Call For Abstract|Nanotechnology 2023|40<sup>th</sup> Global Nanotechnology Congress| Conference Series

Call for Abstract

Scientific Program

40^th Global Nanotechnology Congress, will be organized around the theme “Venue of Visionaries with Globetrotter Nanotechnology Advancements”

Nanotechnology 2023 is comprised of 23 tracks and 0 sessions designed to offer comprehensive sessions that address current issues in Nanotechnology 2023.

Submit your abstract to any of the mentioned tracks. All related abstracts are accepted.

Track 1:Advanced Materials and Functional Devices

The manipulation of matter at the molecular or atomic level is known as nanotechnology. It concerns objects, structures, or materials with at least one dimension between 1 and 100 nm. The width of nm is approximately 3–5 atoms. We are able to create objects or materials with unusual qualities by applying nanotechnology. At the nanoscale, there are objects called nanoparticles with three external dimensions. The term "ultrafine particle" is widely used to describe nanoparticles, which are typically physically and synthetically heterogeneous and occur naturally. Engineering and scientific advancements can benefit greatly from the study of innovative materials, gadgets, and phenomena at scales smaller than 100 nanometers, or "Nanotechnology."

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Track 2:Applications of Nanotechnology

Nanotechnology modifies the molecular structure of materials to alter their inherent characteristics and create new ones with ground-breaking uses.

Biomedicine-

Some nanomaterials' characteristics make them perfect for enhancing the early diagnosis and treatment of cancer or neurological illnesses. They have the capacity to specifically destroy cancer cells without endangering healthy cells. Some pharmaceutical goods, including sunscreen, have also been improved by the use of nanoparticles.

Textile-

Nanotechnology enables the creation of more robust, lightweight, and long-lasting materials for sports equipment and smart fabrics that are wrinkle- and stain-resistant.

Electronics-

In order to create quantum nanowires that are lighter, more conductive, and stronger, as well as smaller, faster, and more efficient microchips and gadgets, carbon nanotubes are quickly displacing silicon as the preferred material. Due to its characteristics, graphene is a great choice for flexible touchscreen development.

Supply Energy-

Solar panels with a twofold increase in sunlight electricity conversion are now feasible thanks to a novel semiconductor created by Kyoto University. Additionally, nanotechnology lowers prices, makes wind turbines that are more powerful and lighter, increases fuel economy, and, due to some nanocomponents' ability to insulate heat, can reduce energy consumption.

Corona Virus Diagnosis and Treatment-

Recent decades have seen an alarming rise in virus epidemics. The most recent human coronavirus to go throughout the globe is COVID-19 (SARS-CoV-2). Several different processes are used by COVID-19 to propagate, which makes it very contagious. According to recent studies, SARS-CoV-2 spreads by contact with contaminated surfaces or through the discharge of microdroplets, mostly from person to person. Tests based on certain proteins and nucleic acids, as well as point-of-care testing, are utilized for COVID-19 detection and diagnosis. These assays for SARS-CoV-2 detection can be made better and more affordably thanks to nanotechnology's many applications. Numerous nanomaterials have already been employed for virus detection, including metallic nanoparticles, polymeric nanoparticles, silica nanoparticles, and carbon nanotubes.

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Track 3:Biomedical Engineering and Nano biotechnology

The development of new materials and technologies is made possible by nanotechnology, ushering in a new age in biomedical engineering. A quick-moving field that connects biology, technology, and medicine is biomedical engineering. Early disease identification and treatment are two potential applications of nanotechnology in biomedical engineering. The main developments in nanomedicine and nano-devices are probably going to be driven by our growing understanding of fabrication principles, physical/chemical biology, and the creation of predictive ways to regulate them.

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Track 4:Carbon Nanotubes

Carbon atoms are used to create carbon nanotubes, also known as buckytubes, which are nanoscale hollow tubes. The cylinder-shaped carbon molecules have length-to-diameter values that are typically above 103 and high aspect ratios, with diameters ranging from a few manometer’s to several tens of nanometers and lengths up to millimetres. Carbon nanotubes are endowed with distinctive natures by virtue of their singular one-dimensional structure and associated features, which gives them limitless potential in nanotechnology-related applications.

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Track 5:Computational Nanotechnology

The study, design, operation, analysis, and optimization of nanoscale systems are all aspects of computational nanotechnology. Additionally, tools and procedures for physics and chemistry-based simulations are made possible by computational nanotechnology. The creation of theory, models, and extensive simulations is the clear objective of computational nanotechnology. Additionally, computational nanotechnology has established the theoretical foundation as well as practical solutions for problems including Nano-electronics, Computing, Sensors, and Detectors.

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Track 6:Forensic Nanotechnology

Identification, appraisal, criminal investigation, and establishing links between pieces of evidence and offenders are the core concerns of forensic science. By detecting the presence of explosives, gases, biological agents, and residues, Nano-forensics is a new field of forensic science that is highly advanced and related to the development of Nano-sensors for crime investigations and the detection of terrorist activity. Nano-analysis is frequently employed in crime detection using nanotechnology.

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Track 7:Fundamentals and Properties of Nanomaterials

Nanomaterials are a fascinating class of materials that include a wide variety of samples with at least one dimension between 1 and 100 nm. The logical design of nanoparticles can produce surfaces with extraordinarily high surface areas. In contrast to their bulk counterparts, nanomaterials are capable of being manufactured with exceptional magnetic, electrical, optical, mechanical, and catalytic capabilities. By carefully regulating the size, shape, synthesis conditions, and suitable functionalization, the properties of the nanomaterial can be modified as desired.

The various fundamentals or property of it’s based on:

Size, shape, specific surface area, aspect ratio.
Agglomeration/aggregation state.
Size distribution.
Surface morphology/topography.
Structure, including crystallinity and defect structure.
Solubility.

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Track 8:Graphene and Fullerenes

Nanoparticles are exceedingly tiny and have high surface-to-volume ratios. Additionally, they can arrange their atoms into tubes or rings. Numerous forms of nanoparticle formations containing carbon are possible. Allotropes of carbon at the nanoscale include graphene and fullerenes. A flat sheet of hexagonally organised carbon atoms is known as graphene. Carbon molecules called fullerenes come in the shapes of spheres, ellipses, and tubes. C60 is a spherical fullerene known as buckminsterfullerene or a buckyball.

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Track 9:Lipid Nanotechnology

New Nano technological designs and hybrid nanostructures consisting of biological and non-biological, organic and inorganic building components have drawn inspiration from naturally existing nanostructures in biology. Lipids offer a potent toolbox for nanotechnology because of their amphiphilicity, diversity of head and tail chemistry, and antifouling qualities that prevent nonspecific attachment to lipid-coated surfaces. Lipids have several favourable characteristics that make them useful in nanotechnology. Lipids can self-assemble into liposomes, reverse micelles, micelles, nanofilms, and other nanostructures.

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Track 10:Materials Science and Engineering

Nanotechnology is centred on materials science and engineering, whether it enhances electronics and quantum computing, bioengineering, mechanical engineering, or other fields. In material science, the relationship between a material's molecular and atomic structure, its qualities (such as strength, electrical conductivity, or optical capabilities), and the processes used to create a given product or shape are the main topics of study. This includes researching a wide range of substances, from metals and composites to biological structures and natural fibres.

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Track 11:Micro and Nanoparticles

A special family of materials called micro- and nanoparticles has immense technological promise for use in applications related to energy, imaging, medicine, and the environment. The minimum physical dimension for a nanoparticle is 100 nanometers, according to definition. Microparticles are particulate dispersion or solid particles with a size in the range of 1-1000 m. Most microparticles and nanoparticles, however, are smaller than 100 m and 200 nm, respectively.

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Track 12:Nano Medicine & Life Sciences

Nanomedicine is the science and technology of employing molecular instruments and molecular knowledge of the human body to identify, treat, and prevent disease and severe injuries, to relieve pain and improve human health.

For instance: Using imaging techniques and contrast agents made from nanoparticles, in-vivo assessments of biomarkers are used in diagnosis.

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Track 13:Nano Pharmaceuticals

In the world of pharmaceuticals and medicine, nanotechnology is regarded as a recent and quickly developing sector. The primary elements influencing the physical stability of nanoparticles and the biological performance of the inserted drug are particle size, surface charge, surface hydrophobicity, and drug release. Numerous nanodrugs have been examined for a variety of indications in clinical trials and have been utilised in clinical practise for both diagnostic and therapeutic purposes. For the treatment of kidney disorders, TB, skin ailments, Alzheimer's illness, various types of cancer, as well as the creation of COVID-19 vaccines, nanoparticles are utilised.

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Track 14:Nano Physics & Nano Chemistry

The science of objects and structures in the nanoscale range or of phenomena occurring in nanoseconds is known as nanophysics. Nanoscience now places a crucial emphasis on contemporary physical approaches, the foundations of which were developed in physics laboratories.

Nanochemistry is used in chemical, materials and physical science as well as engineering, biological, and medical applications. Materials that exhibit its transforming power include carbon, iron oxide, gold, silica, polydimethylsiloxane, cadmium selenide, and polydimethylsiloxane.

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Track 15:Nanoelectronics and Biomedical Devices

The word "Nano electronics" refers to the study of electronic components and research on ways to make electronics better for practical use by reducing its size, power consumption, and display. This includes studying memory chips and altering the physical surface of electrical gadgets.

Targeted therapy, molecular imaging, and molecular diagnosis are all possible uses for biomedical nanotechnology, which is a multidisciplinary area of study in science, engineering, and medicine. Carbon nanotubes, liposomes, inorganic and metal nanoparticles, and metallic surfaces are the materials most frequently employed to create these nanotechnology goods.

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Track 16:Nanoelectronics and Nanophotonics

The term "Nanoelectronics" refers to the study of electronic parts and research aimed at enhancing electronics for use in daily life, such as display, size, and power consumption. This includes both the creation of memory chips and changes to the physical surfaces of electrical equipment.

A subfield of nanotechnology called Nanophotonics investigates how light behaves at nanoscale scales as well as how nanometer-sized objects interact with light. Nanophotonics is also referred to as Nano-optics. A subfield of nanotechnology, optical engineering, electrical engineering, and optics are collectively referred to as Nanophotonics.

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Track 17:Nanomaterials and Nanotechnology

Nanotechnology is the study and manipulation of matter at the nanoscale, or at distances between one and one hundred nanometers. One billionth of a metre is known as a nanometer. Despite it being challenging to comprehend exactly how tiny something is, here are some examples:

Human DNA has a diameter of 2.5 nanometers.
A human hair is 80,000 nanometers diameter on average.

The ability to create, manipulate, and fabricate materials at the nanoscale is essential to nanotechnology. These substances are known as nanomaterials. Nanomaterials are being used in an expanding number of commercial processes and products, including paint, fabrics, cosmetics, treated wood, electronics, and sunscreen.

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Track 18:Nanorobotics and Nanomanipulation

The science of building robots or machines at or near the scale of a nanometre is known as Nanorobotics. They work mainly in aspects of two areas:

The first area deals with the design, simulation and coordination of robots with nanoscale dimensions.
The second area deals with the manipulation and or assembly of nanoscale components with macroscale instruments or robots.

A small object measuring in the nanometer to submicron range can be moved using a process called Nanomanipulation. One method for investigating forces between pico- and femto-newtons acting on microscopic objects is the use of optical tweezers.

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Track 19:Nanoscience and Technology

A branch of science known as Nanoscience and technology studies and manipulates matter at the atomic, molecular, and supramolecular levels (the nanometre scale). Nanoscience is the study, manipulation, and engineering of materials, particles, and structures on the nanoscale (one millionth of a millimetre, the scale of atoms and molecules). Important features of materials, such as their electrical, optical, thermal, and mechanical properties, are determined by how molecules and atoms arrange themselves on the nanoscale to form larger structures.

Nanotechnology, which results from the application of nanoscience, is the utilisation of novel nanomaterials and nanosize components in practical products

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Track 20:Nanotechnology for Energy and Environment

The creation of practical systems at the molecular level is known as nanotechnology. While nanoparticles have been a part of our lives for a while, the nanotechnology industry has grown quickly during the past 20 years. Applications for nanotechnology include cleaning up organic chemicals that pollute groundwater and removing volatile organic compounds (VOCs) from the air. Nanotechnology is also being used to create solar cells that generate electricity at competitive prices. All of these applications aim to improve the environment and produce more efficient and cost-effective energy.

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Track 21:Nanotoxicology

Incorporating current developments in toxicology, such as the use of systems biology methods to simulate and forecast the impacts of nanoparticles on living systems, Nanotoxicology is a relatively new field of study. Tolerance to nanoparticles varies with cell cycle and is higher in some cell subpopulations than others. Cells may experience repairable oxidative stress, DNA damage, and apoptosis-inducing effects from nanoparticles. Due to the wide range of uses for nanoparticles, the study of Nanotoxicology, or the study of safety issues with nanomaterials, is a quickly expanding area of toxicity research.

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Track 22: 3D Printing

A three-dimensional solid object can be produced via the 3D printing process, sometimes referred to as additive manufacturing. The "3D printer" in the 3D printing procedure applies successive layers of material in order to build up an object. Nanotechnology can be applied to 3D printing to create nanoscale structures or to include nanomaterials into the primary material.

Nanoscale items are produced by 3D printers primarily using two separate technologies:

Deposition caused by a focused electron beam (FEBID)
Two-photon printing (TPL)

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Track 23:Recent developments in Nanotechnology and Nanoscience

The uses of Nanoscience and Nanotechnology have developed quickly over the past few decades and still hold considerable promise for society as a whole. Through the effective application of nanotechnology, advancements in fuel cells, vaccines, batteries, and building materials are all made possible.

Some of the recent developments are:

In Chemical industry, filler for paint systems and coating systems based on nanocomposites.
In Engineering, it provides lubricant free bearings and also provides anti-blocking coatings, scratch resistant coatings on plastic parts which in turn helps in wear protection for tools and machines.

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40^th Global Nanotechnology Congress July 05-06, 2023 Paris, France

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