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.

In Advanced Materials conferences, the term energetic substance is used to define substances that can react and release energy. In advanced materials conferences energetic materials are a class of materials that store large amounts of chemical energy that can be released. Energetic materials include a wide variety of materials that can be applied to convert or transmit energy.


  • Track 1-1  synchrotron science
  • Track 1-2   nanoengineered materials
  • Track 1-3  semiconductors
  • Track 1-4  Quantum Materials & Devices
  • Track 1-5  Out of equilibrium chemical systems
  • Track 1-6  Cognitive Systems & Materials
  • Track 1-7  synchrotron science

Advanced Materials Conferences are materials specially engineered to exhibit new or improved properties that result in superior performance compared to conventional materials.


  • Track 2-1  synchrotron science
  • Track 2-2   nanoengineered materials
  • Track 2-3  semiconductors
  • Track 2-4  Quantum Materials & Devices
  • Track 2-5  Out of equilibrium chemical systems
  • Track 2-6  Cognitive Systems & Materials
  • Track 2-7  synchrotron science

Biomaterials can be defined in terms of healthcare as materials having unique qualities that allow them to interact with living tissue immediately without inducing immunological rejection. Biomaterials are made up of numerous components that interact with biological systems. They can be natural or synthetic, alive or dead. Biomaterials have been used by humans since the dawn of time, but evolution has made them more adaptable and useful. Biomaterials have revolutionized fields like bioengineering and tissue engineering, allowing for the development of new techniques to tackle life-threatening diseases. Different ailments, such as heart failure, fractures, and severe skin lesions, are treated using similar principles and approaches. Work is being done to improve existing procedures and come up with new ones. Biomaterials and medical devices interact with biological systems in an indirect way. Biomaterials can be used to replace or restore lost tissue in medical applications.

  • Track 3-1  synchrotron science
  • Track 3-2   nanoengineered materials
  • Track 3-3  semiconductors
  • Track 3-4  Quantum Materials & Devices
  • Track 3-5  Out of equilibrium chemical systems
  • Track 3-6  Cognitive Systems & Materials
  • Track 3-7  synchrotron science

Ceramic engineering deals with the science and technology of creating objects from inorganic and non-metallic materials. It combines the principles of chemistry, physics and engineering. Fiber optic devices, microprocessors and solar panels are just a few examples of how ceramic technology is used in everyday life.


  • Track 4-1  synchrotron science
  • Track 4-2   nanoengineered materials
  • Track 4-3  semiconductors
  • Track 4-4  Quantum Materials & Devices
  • Track 4-5  Out of equilibrium chemical systems
  • Track 4-6  Cognitive Systems & Materials
  • Track 4-7  synchrotron science

Advanced Materials conferences that are improved over conventional materials used thousands of years ago are called advanced materialsAdvanced materials conferences include smart materials, semiconductors, biomaterials, and nanoengineered materials. The study of unique building materials used in fields such as IT, effective mechanical engineering, aerospace engineering and medicine is at the heart of advanced materials research. Nanodevices have a profound impact on environmental management, human health and longevity, food production, and energy conversion. These are important prerequisites for humans to be able to fully exploit mechanical, magnetic, electrical and biological systems. Smart materials have one or more properties that can be significantly altered in a controlled manner by external factors such as electric and magnetic fields, heat, humidity, light, temperature, pH, and chemical compounds. Sensitive or reactive material is another term for smart material. Sensors and actuators or artificial muscles are examples of smart materials applications, especially as electroactive polymers.


  • Track 5-1  synchrotron science
  • Track 5-2   nanoengineered materials
  • Track 5-3  semiconductors
  • Track 5-4  Quantum Materials & Devices
  • Track 5-5  Out of equilibrium chemical systems
  • Track 5-6  Cognitive Systems & Materials
  • Track 5-7  synchrotron science

Advanced Materials conferences the term "energetic matter" means any matter capable of responding to the emission of energy. An energetic material is a type of substance that can release large amounts of chemical energy stored in it. Energetic materials are a broad category of materials that can be used to convert or transmit energy. Energetic materials also play a role in reducing the power consumption and performance of modern devices. Energetic materials research covers a wide range of topics, including technological devices. The term "energy content" encompasses a wide range of substances, from simple motor fuels such as gasoline and diesel, to powerful explosives such as gunpowder, dynamite, and TNT. Composite materials are materials made up of two or more components, real or man-made, that are stronger than others because of their different physical or chemical properties. Composite materials can be divided into two types:Fiber reinforced polymer composites and particle reinforced composites. Polymer matrix composites are fiber reinforced polymer composites. Tennis, aircraft and helicopter blades, football, badminton and squash rackets, kayaks and inflatable boats all use composites.


  • Track 6-1  synchrotron science
  • Track 6-2   nanoengineered materials
  • Track 6-3  semiconductors
  • Track 6-4  Quantum Materials & Devices
  • Track 6-5  Out of equilibrium chemical systems
  • Track 6-6  Cognitive Systems & Materials
  • Track 6-7  synchrotron science

A ceramic is a non-metallic inorganic solid made of metal or non-metal components, most commonly crystalline oxide, nitride, or carbide that is created and then heated to high temperatures. In shearing, stress, and corrosion, ceramic materials are brittle, strong, compressive, and stiff. Covalent (and/or ionic) bonding is extremely strong in ceramics. Advanced material conferences engineering ceramics, the primary compositional categories are oxides, nitrides, and carbides. Engineering ceramics are used to manufacture components for applications such as tappet heads, industrial industries, electrical devices, and turbochargers. Glass is the most transparent non-crystalline material and is used in window frames, dinnerware, optics, and optoelectronics for a variety of functional, technical, and decorative purposes. Soda-lime glass, which is made up of about calcium oxide, 75 percent silicon dioxide, sodium carbonate oxide, and a few minor additions, is used to make container glass and conventional glazing. In Advanced Materials conferences Metallic salts can be used to colour glass, and vitreous enamels can be painted and printed.


  • Track 7-1  synchrotron science
  • Track 7-2   nanoengineered materials
  • Track 7-3  semiconductors
  • Track 7-4  Quantum Materials & Devices
  • Track 7-5  Out of equilibrium chemical systems
  • Track 7-6  Cognitive Systems & Materials
  • Track 7-7  synchrotron science

Polymer science, sometimes known as macromolecular science, is a branch of polymer research concerned with synthetic polymers such as plastics and elastomers. Researchers in the field of polymer science come from a variety of fields, including chemistry, physics, and engineering. Electronics and electrical devices, textiles, aerospace, automotive, and other industries employ polymer manufacturing. The application of polymer-based substances in electrical engineering, electronics, construction materials, packaging materials, fancy decorative items, automotive, and other fields has advanced the study of materials science in recent years. Chemical and physical processes at the two-phase interfaces of solid-gas interfaces, solid-vacuum interfaces, liquid-gas interfaces, and solid-liquid interfaces were studied using surface science and engineering. Surface science and engineering, includes tribology, with a focus on friction, wear, and surface modification techniques such surface treatment, coating, machining, polishing, and grinding. Self-assembled monolayers, heterogeneous catalysis, manufacturing of semi-conductor structures, fuel cells, and adhesives are all part of the research.


  • Track 8-1  synchrotron science
  • Track 8-2   nanoengineered materials
  • Track 8-3  semiconductors
  • Track 8-4  Quantum Materials & Devices
  • Track 8-5  Out of equilibrium chemical systems
  • Track 8-6  Cognitive Systems & Materials
  • Track 8-7  synchrotron science

Computational materials research requires the use of computational approaches to solve relevant Advanced materials conferences challenges. Dedicated mathematical models are available for studying difficulties at various length and time scales, helping to understand the nature of materials structure and efficiently manage material properties. Density functional theory is a popular computational methodology in electronics, while molecular dynamics and Monte Carlo are the preferred atomic simulation methods. For materials challenges, phase-field processes are commonly used at the micrometre and mesoscale (between micro and nano scales).


  • Track 9-1  synchrotron science
  • Track 9-2   nanoengineered materials
  • Track 9-3  semiconductors
  • Track 9-4  Quantum Materials & Devices
  • Track 9-5  Out of equilibrium chemical systems
  • Track 9-6  Cognitive Systems & Materials
  • Track 9-7  synchrotron science

Graphene is the world's first two-dimensional materials and the most versatile, thinnest and strongest material. Graphene is a type of carbon that conducts electricity and heat better than any other materials. Graphene is a single sheet of graphite composed of sp2-bonded carbon atoms organized in a hexagonal (honeycomb) lattice.


  • Track 10-1  synchrotron science
  • Track 10-2   nanoengineered materials
  • Track 10-3  semiconductors
  • Track 10-4  Quantum Materials & Devices
  • Track 10-5  Out of equilibrium chemical systems
  • Track 10-6  Cognitive Systems & Materials
  • Track 10-7  synchrotron science

In Advanced Materials conferences Crystallography is the scientific field concerned with determining the arrangement and bonding of atoms in crystalline solids based on the geometry of the crystal lattice. The optical properties of crystals have long been of interest in chemistry and mineralogy for Advanced materials conferences identification. His X-ray diffraction studies with crystals acting as optical lattices are the foundation of modern crystallography. X-ray crystallography allows chemists to discover the internal structure and bonding patterns of minerals and molecules, including the structures of large, complex compounds such as proteins and DNA.


  • Track 11-1  synchrotron science
  • Track 11-2   nanoengineered materials
  • Track 11-3  semiconductors
  • Track 11-4  Quantum Materials & Devices
  • Track 11-5  Out of equilibrium chemical systems
  • Track 11-6  Cognitive Systems & Materials
  • Track 11-7  synchrotron science

Green materials conferences are locally renewable materials. Local materials are unique to the place and connect everything a group of people create. Stone, cement, and sand are examples of environmentally friendly products. Plant resources such as bamboo, grass, wool, and wood have also been used by humans since the dawn of civilization.


  • Track 12-1  synchrotron science
  • Track 12-2   nanoengineered materials
  • Track 12-3  semiconductors
  • Track 12-4  Quantum Materials & Devices
  • Track 12-5  Out of equilibrium chemical systems
  • Track 12-6  Cognitive Systems & Materials
  • Track 12-7  synchrotron science

There are two main groups of microscopy techniques for characterizing Advanced materials conferences. Optical Microscopy and Electron Microscopy. First, how a microscope uses photons to enhance a sample, and second, how electrons interact with various materials to create images.


  • Track 13-1  synchrotron science
  • Track 13-2   nanoengineered materials
  • Track 13-3  semiconductors
  • Track 13-4  Quantum Materials & Devices
  • Track 13-5  Out of equilibrium chemical systems
  • Track 13-6  Cognitive Systems & Materials
  • Track 13-7  synchrotron science

In Advanced Material Conferences Corrosion is a natural process that transforms refined metals into more chemically stable oxides. It is the gradual degradation of a materials (usually a metal) through chemical or electrochemical reactions with the environment. Corrosion engineering is a field dedicated to the control and prevention of corrosion. In the most common usage of the word, it means the electrochemical oxidation of metals reacting with oxidizing agents such as oxygen, hydrogen, and hydroxides. Rust, the formation of iron oxide, is a well-known example of electrochemical corrosion. This type of damage usually produces an oxide or salt of the original metal, giving it a characteristic orange color. Corrosion can also occur in non-metallic materials such as ceramics and polymers, but the term "degradation" is more commonly used in this context. Advanced Material conferences Corrosion reduces useful properties of materials and structures, such as strength, appearance, and permeability to liquids and gases.


  • Track 14-1  synchrotron science
  • Track 14-2   nanoengineered materials
  • Track 14-3  semiconductors
  • Track 14-4  Quantum Materials & Devices
  • Track 14-5  Out of equilibrium chemical systems
  • Track 14-6  Cognitive Systems & Materials
  • Track 14-7  synchrotron science

In Advanced Materials Conferences, Electronic materials are materials commonly used as core elements in various device applications. These elements can be LEDs, memory, displays, and can be easily seen in everyday electronic devices such as tablets, GPS devices, LED bulbs, mobile phones and computers, laptops, TVs, and monitors. Changing dimensions and levels of functionality require continued efforts to develop state-of-the-art materials that meet the technological challenges associated with developing these devices. In Advanced Materials Conferences, Optical materials are used to control the flow of light. This may include reflection, absorption, focusing or splitting of the optical beam. The effectiveness of a particular material for each task is very wavelength dependent, so a complete understanding of the interaction between light and matter is important. Magnetic materials are materials that are primarily used for their magnetic properties. Materials respond to applied magnetic fields and can be characterized as diamagnetic, paramagnetic, ferromagnetic, or antiferromagnetic.


  • Track 15-1  synchrotron science
  • Track 15-2   nanoengineered materials
  • Track 15-3  semiconductors
  • Track 15-4  Quantum Materials & Devices
  • Track 15-5  Out of equilibrium chemical systems
  • Track 15-6  Cognitive Systems & Materials
  • Track 15-7  synchrotron science

Understanding the mechanical properties of an advanced materials conferences is critical to perfecting the material for a technical product or application. In advanced materials conferences a material's mechanical properties are those that affect its mechanical strength and ability to be formed into a suitable shape. Some of the typical mechanical properties of materials are.

  • Track 16-1  synchrotron science
  • Track 16-2   nanoengineered materials
  • Track 16-3  semiconductors
  • Track 16-4  Quantum Materials & Devices
  • Track 16-5  Out of equilibrium chemical systems
  • Track 16-6  Cognitive Systems & Materials
  • Track 16-7  synchrotron science

In Advanced materials conferences the field of electronics is the branch of physics and electrical engineering that deals with the emission, behaviour, and effects of electrons using electronic devices. In advanced materials conferences Electronics use active devices to control the flow of electrons through amplification and rectification. This differs from traditional electrical engineering, which uses only passive effects such as resistance, capacitance, and inductance to control current flow in advanced materials conferences.


  • Track 17-1  synchrotron science
  • Track 17-2   nanoengineered materials
  • Track 17-3  semiconductors
  • Track 17-4  Quantum Materials & Devices
  • Track 17-5  Out of equilibrium chemical systems
  • Track 17-6  Cognitive Systems & Materials
  • Track 17-7  synchrotron science

In advanced materials conferences Photonics is the physical science of light waves. Address the science behind the generation, detection, and manipulation of light. Light has a dual nature known as wave-particle duality. In advanced materials conferences other words, light has properties of both continuous waves of electromagnetic and particles (photons).


  • Track 18-1  synchrotron science
  • Track 18-2   nanoengineered materials
  • Track 18-3  semiconductors
  • Track 18-4  Quantum Materials & Devices
  • Track 18-5  Out of equilibrium chemical systems
  • Track 18-6  Cognitive Systems & Materials
  • Track 18-7  synchrotron science

In Advanced materials conferences, Scientists and engineers are increasingly inspired by nature. Natural selection solutions are often a good place to start with finding answers to scientific and engineering problems. Advanced materials conferences Learn more about the original animal and plant models by designing and building bio-inspired devices and systems. The following areas are particularly aligned with current materials research at Cornell: bio-inspired composites; engineered protein films for adhesion, lubrication, and sensing applications; Molecular tools (C-Dots, FRET). As a biomaterial for tissue engineering and drug delivery in  advanced materials conferences.


  • Track 19-1  synchrotron science
  • Track 19-2   nanoengineered materials
  • Track 19-3  semiconductors
  • Track 19-4  Quantum Materials & Devices
  • Track 19-5  Out of equilibrium chemical systems
  • Track 19-6  Cognitive Systems & Materials
  • Track 19-7  synchrotron science

In advanced materials conferences , Nanotechnology are Manipulation and control of matter at the nanoscale by leveraging scientific knowledge from various industrial and biomedical applications. Nanomaterials are Materials with nanoscale internal or external structures in advanced materials conferences.


  • Track 20-1  synchrotron science
  • Track 20-2   nanoengineered materials
  • Track 20-3  semiconductors
  • Track 20-4  Quantum Materials & Devices
  • Track 20-5  Out of equilibrium chemical systems
  • Track 20-6  Cognitive Systems & Materials
  • Track 20-7  synchrotron science

Materials science in science fiction is the study of how materials science is portrayed in works of science fiction. The accuracy of the materials science portrayed spans a wide range – sometimes it is an extrapolation of existing technology, sometimes it is a physically realistic portrayal of a far-out technology, and sometimes it is simply a plot device that looks scientific, but has no basis in science. Critical analysis of materials science in science fiction falls into the same general categories. The predictive aspects are emphasized, for example, in the motto of the Georgia Tech's department of materials science and engineering – Materials scientists lead the way in turning yesterday's science fiction into tomorrow's reality. This is also the theme of many technical articles, such as Material By Design: Future Science or Science Fiction? found in IEEE Spectrum, the flagship magazine of Institute of Electrical and Electronics Engineers.


  • Track 21-1  synchrotron science
  • Track 21-2   nanoengineered materials
  • Track 21-3  semiconductors
  • Track 21-4  Quantum Materials & Devices
  • Track 21-5  Out of equilibrium chemical systems
  • Track 21-6  Cognitive Systems & Materials
  • Track 21-7  synchrotron science