its origins as a statistical physics application to chain structures, polymer physics,nanoparticles,Nanobiotechnology has now evolved into its own discipline.
Carbon nanotubes (CNTs) have appeared as one of the most technologically advanced Nano vectors for drug and biomolecule delivery. They have a variety of appealing properties, including large surface areas with well-defined physicochemical properties and special optical and electrical properties.
In order to determine whether and to what degree these qualities can damage the environment, people, and natural processes, studies in nanotoxicology should be conducted. Nanotoxicology is defined as the area of toxicology that examines the toxicity of Nanomaterials.
Nanobiotechnology is being used in the diagnosis and treatment of major diseases, including cancer. Nano medicine has opened the path for these new emerging technologies. The new gadget, which is supported by nanotechnology, is the size of a human cell. These methods can be used by scientists and medical professionals to identify cancer early and continue therapy with fewer adverse effects, enabling it to be treated before it results in irreparable harm.
The main goal of nanomedicine research has been the delivery of drugs using tiny particles and related compounds (Nano drug delivery systems NDDs). Researchers in this discipline were interested in the topic because nanoparticles have the capacity to preferentially cross cell membranes and deliver drugs to particular locations. The potential for translational nanomedicine applications has increased with the recent discovery of multifunctional Nanoparticles having many ends uses or properties (for instance, diagnosis and therapy with a single conjugation). Depending on how they were given, several types of Nanoparticles were created. Drug-resistant anti-cancer treatments (the ingestion of drug conjugate) and the direct absorption of drugs or drug nano conjugates in the mouth cavity (similar to chewing gum) for psychotropic medications both involve oral medication delivery using kept updated multiphase Nanoparticles
Physical signals can control cellular behavior and organize sophisticated cell strategies, such as stem cell differentiation and tissue development, according to 3-D cell tradition, which replicates the length scale of naturally occurring Nanoparticles structures. We now have the ability to design stimuli-responsive interfaces for patterns of change regulating extracellular physiological and biochemical inputs and that to advancements in nanotechnology. For intracellular sensing and distribution at the sub-cellular level, artificial, natural, and cellularized Nanofiberfiber scaffolds are employed. Rapid advancements in the field of the nanoengineered cell-material interface have the potential for significant advances in fundamental cellular research and tissue regeneration.
A surface containing holes or loose particles is one of the most basic medical nanomaterials. Small enough to prevent larger immune system molecules like antibody and virus particles from passing through, these holes are large enough to allow small molecules like oxygen, glucose, and insulin to pass through. The hybrid "nanodevice" consists of covalently joined nucleic DNA fragments and biocompatible 4.5 nm titanium dioxide semiconductor nanocrystals. As biosensors for detecting glucose, ethanol, hydrogen peroxide, certain proteins (such as immunoglobulins), and electrochemical DNA hybridization, carbon nanotubes, both single-walled and multi-walled, are being researched.
Nanotechnology has a wide variety of uses and approaches that can enable or improve implant and surgical equipment design. Nanotechnology holds the promise of "smart" cancer treatment: Nanoparticles can correctly target and destroy developing cells. The delivery of medicine payloads to the brain and reconstructive surgery may be two of the most important applications for this type of Nanoparticles sleeping pill delivery. Crossing the blood-brain barrier, the brain's protective barrier, is an incredible test in any case. Amazing Nanoparticles have made this possible.
Future healthcare efficiency, convenience, and speed will be enhanced by molecular nanotechnology, while risk, cost, and invasiveness will be reduced. Doctors will be able to perform direct surgery on individual human cells in vivo thanks to MNT. If a large number of micro-medical nanorobots can be designed, manufactured, and deployed, this will be possible. Nano-bearings and nano-gears may be the simplest component category to build due to their fundamental structure and operation.
Nanoparticle drug delivery systems are designed technologies that utilize Nanoparticles for targeted medicine administration and therapeutic agent-controlled release. The most recent medicine delivery technology should have side effects and lower dosage and frequency of use.