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.

Track 1 : Nanomaterials and Nanotechnology

The process of nanotechnology  occurs at the quantum, molecular, and supramolecular levels. Materials scientists and engineers examine how nanomaterial evolve and how they may be utilised to process and process things at the nanoscale since many substances' characteristics alter when their size is close to nanometers. The study of synthetic materials encompasses the discovery, design, structure, and use of nanoscale materials. Research on nanomaterials uses a scientifically sound approach to nanotechnology, influencing improvements in measurement and synthetic usage in research on subtractive manufacturing. At the nanometer scale, there are structured objects with a variety of photonic, electrical, or mechanical properties.

Track 2 : The evolution of Nanomedicine with the Re-evolution of Nanotechnology

The clinical use of nanotechnology is broadly named as naomedicine . It goes from clinical uses of nanomaterials to nanoelectronics biosensors.Nano medicine introduces nanotechnology ideas into medication and consequently joins two huge cross disciplinary fields with a remarkable cultural and prudent potential emerging from the regular blend of explicit accomplishments in the separe fields.Nanotechnology has considerably accelerated the development of regenerative medicine in the past few years. Utilization of nanotechnology in regenerative medicine has changed the planning of grafts and scaffolds which has brought about new grafts\scaffold frameworks having fundamentally improved cell and tissue regenerative properties.

Track 3 : Pharmaceutical Nanotechnology

Pharmaceutical nanotechnology is centred on ground-breaking developments for designing specialised medication delivery systems. The drug delivery system has a beneficial effect on how quickly a drug or other related chemical substance is distributed, metabolised, and excreted from the body. Additionally, the Pharmaceutical nanotechnology is centred on ground-breaking developments for designing specialised medication delivery systems.

The drug delivery system has a beneficial effect on how quickly a drug or other related chemical substance is distributed, metabolised, and excreted from the body. Additionally, the drug's attachment to its target receptor and subsequent impact on that receptor's signalling and activity are made possible by the drug delivery technique.Pharmaceutical nanotechnology includes the use of nanoparticles in pharmacy along with imaging, biosensor, and medication delivery systems drug's attachment to its target receptor and subsequent impact on that receptor's signalling and activity are made possible by the drug delivery technique.

Track 4 : Research and Development in Nanomedicine

Nanomedicine is a branch of medicine that employs the understanding and resources of nanotechnology to diagnose and treat illness. Nanomedicine makes use of tiny components such biocompatible nanoparticles and nanorobots to diagnose, transport, sense, or operate on living things. Image for nanomedicine research and development Due to their unique mechanical, optical, and electrical properties, nanomaterials are frequently used in pharmaceutical and medical applications. Innovative therapies, imaging of sick tissues, and the detection of biological molecules are all made possible by the use of nanomaterials.

Track 5 : Design and Characterization of Nano drug systems

A subfield of nanometrology called "nanoparticle characterisation" is concerned with identifying and measuring the physical and chemical characteristics of nanoparticles. Characterization of nanomaterials picture These methods include SQUID, VSM, FMR, and XMCD as examples. Numerous other methods offer further details about the structure, elemental make-up, optical characteristics, and other general and more focused physical characteristics of the nanoparticle samples.

Track 6 : Impact of Nanomedicine on Health Care

A number of possible routes for bettering therapeutic decision-making and care, as well as for recuperating tissues and organs, are presented by the application of nanotechnology to human social insurance. For upcoming clients, it has the power to totally transform the human services industry. Nanotechnology will be helpful in addressing the most important medical issues of the day, including the improvement of medication delivery systems, the elimination of brain blockages, the identification and treatment of disease cells, and the restoration of damaged organs.
 
Nanotechnology is applicable to both in vivo and in vitro biomedical research and applications. Early-stage tumour cells can be targeted with nanoparticles. Nanotechnology can create "signature protein" to treat tumours.Access to medical equipment, information, and theranostics are becoming more accessible because to nanotechnology. Nanomedicine is the application of nanotechnology in healthcare to develop effective approaches to illness detection, treatment, and prevention. The impact of nanomedicine on society is the main topic of this article by AZoNano.

 

Track 7 : Future Concepts in Nanomedicine

Future nanotechnology technologies have both advantages and disadvantages. On the one hand, the industry is expected to grow on a worldwide scale, driven by factors such as technical breakthroughs, more government support, higher private investment, and rising consumer spending.consumer demand for smaller gadgets. The hazards to the environment, human health, and safety posed by nanotechnology, as well as issues with its commercialization, could, however, limit market growth.
Nanotechnology may eventually make it possible for items to collect energy from their surroundings. With a high conversion efficiency, new nano-materials and ideas are now being developed that have the ability to generate energy from motion, light, temperature fluctuations, glucose, and other sources. The possibility that illness detection, treatment, and prevention may be significantly enhanced by the application of nanotechnology in dentistry and medicine is developing. Growing interest in the potential medical applications of nanotechnology has given rise to a brand-new field called nanomedicine.

Track 8 : Nanotechnology: In other fields

Nanotechnology has already been adopted by the information and communications sectors as well as the food and energy sectors. It is also used in a number of pharmaceuticals and medical items.Additionally, new opportunities for reducing environmental contamination may be provided by nanomaterials.

Track 9 : Nanodrug Delivery

The field of drug distribution has at long last and firmly welcomed nanotechnology. Intelligent drug delivery systems' capabilities are constantly being enhanced in order to increase therapeutic action and reduce undesired side effects. The following are the main objectives for research on nano-biotechnologies in drug delivery more precise medicine distribution and targeting,toxicity reduction with preservation of therapeutic benefits,Greater biocompatibility, increased safety, and quicker creation of new safe medications. In nanomedicine and nano delivery systems, materials in the nanoscale range are employed as diagnostic tools or to deliver therapeutic substances to specific targeted regions in a controlled manner.
Drug delivery utilising nanoparticles and conjugates is a significant area of research in nanomedicine (Nano Drug Delivery Systems NDDs). Interest in this topic has been prompted by nanoparticles' potential to preferentially cross cell membranes and deliver medications to specific locations. The potential for translational nanomedicine applications has increased with the recent discovery of multifunctional nanoparticles having many end-uses or qualities (for example, diagnosis and therapy with a single binding). The delivery mechanism affects the design of the nanoparticle. It has been proven that oral drug delivery using nanosystems, such as multi-component microemulsions, is effective for the delivery of psychoactive drug direct oral intake of medicines or drug nanocomplexes as well as for the delivery of drug-resistant anticancer therapy (drug conjugate uptake). (such as chewing gum).

Track 10 : Nanomedicine in Cancer Therapeutics

By acting as an adjuvant for vaccine therapy or as drug carriers that can help us target tumours more effectively with anti-cancer medicines, while leaving normal tissues unaffected, nanomedicine can be utilised to treat cancer and increase immune response against malignancies Nanotechnology may improve the precision and security of cancer treatments. Chemotherapy and other medications are delivered directly to the tumour by specially created nanoparticles. Until they get there, they don't discharge the medication. This prevents the medications from harming the tumor's surrounding healthy tissues.

Track 11 : Nanorobotics and Nanomedicine

In several areas of pre-clinical and clinical medicine, nanorobots are used. Nanorobots are used in pre-clinical medicine for bioimaging, different drug delivery methods, gene therapy, living cells, and inorganic therapies.

In order to prevent disease and to image, diagnose, treat, monitor, repair, and regenerate biological systems, the field of medicine known as nanomedicine seeks to apply nanotechnology, or the manipulation and manufacture of materials and devices with a size of roughly 1 to 100 nanometers (nm; 1 nm = 0.0000001 cm), to these biological systems.

Track 12 : Nanotechnology and surgery

In order to modify organelles and other subcellular structures with a regulated force, rapid laser beams are focussed by an objective microscope lens in a procedure known as nanosurgery. With the use of this exact method, a single cell can be destroyed without endangering nearby healthy cells.
Richard Feynman, a quantum theorist who won the Nobel Prize, was the person who initially suggested the idea of nanotechnology. Nanomaterials with at least one dimension less than 100 nm are the focus of nanotechnology.
Successful incorporation of nanosized particles into contemporary surgical practise has led to the development of modified organs as well as novel, minimally invasive imaging techniques and better medication delivery systems. The most recent developments are highlighted in this article.Beyond these existing uses, integrating nanoscale robotics into surgical and medical practise has potential.

Track 13 : Nanoparticles for drug delivery

Targeted, site-specific medication delivery is the most exciting potential use of nanomaterials. Nanoparticles are the building blocks for bio-nanomaterials, and significant efforts have been made to design drug delivery systems based on functionalized nanoparticles . The potential to eradicate a tumorous outgrowth without causing collateral damage through nanomaterial-based drug delivery has generated significant interest. The nanoscale size ranges were initially developed as vaccination and anticancer medication carriers , but they may now greatly improve drug delivery by impacting the bio-distribution and toxicodynamics of pharmaceuticals  drug delivery.

Track 14 : specific drug delivery

Targeted drug administration, also known as careful medication distribution, is a method of administering medication to a patient that increases the concentration of the drug in specific areas of the body relative to other areas. This method of delivery is heavily based on nanomedicine, which aims to use drug delivery influenced by nanoparticles to combat the drawbacks of conventional medication delivery. These nanoparticles would be loaded with drugs and targeted to specific areas of the body where there is only ill tissue, avoiding collaboration with healthy tissue. A targeted drug delivery system's goal is to locate, contain, target, and ensure the drug's interaction with the diseased tissue. 

A targeted drug delivery system's goal is to locate, contain, target, and ensure the drug's interaction with the diseased tissue. While the focused on discharge framework gives the medication in a dose structure, the conventional method of medication delivery involves ingesting the medication across a natural layer. The advantages of the centred on discharge framework include a reduction in the frequency of the patient's measures, a medication's more uniform effect, a reduction in medication outcomes, and a reduction in the variability of flowing medication levels. The framework is hindered by substantial expense, which complicates efficiency and limits the ability to adjust the measurements.

 

Track 15 : Drug Design

Drug Design, often known as prudent medication planning or basically sane planning, is the creative interplay of finding new medications based on the knowledge about a natural objective. The drug is typically a natural small particle that activates or inhibits a biomolecule's ability, such as a protein, giving the patient a therapeutic benefit. Drug configuration, in its most basic sense, refers to the arrangement of atoms that correspond in charge and fit to the biomolecular focus with which they interact and, consequently, bind to it.
 
Medication plan depends on PC showing techniques occasionally but not always. This type of demonstration is occasionally referred to as PC-supported medicine. Finally, a drug plan that is based on knowledge of the biomolecular target's three-dimensional structure is referred to as a design-based drug plan. In addition to tiny atoms, biopharmaceuticals, such as peptides and particularly useful antibodies, are an unquestionably important class of drugs. Computational methods have also been developed to enhance the affinity, selectivity, and reliability of these protein-based treatments.

Track 16 : Drug Delivery Equipment and Machinery

Important industry participants/vendors, engineers in equipment from laboratory equipment, analytical equipment, auto injectors, semi-automatic R&D equipment, large volume production machinery, and drug delivery pilot equipment's round out the equipment and machinery for drug delivery. Major area participants/vendors, engineers in equipment from laboratory equipment, analytical equipment, auto injectors, semi-automatic R&D equipment, large volume production machinery, and drug delivery pilot equipment are included in the session on equipment and machinery for drug delivery.
Major industry participants/vendors, engineers in equipment  from laboratory equipments, analytical equipment's, auto injectors, semi-automatic R&D equipment, large volume production machines, and drug delivery pilot equipment are included in the session on equipment and machinery for drug delivery.

 

Track 17 : Nanotoxicology

The toxicity of ultrafine particles in the environment is the source of the burgeoning field of nanotoxicology. The field of toxicology known as nanotoxicology investigates the toxicity of nanomaterials produced by industrial processes, combustion processes, and naturally occurring processes, including spray drying, grinding, and diesel soot (such as atmospheric reactions or volcanic eruptions). Nanoparticles can be more harmful to some cell subpopulations than others, and this toxicity typically fluctuates with the cell cycle. Determine the toxic/hazardous effects of nanoparticles and nanopharmaceuticals on people and the environment is the main goal of nanotoxicological research. Improving the calibre of data presentation in nanotoxicology studies is a major priority for toxicological and scientific journals that publish findings from these investigations.

Track 18 : Nanometrices for Cell Culture

3D cell culture mimics the length scale of natural nanotopology and is currently being utilised to better understand how physical signals influence cell activity and coordinate complicated cell processes like stem cell differentiation and tissue organisation. Nanotechnology advancements have increased our ability to design stimulus-sensitive interfaces that govern extracellular physical and biological signals in location and time. Intracellular detection and subcellular delivery are carried out using synthetic, natural, and cellularized nanofiber scaffolds. The subject of nanoengineered cell-material interfaces is quickly evolving, with the potential to revolutionise basic cell research and regenerative medicine.

 

Track 19 : Nano Engineering and its Application

Engineers that specialise in nanotechnology study, create, and perfect materials on a very small scale. It may be compared to how mechanical engineering utilises the principles of physics in that it is the practical application of nanoscience. In order to develop usable materials, systems, devices, and structures, nanoengineering uses nanoparticles and their interactions. Nanoengineering is a method with applications in a variety of fields, including electronics, energy, medicine, and biotechnology. It is not a new field of study. Although the work of nanoengineering machines might be quite varied, it frequently centres on the creation of nanomaterials. Examples include quantum dots, nanocomposites, and carbon nanotubes.

Track 20 : Nanomedicine and its Advancement

By enabling the atomic-level manipulation of materials, nanotechnology has assisted in the transformation and modernization of materials. Nanotechnology By enabling the atomic-level manipulation of materials, nanotechnology has assisted in the transformation and modernization of materials. Nanotechnology is the practise of manipulating matter at lengths between 1 and 100 nanometers (1 nanometer = 1x10-9 m). is the practise of manipulating matter at lengths between 1 and 100 nanometers (1 nanometer = 1x10-9 m).

Track 21 : smart drug delivery technology

 

The smart drug delivery  system enhances the polymer nanoparticles better stage to their therapy regimen.They are drug carriers of natural , Semi –synthetic and synthetic polymeric nature at the nano-scale to micro-scale range.The polymeric particles are collectively named as spheres and capsules.

· There are many different ways to take medications, including through injection, inhalation, skin absorption, and swallowing.