Call for Abstract

18th International Conference on Emerging Materials and Nanotechnology, will be organized around the theme “Promote Modern breakthroughs in the field of Materials Science and Nanotechnology during COVID-19”

Emerging Materials Congress 2020 is comprised of keynote and speakers sessions on latest cutting edge research designed to offer comprehensive global discussions that address current issues in Emerging Materials Congress 2020

Submit your abstract to any of the mentioned tracks.

Register now for the conference by choosing an appropriate package suitable to you.

Materials Science and Engineering can subdiscipline as Materials Science and Materials Engineering. “materials science” investigates the relationships that exist between the structures and properties of materials. In contrast, “materials engineering” is, on the basis of these structure–property correlations, designing or engineering the structure of a material to produce a predetermined set of properties. It is the design and discovery of new materials, particularly solids. Virtually all important properties of solid materials may be grouped into six different categories: mechanical, electrical, thermal, magnetic, optical, and deteriorative. For each there is a characteristic type of stimulus capable of provoking different responses. Mechanical properties relate deformation to an applied load or force; examples include elastic modulus and strength. For electrical properties, such as electrical conductivity and dielectric constant, the stimulus is an electric field. The thermal behavior of solids can be represented in terms of heat capacity and thermal conductivity. Magnetic properties demonstrate the response of a material to the application of a magnetic field. For optical properties, the stimulus is electromagnetic or light radiation; index of refraction and reflectivity are representative optical properties. Finally, deteriorative characteristics relate to the chemical reactivity of materials.

  • Track 1-1Materials Synthesis
  • Track 1-2Quantum Materials
  • Track 1-3Novel Materials,Multifunctional Materials
  • Track 1-4Transistor gate materials
  • Track 1-5Photovoltaics
  • Track 1-6Magnetic Materials
  • Track 1-7Fracture analysis
  • Track 1-8Materials in the field of Medicine
  • Track 1-9Materials Characterization
  • Track 1-10Materials – Computational Methods
  • Track 1-11Materials Processing
  • Track 1-12Materials Innovation and Development

Nanotechnology is well-defined as the handling of matter on an atomic, molecular, and supramolecular scale. Earlier, Nanotechnology was defined as the area of employing atoms and molecules to produce nanoscale products, which is also referred to as molecular nanotechnology. The National Nanotechnology Initiative, has defined nanotechnology as the management of material with the measurement of 1 to 100 nm. Nanomaterials are physical materials with a characteristic measurement between 1-150nm that are the building blocks of applied nanotechnology. Nanomaterials has led to the production of several materials with the help of Interface and colloid science such as carbon nanotubes, fullerene, nanorod and nanoparticles. The properties of nanomaterials differ from those of bulk materials because of their exceptional optical, electronic and mechanical properties. Engineered nanomaterials (ENMs) are produced with novel physico-chemical properties for a precise application from minerals and other chemical substance. Nanomaterial exploration is a material science based method that has its application in optics, catalysis, healthcare, electronics, cosmetics, pharmaceutics and energy conservation.

  • Track 2-1Nanobiotechnology
  • Track 2-2Nanobiotechnology
  • Track 2-3Nanotechnology for Energy and the Environment
  • Track 2-4Risks and Regulation of Nanotechnology
  • Track 2-5Nanocharacterization & Nanomanufacturing
  • Track 2-6Medical and Science Nanotechnology
  • Track 2-7Nanosafety
  • Track 2-8Nanodiamond devices
  • Track 2-9Nanomedicine
  • Track 2-10Nanomedicine and Biomedical Engineering

As the world-wide demand for energy is expected to continue to increase at a rapid rate, it is critical that improved technologies for sustainably producing, converting and storing energy are developed. Materials are key roadblocks to improved performance in a number of important energy technologies including energy storage in batteries and supercapacitors and energy conversion through solar cells, fuel cells, and thermoelectric devices. The University of Texas at Austin is an internationally recognized leader in the development of clean energy materials.

  • Track 3-1Sensors based on emerging devices
  • Track 3-2Advanced Materials for energy
  • Track 3-3Thermoelectric materials
  • Track 3-4Transparent Conductors
  • Track 3-5Memory Devices
  • Track 3-6Chemical Sensors
  • Track 3-7Smart materials
  • Track 3-8Smart materials
  • Track 3-9Intermetallic alloys for hydrogen storage
  • Track 3-10Light-weight energy-efficient structural materials
  • Track 3-11Solar energy conversion
  • Track 3-12Intermetallic alloys for hydrogen storage
  • Track 3-13Materials and structures for energy conservation and soar devices
  • Track 3-14Advancements in Materials Science
  • Track 3-15Emerging areas of Materials Science
  • Track 3-16Solar energy materials & systems

\r\n The exploration on Materials science and engineering, implies a novel group of materials with its individual logic of effect that cannot be defined just in terms of the normal classes of heavy and light or form, construction, and surface.  The materials like Salmon leather, Wood-Skin flexible wood panel material, Re Wall Naked board, Coe Lux lighting system, Bling Crete light-reflecting concrete and several other novelties have shaped astonishing and unique characteristics of the materials. Materials are the core for scientific and industrial advancements in our life. Advancement in the field of electronic materials, biomaterials, sensors, energy materials, light alloys are vital for the information technology, improvement of health, smart atmosphere, renewable energy, improved transportation and other deliberate applications. Coelux lightening system where the scientists used a thin coating of nanoparticles to exactly simulate sunlight through Earth’s atmosphere and the effect known as Rayleigh scattering. Soft materials are additional evolving class of materials that includes gels, colloids, liquids, foams, and coatings.   


  • Track 4-1Materials – Computational Methods
  • Track 4-2Advanced Materials for Joint Implants
  • Track 4-3Advanced Materials for Clean Energy
  • Track 4-4Materials for Metal-Air Batteries
  • Track 4-53D Nanodtructured Materials
  • Track 4-6Advanced characterization
  • Track 4-7Quantum mechanics
  • Track 4-8Materials-Environment Interactions
  • Track 4-9Materials Processing and Product Manufacturing
  • Track 4-10Anti-corrode Materials
  • Track 4-11Materials to improve railroad safety
  • Track 4-12Biocompatible Polymers
  • Track 4-13Advanced engineering materials

Biomaterial is defined as a substance that has been engineered to interact with components of living system for both therapeutic and diagnostic purpose. Biomaterials are natural components or it can be synthesized in the laboratory employing metals, ceramicspolymers and composite materials. Biomaterials covers the fundamentals of medicine, biologychemistrytissue engineering and materials science. The biomaterial science also includes polymer synthesis, drug design, self-assembly of materials, immunology and toxicology. Biomaterials has its wide usage in drug delivery, dental application, surgery and regenerative medicine that mimics the natural function.  The current research focuses on combining biomedical science and material engineering to produce materials for numerous medical application. The application of biomaterials includes joint replacements, stents, vascular grafts, Heart valves, bone plate, bone cement, dental implants, breast implants, surgical sutures, etc.,

  • Track 5-1Nanoelectronics and Quantum nanodevices
  • Track 5-2Nanomedicine and Bionanotechnology
  • Track 5-3Bio-fuels and Bio-energy
  • Track 5-4Tissue Engineering/Regenerative Medicine
  • Track 5-5Single Cell Analysis
  • Track 5-6Cell Manufacturing
  • Track 5-7Shape-memory alloys for biomedical implants
  • Track 5-8Biocompatible polymers for tissue engineering
  • Track 5-9Self-Assembly Biointerfaces and Biodevices
  • Track 5-10Fusion of NanoBio and Information Science
  • Track 5-11Biomembranes

\r\n As the global demand for energy is increasing on a higher frequency, materials are the key aspects of new technologies for renewable energy sources, supercapacitors, energy storage in batteries, thermoelectric devices, energy conversion through solar cells and fuel cells. The dynamic research areas comprise clean energy conversion, biofuels, hydrogen generation and fuel cells. Materials for energy can help to produce efficient sources of energy to meet the present concerns and is a key driver for our society. Materials with emerging energy technologies are the supportable energy foundations to withstand the geophysical alteration. Solar energy is the superior and the development of photovoltaic cells is needed for the existing development. The piezoelectric, ferroelectric materials and thin films are the valuable materials for the conversion of energy. \r\n

  • Track 6-1Nuclear fuel processing
  • Track 6-2Li ion battery materials
  • Track 6-3Energymaterials
  • Track 6-4Nanotechnology in energy
  • Track 6-5Energy Storage and Novel Generation
  • Track 6-6Energy Recycling
  • Track 6-7Energy Efficiency Conservation
  • Track 6-8Hydrogen Energy - Harvest to Energize
  • Track 6-9Energy and Environment
  • Track 6-10Renewable energy sources
  • Track 6-11Hydrogen Storage Materials

The Science and expertise of generating substances from inorganic, non-metallic materials with the exploit of heat or by the help of high purity chemical solutions is termed as Ceramic Engineering. It comprises of the study of structure, composition and properties of raw materials. Ceramics are crystalline materials with partly crystalline structure in the long-range order on atomic scale. The glass ceramics is in the short range atomic scale with amorphous structure. Ceramics has a unique advantage where it is can be replaced because of its heat resistant capacity. These materials are produced by sol-gel synthesis or by hydrothermal method. Ceramic materials upsurge the applications in materials science, chemical, electrical and mechanical engineering. It has its usage in mining, medicine, chemical industry, aerospace, electronics, optical and automotive industries.

Composite materials are composed with two different materials, which combine to give properties superior to those of the individual constituents. The many component materials and different processes that can be used make composites extremely versatile and efficient. They typically result in lighter, stronger, more durable solutions compared to traditional materials. The main properties of the materials are Weight reduction, Durability and maintenance, Added functionality, Design freedom.


  • Track 7-1Ceramic thin films and multilayers
  • Track 7-2Ceramic Films and Coatings
  • Track 7-3Ceramic Lasers
  • Track 7-4Ceramic Matrix Composites - Microstructure, Properties and Applications
  • Track 7-5Ceramic Films and Coatings
  • Track 7-6Diamond Films and Coatings
  • Track 7-7Ceramics and Refractories
  • Track 7-8Nanoporous Materials
  • Track 7-9Ceramic Technology and Processing
  • Track 7-10Crystal Growth Technology
  • Track 7-11Corrosion of Glass, Ceramics and Ceramic Superconductors
  • Track 7-12High Temperature Corrosion of Ceramics
  • Track 7-13Ceramic Cutting Tools
  • Track 7-14Cemented Tungsten Carbides - Production, Properties, and Testing
  • Track 7-15Thermal and environmental barrier coatings-Ceramic
  • Track 7-16Gel casting
  • Track 7-17Cellular ceramics
  • Track 7-18Solid oxide fuel cell materials
  • Track 7-19Ceramic thin films and multilayers
  • Track 7-20biodegradable nanocomposites
  • Track 7-21Advanced Ceramic Processing and Technology
  • Track 7-22Advances in Ceramic Matrix Composites
  • Track 7-23Bulk Metallic Glasses
  • Track 7-24Carbon Fiber Composites
  • Track 7-25Carbon-Carbon Materials and Composites
  • Track 7-26Knovel Optical and Filter Glas

Polymer technology is one of the most prevalent zone of existing research as it includes the study and application of nanoscience to polymer-nanoparticle matrices, where nanoparticles are those with at least in dimension of less than 100 nm. Polymer nanotechnology emphases on polymer based biomaterials, self- assembled polymeric filmsnanofabrication of polymers, polymer blends and nanocomposites. Polymer matrix based nanocomposites consist of polymer or copolymer having nanoparticles dispersed in the matrix. Silicon Nano spheres is the extensively known Nano polymer which shows discrete features and harder than silicon. Preceding the age of nanotechnology phase, polymer blends, block copolymer domain frequently attains Nano scale sizes. Nano-sized silica particleszeolites and nanoparticle fillers has controlled the expansion of products with enhanced properties such as thermal stability & conductivity, chemical resistance and tensile strength.. Some of the natural and synthetic polymers are collagen, enzymes, elastin, cellulose, chitin, plastics, fibers and adhesives. 

  • Track 8-1Polymer electronics and photonics
  • Track 8-2Aqueous Coatings
  • Track 8-3Biodegradable Waxes
  • Track 8-4Renewable Hot Melt Adhesives
  • Track 8-5Biodegradable Polymers
  • Track 8-6Nanotechnology in Polymers
  • Track 8-7Nanomaterial-polymer composite materials with superior mechanical properties
  • Track 8-8Polymer-nanomaterial composites
  • Track 8-9Conducting polymers
  • Track 8-10Antifouling polymers
  • Track 8-113D print manufacturing

The study of physical and chemical process that rises by incorporation of two phases, with solid–liquid/ solid–gas/ solid–vacuum/ liquid–gas interfaces is named as Surface Science. The actual application of surface science in related arenas like chemistry, mechanical engineering, electrical engineering and physics is recognized as Surface Engineering. Surface Chemistry achieves the alteration of chemical configuration of a surface by presenting functional groups and additional elements while Surface physics deals with the physical deviations that arise at interfaces. Techniques tangled in Surface engineering are spectroscopy methods such as X-ray photoelectron spectroscopy, low-energy electron diffraction, electron energy loss spectroscopy, Auger electron spectroscopy, Thermal desorption spectroscopy, ion scattering spectroscopy and secondary ion mass spectrometry, etc. The chemical reactions at the interface is generally termed as Surface Chemistry and is also linked to surface engineering. It is very significant in the arenas of heterogenous catalysis, electrochemistry and geochemistry.

  • Track 9-1Surface characterisation and metrology
  • Track 9-2Special surfaces such as those for high-performance lenses
  • Track 9-3Surface modifications, including surface cladding, cutting, polishing and grinding
  • Track 9-4Nanoscale tribology
  • Track 9-5Tribological applications
  • Track 9-6Coatings and surface treatments
  • Track 9-7Lubrication and lubricants
  • Track 9-8Interface temperatures of sliding surfaces
  • Track 9-9Friction and wear, including mechanisms, modelling, characterisation, measurement and testing
  • Track 9-10Contact mechanics
  • Track 9-11Surface integrity
  • Track 9-12Hard Coatings

Material science plays an important role in metallurgy too.  It is a term covering a wide range of ways in which materials or components are made from . They can avoid, or greatly reduce, the need to use metal removal processes and can reduce the costs. Pyro metallurgy includes of minerals and metallurgical ores and concentrates to bring about physical and chemical transformations in the materials to enable recovery of valuable metals. A complete knowledge of can help us to extract the metal in a more feasible way and can used to a wider range.

  • Precious metals
  • Modeling and simulation
  • Corrosion and protection
  • Surface phenomena
  • Light metals
  • Iron-Carbon alloys
  • Environmental protection
  • Iron, cast iron and steelmaking
  • Alloys systems
  • Metallurgical machinery and automation
  • Petroleum machinery and equipment

Smart materials can be defined as materials that can significantly change their mechanical properties (such as shape, stiffness, and viscosity), or their thermal, optical, or electromagnetic properties, in a predictable or controllable manner in response to their environment. Such materials have the ability to change shape or size simply by adding a little bit of heat, or to change from a liquid to solid almost instantly. Each individual type of smart material has a different property such as volume, viscosity, and conductivity which can be significantly altered.

  • Track 11-1Nanoplasmonic structures
  • Track 11-2Super hard Materials
  • Track 11-3intelligent sensors
  • Track 11-4Nanomaterials in Human Experience
  • Track 11-5Amorphous Materials
  • Track 11-6Thermodynamics of materials
  • Track 11-7Single-molecule electronics
  • Track 11-8Single-molecule electronics
  • Track 11-9Transparent conducting thin films
  • Track 11-10Future of 3D Printing

Materials Chemistry provides the loop between atomic, molecular and supermolecular behaviour and the useful properties of a material. It lies at the core of numerous chemical-using industries. This deals with the atomic nuclei of the materials, and how they are arranged to provide molecules, crystals, etc. Much of properties of electrical, magnetic particles and chemical materials evolve from this level of structure. The length scales involved are in angstroms. The way in which the atoms and molecules are bonded and organized is fundamental to studying the properties and behaviour of any material.

Material physics is the use of physics to describe the physical properties of materials. It is a synthesis of physical sciences such as chemistry, solid mechanics, solid state physics, and materials science. Materials physics is considered a subset of condensed matter physics and applies fundamental condensed matter concepts to complex multiphase media, including materials of technological interest.

Materials are being used in devices because of their exclusive properties such as electrical, magnetic, thermal, optical, mechanical and piezoelectric properties. The extensively used material components are polymerssemiconductors, oxides and liquid crystals. The electronic materials are the major elements in several device applications and has its usage in regular electronic tools such as computers, mobile phones, LED bulbs and GPS devices. Newfangled materials and devices are intended to advance the optical, electronic, thermal and chemical performance of the current devices. The present-day approaches of emerging electronic materials and devices encompasses the synthesis and fabrication of materials with anticipated properties. The topics intricate in the development of Materials and devices are solid state physics and chemistry, microelectronics, photonics, chemical physics, etc.,

  • Track 13-1fuel cell materials
  • Track 13-2Multicomponent alloys for light-weight vehicles or high-temperature engines
  • Track 13-3photoelectron spectroscopy
  • Track 13-4Carbon nanomaterialsdevices and technologies
  • Track 13-5photonic materials and devices
  • Track 13-6principles of electronic materials and devices
  • Track 13-7organic light emitting materials and devices
  • Track 13-8electronic materials and devices
  • Track 13-9organic materials and devices
  • Track 13-10dental materials and devices
  • Track 13-11semiconductors
  • Track 13-12Nanoelectronic devices

\r\n Materials which can be magnetized and attracted to a magnet are termed as ferromagnetic materials. These kind of ferromagnetic materials comprise of iron, nickel, cobalt, some alloys of rare earth metals, and some naturally occurring minerals such as lodestone. Magnetic Smart Materials also have medical applications and it is predictable that they will increase in the future. Examples are carrying medications to exact locations within the body and the use as a contrasting agent for MRI scans, evaluating the risk of organ damage in hereditary hemochromatosis, defining the dose of iron chelator drugs mandatory for patients with thalassemia, and Now-a-days Scientists are also occupied on the advancement of synthetic magnetic particles which can be inoculated into the human body for the diagnosis and treatment of disease. Spintronic, also known as spin electronics or fluxtronics, is the study of the intrinsic spin of the electron and its related magnetic moment, in addition to its vital electronic charge, in solid-state devices.\r\n

  • Track 14-1Quantum Dots 
  • Track 14-2Electrical Steels
  • Track 14-3Optical Characteraization
  • Track 14-4Magneto-Optical and Photo magnetic effects
  • Track 14-5Meta materials

Graphene is the crystalline form of carbon that has two dimensional (2D) properties where it consists of single layer of carbon atom arranged in hexagonal lattice. This allotrope of carbon is the basic structure of other allotropes such as diamond, carbon nanotubes, graphite, fullerenes. Graphite which is one of the allotrope of carbon is the softest material with is very good lubricant and is the conductor of electricity. Because of its known unique property, it is being used as thermal insulation. Natural graphite is of three types as crystalline, amorphous and vein. Carbon has numerous essential application in the living system. Carbon fibers which is composed mostly of carbon events, in the range of 5-10 micrometers has its application in composite materials, textiles, microelectrodes, Flexible heating. Carbon Nanotube is the cylindrical form of the allotropes of carbon has unusual thermal conductivity, mechanical and electrical properties and is valuable in the arenas of materials sciencenanotechnology, electronic and optics.\r\n

  • Track 15-1Carbon nanotubes
  • Track 15-2Graphene and fullerenes
  • Track 15-3Graphene and ultra tin 2D materials
  • Track 15-4Graphene 3D printing
  • Track 15-5Uses on carbon Nanotubes
  • Track 15-6Graphene The Ultra-Capacitor
  • Track 15-7Graphene devices
  • Track 15-8Acutators

Materials portrayal is the wide and general process by which a material's structure and properties are examined and measured. It is an essential procedure in the field of materials science, without which no logical comprehension of building materials could be found out. While numerous portrayal systems have been rehearsed for a considerable length of time, for example, essential optical microscopy, new procedures and strategies are continually rising. Specifically the coming of the electron magnifying instrument and Secondary particle mass spectrometry in the twentieth century has reformed the field, permitting the imaging and investigation of structures and pieces on substantially littler scales than was beforehand conceivable, prompting a tremendous increment in the level of understanding with reference to why diverse materials indicate distinctive properties and practices. All the more as of late, nuclear power microscopy has additionally expanded the most extreme conceivable determination for investigation of specific specimens over the most recent 30 years