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7th International Conference and Expo on Ceramics and Composite Materials, will be organized around the theme “Innovations and Advancements in Ceramics and Composite Materials Research”

Ceramics 2021 is comprised of keynote and speakers sessions on latest cutting edge research designed to offer comprehensive global discussions that address current issues in Ceramics 2021

Submit your abstract to any of the mentioned tracks.

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

The purpose of ceramics processing to an applied science is the natural result of an increasing ability to refine, develop, and characterize ceramic materials. The crystallinity of ceramic materials ranges from highly oriented to semi-crystalline, and often completely amorphous (e.g., glasses). Varying crystallinity and electron consumption in the ionic and covalent bonds cause most ceramic materials to be good thermal and electrical insulators and extensively researched in ceramic engineering. This track covers Phase equilibrium in ceramic systems, Mechanical behavior and failure mechanisms and Microstructure Development, Sol-gel techniques, Powder Consolidation/Powder Synthesis and thin film deposition. Ceramics 2020 deals with various aspects on composites and ceramic materials

  • Track 1-1Ultra high temperature Ceramics
  • Track 1-2Ceramics for Medicine, Biotechnology and Biomimetics
  • Track 1-3Electrical and Magnetic Ceramics
  • Track 1-4Bio Ceramics
  • Track 1-5Compaction of ceramic powders
  • Track 1-6Transparent ceramics and luminescent materials
  • Track 1-7Ceramics for Environmental and Energy Applications
  • Track 1-8Ceramics for Energy Conversion and Storage
  • Track 1-9Computational Design of Ceramic Materials
  • Track 1-10Refractories and Insulators
  • Track 1-11Energy-based Ceramics
  • Track 1-12Industrial Ceramic Processing
  • Track 1-13Clay based Ceramics
  • Track 1-14Ceramic Foams
  • Track 1-15Non-oxide Ceramics
  • Track 1-16Porous Ceramics
  • Track 1-17Nanostructured ceramics
  • Track 1-18Innovation for improved Productivity and Energy Efficiency for Ceramic Industry

Ceramic-like inorganic polymers can be made under low energy conditions such as ambient temperatures and pressures. These materials include aluminosilicates or Geopolymers, phosphates and other chemically bonded inorganic compounds. Advanced ceramics such as alumina, aluminum nitride, zirconia, silicon carbide, silicon nitride and titania-based materials, each with their own specific characteristics, offer a high-performance, economic alternative to conventional materials such as glass, metals and plastics. This track covers Synthesis, Processing and Microstructure, Porosity, Novel Applications and Construction Materials, Chemically Bonded Ceramics.

  • Track 2-1Electroceramics
  • Track 2-2Tribological (Wear Resistant ) Ceramics
  • Track 2-3Bioceramics
  • Track 2-4Nuclear Ceramics
  • Track 2-5Advanced Structural Ceramics
  • Track 2-6Conductive Ceramics
  • Track 2-7Optical Ceramics
  • Track 2-8Magnetic Ceramics
  • Track 2-9Capacitor Dielectric, Piezoelectric Ceramics
  • Track 2-10Electronic Substrate package Ceramics
  • Track 2-11Automotive Ceramics

Long-term mechanical reliability is a key issue in their ultimate use for a specific application. Correlations between processing and service conditions/environment to failure of ceramics by fracture, fatigue or deformation are key aspects of materials applications. Ceramics cover a very wide range of materials from structural materials like concrete to technical ceramics like PZT – a piezoelectric.  Usually they are defined as solids with a mixture of metallic or semi-metallic and non-metallic elements (often, although not always, oxygen), that are quite hard, non-conducting and corrosion-resistant. Composites are often used in applications that require specific ‘conflicting’ properties such as a high strength and high toughness. The properties may be conflicting because having a high yield stress sometimes relies on trapping and tangling dislocations, but these reduce the ductility and toughness of the material. This track covers Mechanics, Characterization Techniques, and Equipment, Tribology and Wear, Environmental Effects, Reliability and Small Scale Testing, Mechanical Behavior of CMCs, Processing - Microstructure - Mechanical Properties Correlation.

  • Track 3-1Metal matrix Composites
  • Track 3-2Glass chemistry
  • Track 3-3Design and Manufacturing Technology for Ceramic and Cermet Composites With Structural and Phase Transformations
  • Track 3-4Wear Resistance of Transformation-Hardening Ceramic and Metal Composite Materials
  • Track 3-5Composites Based on Shape-Memory Alloys
  • Track 3-6Polymer matrix Composites
  • Track 3-7Ceramic matrix Composites
  • Track 3-8Composite laminates
  • Track 3-9Dental composites
  • Track 3-10Fibre-reinforced composites‎
  • Track 3-11Composite material fabrication techniques‎
  • Track 3-123D composites
  • Track 3-13Nanochannel glass materials

Coatings are usually applied to the surface of an object, usually referred to as the substrate. Purpose of applying coating may be decorative. This track covers recent advances in coating sciences and technologies, processing, microstructure and property characterization, and life prediction. Chromium oxide ceramic material thermo chemically bonded to customer specified areas on a part, including external diameters, internal diameters and some out-of-sight holes and ports. Individual ceramic particles are sub-micron in size and consist of mixtures of selected ceramic materials bonded together and to the substrate. This track covers Advanced Thermal Barrier Coatings: Processing and Development, Multifunctional, Corrosion and Wear, Environmental Barrier Coatings, Thermal Barrier Coatings: Characterization and NDE Methods, Advanced Multifunctional Coatings.

  • Track 4-1Thin-films, Membranes and Coatings
  • Track 4-2Thermal and environmental barrier coatings
  • Track 4-3Advanced methods of ceramic and composite coating formation
  • Track 4-4Non-conventional coating technologies
  • Track 4-5Thermal spray process
  • Track 4-6Deposition Techniques
  • Track 4-7Wear Resistance of Transformation-Hardening Ceramic and Metal Composite Materials
  • Track 4-8Design and Manufacturing Technology for Ceramic and Cermet Composites With Structural and Phase Transformations
  • Track 4-9Nanobiotechnology

Glass-ceramics are fine-grained polycrystalline materials formed when glasses of suitable compositions are heat treated and thus undergo controlled crystallization to the lower energy, crystalline state. It must be emphasized here that only specific glass compositions are suitable precursors for glass-ceramics due to the fact that some glasses are too stable and difficult to crystallize whereas others result in undesirable microstructures by crystallizing too readily in an uncontrollable manner. In addition, it must also be accentuated that in order for a suitable product to be attained, the heat-treatment is critical for the process and a range of generic heat treatment procedures are used which are meticulously developed and modified for a specific glass composition.

  • Track 5-1LAS – A mixture of lithium, aluminium and silicon oxides (Li2O-Al2O3-SiO2), with other glass forming agents (e.g. Na2O, K2O and CaO).
  • Track 5-2MAS – A mixture of magnesium, aluminium and silicon oxides (MgO- Al2O3-SiO2) with glass forming agents
  • Track 5-3ZAS - A mixture of zinc, aluminium and silicon oxides (ZnO- Al2O3-SiO2) with glass forming agents
  • Track 5-4Glass ceramics compositions
  • Track 5-5Applications of Glass Ceramics
  • Track 5-6Polymer matrix Composites
  • Track 5-7Inorganic polymers‎
  • Track 5-8Fibre-reinforced polymers

Ceramics with engineered porosity are promising materials for a number of functional and structural applications. Porous Ceramics have a wide range of uses in manufacturing across industries such as medical, mining, oil & gas exploration, alternative energy, emissions control, metal refinement, chemical processing, pharmaceutical, printing, wine making and other industries. Specific applications include instrumentation, analytical sensors, semiconductor components, alternative energy assemblies, battery separators, emissions monitoring sensors among many others. This track aims at bringing together engineers, technologists and scientists in the area of ceramic, carbon, glass and glass-ceramic materials containing high volume fractions of porosity, with porosity ranging from nano- to milli-meters. This track covers Innovations in Processing Methods and Synthesis of Porous Ceramics, Modeling and Properties of Porous Ceramics, Applications of Porous Ceramics, Mechanical Properties of Porous Ceramics.

  • Track 6-1Properties & Applications of Electro Ceramics
  • Track 6-22D Materials
  • Track 6-3Materials on Environmental Science
  • Track 6-4Materials on Energy Science
  • Track 6-5Fundamental Science of Materials
  • Track 6-6Characterization (materials science)
  • Track 6-7Metamaterials‎
  • Track 6-8Materials physics
  • Track 6-9Electrically Conductive Ceramics
  • Track 6-10Materials Chemistry

When properly combined with other materials, ceramic and glass materials can exhibit ballistic penetration resistances significantly higher than conventional monolithic armor materials. Traditionally, ceramics have rarely been used in large armor panels for vehicle armor because of concerns with multi-hit performance. The commercially manufactured ceramics for armor include materials such as boron carbide, aluminium oxide, silicon carbide, titanium boride aluminiumnitride, and Syndite(synthetic diamond composite). Boron carbide composites are primarily used for ceramic plates to protect against smaller projectiles, and are used in body and helicopters. Silicon carbide is primarily used to protect against larger projectiles.

  • Track 7-1Ceramics for Nuclear power applications
  • Track 7-2Advances in Surface Science and Engineering
  • Track 7-3Thin and thick ceramic film processing
  • Track 7-4Advanced methods of ceramic and composite coating formation
  • Track 7-5Thermal and environmental barrier coatings
  • Track 7-6Thin-films, Membranes and Coatings (Nanostructured Ceramics)
  • Track 7-7Raw Materials, Energy Efficiency, Control and Quality
  • Track 7-8Ceramics in Nuclear and Alternative Energy Applications
  • Track 7-9Advanced Ceramics for next generation nuclear applications
  • Track 7-10Thin Films and Nanostructures of Functional Materials

The thermal stability, wear-resistance and resistance to corrosion of ceramic components make the application of ceramic the ideal choice for many industrial uses. Ceramic Applications is the new platform for advances in the development of ceramic components and their integrative design in complex industrial solutions to realize sustainable, economic applications in the wide range of user segments This track covers Medical Technology, Automotive Industry, Environment Technology, Mechanical and Metal Industry, Chemical Process Engineering, Engineering Service Providers, Electronics, Sensors and Semi-Conductor Industry, Others (armour, optics, wear, protection and corrosion).

  • Track 8-1Ceramics in electronic, photonic and magnetic applications
  • Track 8-2Fiber optics
  • Track 8-3Nonlinear Electric and Optical Materials, Properties and Applications

Synthesis, characterization and theoretical understanding of functional ceramic and inorganic materials. This research area includes electro ceramics (including ferroelectric, multiferroic and piezoelectric materials), complex oxides, solid state materials chemistry, inorganic 2D materials, inorganic framework materials and porous materials.

Ultra-high-temperature ceramics (UHTCs) are a class of refractory ceramics that offer excellent stability at temperatures exceeding 2000 °C being investigated as possible thermal protection system (TPS) materials, coatings for materials subjected to high temperatures, and bulk materials for heating elements. Broadly speaking, UHTCs are borides, carbides, nitrides, and oxides of early transition metals. Current efforts have focused on heavy, early transition metal borides such as hafnium diboride (HfB2) and zirconium diboride(ZrB2); additional UHTCs under investigation for TPS applications include hafnium nitride (HfN), zirconium nitride (ZrN), titanium carbide (TiC), titanium nitride (TiN), thorium dioxide (ThO2), tantalum carbide (TaC) and their associated composites.

  • Track 10-1Field Assisted Sintering Phenomena at High Temperatures
  • Track 10-2Flash Sintering Phenomena and Mechanisms
  • Track 10-3Novel firing technology and sintering features

Oxide ceramics are inorganic compounds of metallic (e.g., Al, Zr, Ti, Mg) or metalloid (Si) elements with oxygen. Oxides can be combined with nitrogen or carbon to form more complex oxynitride or oxycarbide ceramics. Oxide ceramics have high melting points, low wear resistance, and a wide range of electrical properties.

Non-oxide ceramics are technical Ceramics that are classed as inorganic, non-metallic materials. They exhibit covalent bonds, can be conductive (carbides) and non-conductive (nitrides)

They include carbides, nitrides, borides, silicides and others. Their applications range from superhard abrasives (B4C, BN) and cutting tools (WC), to rocket nozzles (TiB2), electrodes for metal melts (ZrB2) and heating elements (MoSi2). The most important structural non-oxide ceramics are silicon carbide SiC, silicon nitride Si3N4 and the so-called sialons, nitride-based ceramics with varying oxide contents. Non-oxides must undergo high temperature processing in reducing or inert atmosphere to prevent oxidation. Furthermore, their strong and predominantly covalent (i.e. directional) atomic bonds inhibit atomic migration (diffusion) so that solid-state sintering below the decomposition temperature (approx. 2500 °C for SiC, approx. 1900 °C for Si3N4) is limited. Liquid-phase sintering or reaction-bonding techniques are necessary for densification.

  • Track 11-1Alumina ceramics
  • Track 11-2Magnesia ceramics
  • Track 11-3Zirconia ceramics
  • Track 11-4Aluminum titanate ceramics
  • Track 11-5Carbides and Nitrides
  • Track 11-6Borides and Silicides
  • Track 11-7Magnesium alloys‎

Bioceramics range in biocompatibility from the ceramic oxides, which are inert in the body, to the other extreme of resorbable materials, which are eventually replaced by the materials which they were used to repairing, used in many types of medical procedures. Bioceramics are typically used as rigid materials in surgical implants, though some bioceramics are flexible. The ceramic materials used are not the same as porcelain type ceramic materials. Rather, bioceramics are closely related to either the body's own materials or are extremely durable metal oxides.This track covers Biological Evaluation of Bioceramic materials, Applications, Case Studies, and Bioceramics for Cancer Therapy, Bioceramics for Dental Application, and Bioceramics in Tissue Engineering.

  • Track 12-1Bioceramic and Bioglass Materials
  • Track 12-2Bioceramics for Cancer Therapy
  • Track 12-3Bioceramics in Tissue Engineering
  • Track 12-4Bioceramics for Dental Application
  • Track 12-5Biological Evaluation of Bioceramic Materials
  • Track 12-6Biomedical Applications of Bioceramics
  • Track 12-7Advanced Ceramics in Medical Devices

Nuclear ceramics, ceramic materials employed in the generation of nuclear power and in the disposal of radioactive nuclear wastes. In their nuclear-related functions, ceramics are of major importance. Since the beginning of nuclear power generation, oxide ceramics, based on the fissionable metals uranium and plutonium, have been made into highly reliable fuel pellets for both water-cooled and liquid-metal-cooled reactors. Ceramics also can be employed to immobilize and store nuclear wastes.

  • Track 13-1Nuclear ceramic materials
  • Track 13-2Nuclear Fuel
  • Track 13-3Nuclear Applications
  • Track 13-4Biopolymers

Metal oxides represent an assorted and appealing class of materials whereby the field of metal oxide nanostructured morphologies has become one of the most active research areas within the nano-science community. The ability to manufacture ceramics with an intrinsic nanostructure enables the resulting ceramic materials to be optimized for a specific purpose. This track covers Highly porous ceramic and metal materials, Composites based on shape-memory alloys, Design and manufacturing technology for ceramic and cermet composites with structural and phase transformations, Transformation-hardening ceramic and metal composite materials, Wear resistance of transformation-hardening ceramic and metal composite materials, Bioceramic Materials, Porcelain, Ceramics Manufacturers and Market Analysis.

  • Track 14-1Nanoscale ceramic structures
  • Track 14-2Ceramic Nanorods
  • Track 14-3Ceramic Nanofibers
  • Track 14-4Nanostructured Bioceramics
  • Track 14-5yttria-stabilized zirconia nanofibers
  • Track 14-6Metals in medicine
  • Track 14-7Synthesis of bioglass
  • Track 14-8Biomimetic materials
  • Track 14-9Advanced Biomaterials, Biodevices and Biotechnology

A crystal or crystalline solid is a solid material whose constituents, such as atoms, molecules or ions, are arranged in a highly ordered microscopic structure, forming a crystal lattice that extends in all directions. The session will cover all aspects, from basic research and material characterization, through physicochemical aspects of growth and deposition techniques, to the technological development of industrialized materials.

This track covers Semiconductors, Ferro/piezo-electricOptical Materials, and Scintillator.


  • Track 15-1Bioceramics and their Clinical Applications
  • Track 15-2Powder Metals
  • Track 15-3Structural Ceramic Composites
  • Track 15-4Advanced composite materials
  • Track 15-5Ultra high temperature ceramic matrix composite
  • Track 15-6Advanced Materials for Solar Energy Conversion
  • Track 15-7Advanced Materials Characterization and Modeling
  • Track 15-8Advanced Ceramics: Synthesis, Properties, and Applications
  • Track 15-9Advanced Ceramic Processing
  • Track 15-10Advanced Fibres

Traditional ceramics are comprised of three basic components - clay, silica (quartz), and feldspar.Clay is one of the most common ceramic raw materials. It is used widely because it is found in great quantities naturally and it is easily formed. Clay is used in structural clay products (bricks, pipes, tiles) and whitewares (pottery, tableware, china, sanitaryware). Clay makes up the majority of the ceramic body and is primarily composed of hydrated aluminium silicates, Al2O3.SiO2.H2O. Most clay products also contain an inexpensive filler, often quartz, and a feldspar, or flux, that forms a glass to bind ceramic particles during heat treatment.

  • Track 16-1White Wares
  • Track 16-2Structural Clay Products
  • Track 16-3Brick and Tile
  • Track 16-4Abrasives
  • Track 16-5Refractories
  • Track 16-6Cement

The influence of electrical fields on various phenomena in ceramic science is an emerging area which deals with the ceramic materials at higher temperatures and also the sintering characteristics shown by materials. Sintering is the process of compacting and forming a solid mass of material by heat and/or pressure without melting it to the point of liquefaction. Sintering happens naturally in mineral deposits or as a manufacturing process used with metals, ceramics, plastics, and other materials. This track covers Flash Sintering Phenomena and Mechanisms, Field Assisted Sintering Phenomena.

  • Track 17-1Plastics sintering
  • Track 17-2Liquid phase sintering
  • Track 17-3Electric current assisted sintering
  • Track 17-4Spark plasma sintering
  • Track 17-5Pressureless sintering
  • Track 17-6Microwave sintering

Materials Science and Engineering (MSE) combines engineering, physics and chemistry principles to solve real-world problems associated with nanotechnology, biotechnology, information technology, energy, manufacturing and other major engineering disciplines. Materials scientists work with diverse types of materials (e.g., metals, polymers, ceramics, liquid crystals, composites) for a broad range of applications (e.g., energy, construction, electronics, biotechnology, nanotechnology) employing modern processing and discovery principles (e.g., casting, additive manufacturing, coating, evaporation, plasma and radiation processing, artificial intelligence, and computer simulations).