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31st International Conference on Materials Chemistry and Science, will be organized around the theme “Extending the exploration potentials in the field of materials science”
MCS 2019 is comprised of keynote and speakers sessions on latest cutting edge research designed to offer comprehensive global discussions that address current issues in MCS 2019
Submit your abstract to any of the mentioned tracks.
Register now for the conference by choosing an appropriate package suitable to you.
Antimicrobial polymers, also known as polymeric biocides, are a class of polymers with antimicrobial activity, or the ability to inhibit the growth of microorganisms such as bacteria, fungi or protozoans. These polymers have been engineered to mimic antimicrobial peptides which are used by the immune systems of living things to kill bacteria. Typically, antimicrobial polymers are produced by attaching or inserting an active antimicrobial agent onto a polymer backbone via an alkyl or acetyl linker. Antimicrobial polymers may enhance the efficiency and selectivity of currently used antimicrobial agents while decreasing associated environmental hazards because antimicrobial polymers are generally non-volatile and chemically stable.
- Track 1-1Antimicrobial Monomers
- Track 1-2Applications of Polymers
- Track 1-3Antimicrobial Activity
- Track 1-4Synthetic Methods
- Track 1-5Counter Ion
- Track 2-1Synthesis from Grignard reagents
- Track 2-2Carboranes
- Track 2-3Design of catalysts for site-selective and enantioselective functionalization of non-activated primary C–H bonds
- Track 2-4Enantioselective dearomative prenylation of indole derivatives
- Track 2-5Borates
- Track 3-1Flow battery
- Track 3-2Rechargeable battery
- Track 3-3UltraBattery
- Track 3-4Biofuels
- Track 3-5Hydrated salts
- Track 4-1Biopolymers
- Track 4-2Bioactivity
- Track 4-3Geistlich biomaterials
- Track 4-4Collagen matrices
- Track 4-5 Compatibility
- Track 5-1Construction and architecture
- Track 5-2Structural materials
- Track 5-3Self-healing materials
- Track 5-4Surfaces
- Track 5-5Adhesion
- Track 6-1Amorphous Semiconductors
- Track 6-2Silicon and Germanium
- Track 6-3Organic semiconductors
- Track 6-4Hydrogenated Amorphous
- Track 6-5Semiconductor characterization techniques
A substance which provides a mechanism with a higher activation energy does not increase the rate because the reaction can still occur by the non-catalyzed route. An added substance which does increase the reaction rate is not considered a catalyst but a reaction inhibitor. Catalysts may be classified as either homogeneous or heterogeneous. A homogeneous catalyst is one whose molecules are dispersed in the same phase (usually gaseous or liquid) as the reactant's molecules. A heterogeneous catalyst is one whose molecules are not in the same phase as the reactant's, which are typically gases or liquids that are adsorbed onto the surface of the solid catalyst. Enzymes and other biocatalysts are often considered as a third category.
- Track 7-1Electrocatalysts
- Track 7-2Organocatalysis
- Track 7-3Enzymes and biocatalysts
- Track 7-4Nanocatalysts
- Track 7-5Tandem catalysis
- Track 8-1Inorganic nanotube
- Track 8-2Single-walled nanotubes (SWNTs)
- Track 8-3Multi-walled nanotubes (MWNTs).
- Track 8-4Graphene supercapacitors
- Track 8-5Graphene applications as optical lenses
A major consideration for most coating processes is that the coating is to be applied at a controlled thickness, and a number of different processes are in use to achieve this control, ranging from a simple brush for painting a wall, to some very expensive machinery applying coatings in the electronics industry. A further consideration for 'non-all-over' coatings is that control is needed as to where the coating is to be applied. A number of these non-all-over coating processes are printing processes.
- Track 9-1Spray
- Track 9-2Vapor deposition
- Track 9-3coating processes
- Track 9-4Physical coating
- Track 9-5Insulation
A composite material (also called a composition material or shortened to composite, which is the common name) is a material made from two or more constituent materials with significantly different physical or chemical properties that, when combined, produce a material with characteristics different from the individual components. The individual components remain separate and distinct within the finished structure, differentiating composites from mixtures and solid solutions.
- Track 10-1Fiber
- Track 10-2Fabrication methods
- Track 10-3Ceramic matrix composites
- Track 10-4High strain composites
- Track 10-5Glass-reinforced plastic
Computational modeling is the use of computers to simulate and study the behavior of complex systems using mathematics, physics and computer science. A computational model contains numerous variables that characterize the system being studied. Simulation is done by adjusting each of these variables alone or in combination and observing how the changes affect the outcomes. The results of model simulations help researchers make predictions about what will happen in the real system that is being studied in response to changing conditions. Modeling can expedite research by allowing scientists to conduct thousands of simulated experiments by a computer in order to identify the actual physical experiments that are most likely to help the researcher find the solution to the problem being studied.
- Track 11-1Materials Synthesis
- Track 11-2Characterization and Defect Structure
- Track 11-3Electronic Materials
- Track 11-4Nuclear Materials
- Track 11-5Structural Materials
In the most common use of the word, this means electrochemical oxidation of metal in reaction with an oxidant such as oxygen or sulfates. Rusting, the formation of iron oxides, is a well-known example of electrochemical corrosion. This type of damage typically produces oxide(s) or salt(s) of the original metal, and results in a distinctive orange colouration. Corrosion can also occur in materials other than metals, such as ceramics or polymers, although in this context, the term "degradation" is more common. Corrosion degrades the useful properties of materials and structures including strength, appearance and permeability to liquids and gases.
- Track 12-1Corrosion in passivated materials
- Track 12-2Surface treatments
- Track 12-3Corrosion in nonmetals
- Track 12-4Cathodic protection
- Track 12-5Microbial corrosion
Damage tolerance is a property of a structure relating to its ability to sustain defects safely until repair can be effected. The approach to engineering design to account for damage tolerance is based on the assumption that flaws can exist in any structure and such flaws propagate with usage. This approach is commonly used in aerospace engineering to manage the extension of cracks in structure through the application of the principles of fracture mechanics. In aerospace engineering, structure is considered to be damage tolerant if a maintenance program has been implemented that will result in the detection and repair of accidental damage, corrosion and fatigue cracking before such damage reduces the residual strength of the structure below an acceptable limit. As one such approach to crack repair, the placement of a hole at a crack tip to reduce stress concentration and inhibit crack propagation is widely studied and implemented.
- Track 13-1Ceramic reinforcements for composites
- Track 13-2Safe-life structure and failure mitigation
- Track 13-3Fracture modes & mechanics
- Track 13-4In marine composites
- Track 13-5Non-destructive testing
Electrocatalysis results in the modification of the rate of an electrochemical reaction occurring on an electrode surface. The relative electrocatalytic properties of a group of materials at a given temperature and concentration are not necessarily constant and may vary according to the different dependence of rates on electrical potential.
- Track 14-1Artificial intelligence in catalysis
- Track 14-2Fuel Cells
- Track 14-3Electrochemical synthesis of hydrocarbons
- Track 14-4Electrocatalytic ammonia
Electronic properties of a material are governed by the response of electrons and other charged entities to the external stimulus such as electrical potential difference and its variation, incident electromagnetic radiation, magnetic field, heat, mechanical forces etc. The response to the external stimulus is strongly correlated with the internal structure of the material at different length-scales, chemical composition, both intrinsic and extrinsic defects, as well as dimensionality (zero, one, two or three dimensional) of the material. The field of Science and Technology of Electronic Materials involve understanding these correlations, as well as the development of technologies for the synthesis/fabrication of materials with desired electronic properties. .Optoelectronics is built based on the quantum mechanical effects of light on electronic materials, sometimes in the presence of electric fields, especially semiconductors. Optoelectronic technologies comprise of laser systems, remote sensing systems, fiber optic communications, optical information systems, and electric eyes medical diagnostic systems.
- Track 15-1Photonics Materials
- Track 15-2Lasers and Optical Fibers
- Track 15-3Sensors and Actuators
In Energy harvesting process (also known as power harvesting or energy scavenging or ambient power) energy is derived from external sources (e.g., solar power, thermal energy, wind energy, salinity gradients, and kinetic energy, also known as ambient energy), captured, and stored for small, wireless autonomous devices, like those used in wearable electronics and wireless sensor networks. Energy harvesters provide a very small amount of power for low-energy electronics. While the input fuel to some large-scale generation costs resources (oil, coal, etc.), the energy source for energy harvesters is present as ambient background. For example, temperature gradients exist from the operation of a combustion engine and in urban areas, there is a large amount of electromagnetic energy in the environment because of radio and television broadcasting.
- Track 16-1Smart transportation intelligent system
- Track 16-2Pyroelectric
- Track 16-3Thermoelectrics
- Track 16-4Electrostatic (capacitive)
- Track 16-5Magnetic induction