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.

Nanotechnology is the engineering of practical systems at the subatomic scale. This spreads both current work and ideas that are further developed. In its unique sense, nanotechnology suggests the expected ability to fabricate things from the base up, utilizing methods and instruments being created today to make finish, elite items. Two guideline strategies are used in nanotechnology are the "base up" procedure, materials and contraptions are delivered utilizing sub-atomic parts which gather themselves artificially by models of nuclear acknowledgment. In the "top-down" technique, Nano-objects are worked from greater components without nuclear level control. Advancement of utilizations fusing semiconductor nanoparticles to be utilized as a part of the up and coming age of items, for example, show innovation, lighting, sun powered cells and organic imaging; see quantum specks. Late use of Nano materials incorporates a scope of biomedical applications, for example, tissue designing, medicate conveyance, and biosensors.

Characterization alludes to the broad and general process by which a material's structure and properties are analyzed and measured. It is a fundamental methodology in the field of materials science, without which no legitimate perception of materials could be discovered. An enormous scope of methods is utilized to portray different plainly visible properties of materials, including: Mechanical testing, including elastic, compressive, and torsional, crawl, exhaustion, durability and hardness testing. Differential warm investigation (DTA) Dielectric warm examination and so on.. Structure is a champion among most essential part in the field of materials science. Materials science examines the structure of materials from the nuclear scale, quite far up to the full scale. Depiction is the way materials scientists assess the structure of a material. This incorporates procedures, for instance, diffraction with X-shafts, electrons, or neutrons, and diverse sorts of spectroscopy and substance investigation, for instance, Raman spectroscopy, vitality dispersive spectroscopy (EDS), chromatography, warm examination, electron magnifying instrument examination, et cetera. Structure is found out at various levels.

A composite material is made from two or more constituent materials with significantly physical or chemical properties that when combined produce a material with characteristics different from the individual components. Concrete is the most common artificial composite of all. Fiber reinforced polymers include carbon fiber reinforcedpolymer (CFRP) and glass reinforced plastic (GRP). It also includes thermoplastic polymersas well as thermoset composites along with epoxy resins.

Adhesives and joining technologies are also known as binding technology. Adhesives are substances like glue, mucilage which is used to bind two surfaces to resist their separation. They might be found naturally or synthetically .For an adhesive to work effectively, it must have three properties, it must be able to wet the surface; it must harden and finally must be able to transmit locals between the two surfaces being adhered. However it can be problematic for low energy materials such as polymers. To solve this problem, surface treatment can be used to increase the surface energy as a preparation step before adhesive binding.

Surface Coating is any mixture of film forming materials plus pigments, solvents and other additives which when applied to a surface and cured or dried, yields a thin film that is functional and often decorative. Surface coatings involve paints, drying oils and varnishes, synthetic clear coatings and other products whose primary function is to protect the surface of an object from the environment.

 Tribology the science and engineering of contacts between bodies in relative motion is a major research theme. This includes studies of lubricant oil additives where we use surface analytical approaches to understand the interactions of lubricant oil additives with sliding surfaces as well as correlating these interactions with tribological properties (fiction and wear).There is a strong fundamental aspect to this work as well which also includes molecular dynamics modeling studies in order to understand the behavior of brushes in lubrication.

There are various factors that could contribute to the failure of two adhered surfaces. Analyzing failures is a critical process in determining the physical root causes. The discipline of failure analysis has evolved and matured, as it has been employed and formalized as a means for failure prevention. Consistent with the recent trend toward increased accountability and responsibility, its purpose has been extended to include determining which party may be liable for losses, be they loss of production, property damage, injury, or fatality. The discipline has also been used effectively as a teaching tool for new or less experienced engineers. In the general sense of the word, a failure is defined as an undesirable event or condition. For the purposes of discussion related to failure analysis and prevention, it is a general term used to imply that a component is unable to adequately perform its intended function. The intended function of a component and therefore the definition of failure may range greatly. For instance, discoloration of an architectural feature is a failure of its intended aesthetic function. Failure can be defined on several different levels. The simplest form of a failure is a system or component that operates, but does not perform its intended function. This is considered a loss of function.

The prevention techniques have to be applied for a better functionality. The material has to be previously checked for failure tendencies and the process should apply for proposed conditions following to which an appropriate mitigation approach has to be done.

There are in fact a number of different subtypes of additive manufacturing including 3D printing, but also rapid prototyping and direct digital manufacturing (DDM). Recent advances in this technology have seen its use become far more widespread and it offers exciting possibilities for future development. Traditional manufacturing methods involve a material being carved or shaped into the desired product by parts of it being removed in a variety of ways. Additive manufacturing is the pole opposite; structures are made by the addition of thousands of minuscule layers which combine to create the product. The process involves the use of a computer and special CAD software which can relay messages to the printer so it “prints” in the desired shape.

Biomaterials can be arranged either from nature or combined in the research center utilizing an assortment of compound strategies using metallic segments, polymers, pottery or composite materials. They are regularly utilized and additionally balanced for a restorative application, and along these lines include entire or part of a living structure or biomedical gadget which performs, increases, or replaces a characteristic capacity. Such capacities might be considerate, such as being utilized for a heart valve, or might be bioactive with a more intelligent usefulness, for example, hydroxyl-apatite covered hip inserts. Biomaterials are additionally utilized as a part of dental applications, surgery, and medication conveyance. For instance, a build with impregnated pharmaceutical items can be put into the body, which allows the drawn out arrival of a medication over an expanded timeframe. A biomaterial may likewise be an auto graft, allograft or xenograft utilized as a transplant materials.

In ideal environments, most common construction materials are very durable and can last indefinitely. However, design or construction deficiencies or lack of proper maintenance can result in less-than-ideal conditions under which construction materials will degrade. Degradation can take many forms, including chemical reactions, consumption by living organisms, and erosion or mechanical wear. Traditional building materials – steel, concrete, and wood – usually deteriorate and fail via well-known mechanisms. Even innovative materials that appear on construction sites can degrade, either by these well-understood mechanisms or through exotic, sometimes surprising, reactions and processes.

A magneto-optic effect is any one of a number of phenomena in which an electromagnetic wave  propagates through a medium that has been altered by the presence of a quasistatic magnetic field. In such a material, which is also called gyrotropic or gyromagnetic, left- and right-rotating elliptical polarizations can propagate at different speeds, leading to a number of important phenomena. When light is transmitted through a layer of magneto-optic material, the result is called the Faraday Effect: the plane of polarization can be rotated, forming a Faraday rotator. The results of reflection from a magneto-optic material are known as the magneto-optic Kerr effect (not to be confused with the nonlinear Kerr effect).

Polymers will be the material of the new millennium and the production of polymeric parts i.e. green, energy-efficient, high quality, low-priced and high sustainability, etc. will assure the accessibility of the finest solutions round the globe. Synthetic polymers have since a long time played a relatively important role in present-day medicinal practice. Polymers are now a major materials used in many industrial applications. The prediction of their behavior depends on our understanding of these complex systems. Polymerization and polymer processing techniques thus requires molecular modeling techniques. As happens in all experimental sciences, understanding of complex physical phenomena requires modeling the system by focusing on only those aspects that are supposedly relevant to the observed behavior. Once a suitable model has been identified, it has to be validated by solving it and comparing its predictions with experiments. Solving the model usually requires approximations.


This includes many areas of technology optimization, adaptive analysis and structure integrity). There is considerable demand for more holistic modeling, which for example, couples aero-elastics with structures and acoustics, and the improved characterization of the failure and damage behavior of advanced materials with respect to damage. A complex FEA analysis and good quality research is required to fulfill this track.

Computational and theoretical materials science is playing an increasingly important role in advancing the search for novel materials and understanding the properties of existing ones. Modern computational hardware and software enable faculty to create virtual laboratories, where materials are tested and properties predicted computationally.


Smart materials also called moreover Intelligent or responsive materials, These materials are having no less than one property that can be basically changed in a controlled way by outside lifts, for instance, extend, temperature, sogginess, pH, electric or appealing fields, light, or blend blends. Brilliant Materials are the commence of various applications, including sensors and actuators, or made muscles, particularly as electrically started polymers.


Devices Multifunctional energy storage and conversion devices that incorporate novel features and functions in intelligent and interactive modes, represent a radical advance in consumer products, such as wearable electronics, healthcare devices, artificial intelligence, electric vehicles, smart household, and space satellites, etc. Advisable materials, device designs, and performances are crucial for the development of energy electronics endowed with these smart functions. Integrating these smart functions in energy storage and conversion devices gives rise to great challenges from the viewpoint of both understanding the fundamental mechanisms and practical implementation.



Materials science incorporates the usage of science for the layout and association of materials with entrancing or possibly significant physical traits, for instance, appealing, optical and essential or synergist properties. It is like manner incorporates the depiction, taking care of and nuclear level understanding of these substances


Material Science is that the branch of science deals with the structure, properties, performance, characterization and method of materials that related to construction or manufacture like metals, polymers, ceramics and composites etc. Through the help of the material science we'll apprehend the history of the material like physical and chemical properties, so thus a reason material science and engineering options a pleasant scope significantly in rhetorical engineering, Nano technology, bio materials, metallurgy, failure analysis, investigation materials.


Instrumentation engineering is a branch of electrical and electronic engineering that is concerned with the study of engineering principles and procedures of computing instruments used in designing and assembling automated systems. The work of instrumentation engineers is critical in the industrial manufacturing sector as they are required to construct, design, and maintain instruments and systems of an industry and decide on the type of instruments needed for better quality and efficiency of the products. Instrumentation engineers need to possess creative skills, in addition to technical expertise. They should have the ability to write custom software applications as well as computer programs relating to the proposed objectives. They should also be familiar with operating elementary machinery systems and industrial tools. Owing to rapid industrial and economic growth, job opportunities in this sector are increasing every day.


The Mining and Mineral Process Engineering option focuses on the aspects of geological, civil, mechanical, electrical, and industrial engineering, together with business and management skills, that are integrated in the challenge of extracting minerals from the Earth. Mining engineers are involved in all stages of the process: from exploring for new mineral deposits and deciding if they can be mined economically, through designing and constructing mines at and below the ground, to managing and operating mines, to preparing raw mineral products for manufacturing or energy industries.  

Metallurgy is a domain of material science and engineering that studies the physical and chemical behaviour of metallic elements, their intermetallic compounds and their mixtures which are called as alloys. Outstanding engineering solutions and metallurgical science to support our national security and industry customers a scope that spans all alloys, ceramics, and compounds from uranium to hydrogen, with a strong emphasis on unconventional, low symmetry materials.