HYBRID EVENT: You can participate in person at Singapore or Virtually from your home or work.

2nd Edition of International Conference on

Materials Science and Engineering

March 28 -30, 2022 | Singapore

Scientific Sessions

1. Ceramics, Engineering Materials and Composite Materials

Ceramics are inorganic and nonmetallic materials that are necessary in our everyday lives. Ceramic and materials engineers design the processes by which these items are manufactured, develop new types of ceramic items, and discover new applications for ceramic products in day to day life.

Ceramics are often manufactured by molding clay, earthy materials, powders, and water mixtures into desired shapes. After the ceramic has been molded, it is burnt in a kiln, which is a high-temperature oven. Glazes include ornamental, waterproof, paint-like substances that are applied on ceramics.

The term "engineering materials" refers to a class of materials used in the construction of man-made structures and components. An engineering material's principal role is to endure applied loads without breaking or exhibiting excessive deflection. Metals, polymers, ceramics, and composites are the four major categories of engineering materials.

A composite material is made up of two components that have distinct physical and chemical properties. When they are mixed, they form a material that is specialized to perform a specific task.

  • Metals
  • Polymers
  • Ceramics
  • Composites
  • Glaze
3. Batteries & Solid Electrolyte Materials

A battery is a power source for electrical devices such as cell phones, flashlights, and electric cars that consists of one or more electrochemical cells with external connections. The electrode materials are irreversibly modified after discharge, hence primary (single-use or "disposable") batteries are used once and then destroyed. Secondary (rechargeable) batteries can be discharged and recharged several times with an applied electric current; reverse current can be used to restore the electrodes' original composition.

  • Primary batteries
  • Secondary batteries

A solid-state electrolyte (SSE) is a solid ionic conductor electrolyte that is a distinguishing feature of solid-state batteries. It can be used to replace liquid electrolytes in electrical energy storage (EES) systems, such as those found in lithium-ion batteries.

5. Computational Materials Science

To understand materials, computational materials science employs modelling, simulation, theory, and informatics. Discovering new materials, defining material behavior and mechanisms, explaining experiments, and investigating materials theories are some of the key objectives. As a growing topic of materials science, it is comparable to computational chemistry and computational biology. The computational approach is quickly gaining traction as the third viable method of probing materials. The development of new computational methodologies, high-performance computer hardware, and powerful software environments is also accelerating.

  • Integrated computational materials engineering
  • Mesoscale methods
  • Atomistic methods
  • Continuum stimulation
7. Nanomaterials and Nanotechnology

Nanomaterials are described as materials with at least one exterior dimension of 1 to 100 nanometers. Nanomaterials can exist naturally, be manufactured as by-products of combustion reactions, or be engineered specifically to serve a specific role. Physical and chemical properties of these materials may differ from those of their bulk-form equivalents. Nanomaterials are used in a wide range of industries, from healthcare and cosmetics to environmental preservation and air purification, due to their capacity to create materials in a specific way to perform a specified function.

Nanotechnology is an area of study and research that focuses on creating 'things' on the scale of atoms and molecules, such as materials and devices. The scale of which is nanometer, one billionth of a meter is a nanometer, which is ten times the diameter of a hydrogen atom. Nanotechnology has been lauded as having the ability to improve energy efficiency, assist clean up the environment, and solve severe health issues.

  • Carbon nanotubes
  • Nanomaterial innovations
  • 2-D materials
9. Plastics and Elastomers

The word "plastic" comes from the Greek word "plastikos," which means "to mould." Plastics are a type of polymeric substance that can be molded or formed, usually with the use of heat and pressure. Plasticity, which is frequently combined with other specific features like low density, low electrical conductivity, transparency, and toughness, allows plastics to be produced into a wide range of items.

Elastomers, also known as viscoelasticity polymers, are polymers that have both viscosity and elasticity. Elastomers are made up of molecules bound together by weak intermolecular interactions and have a low Young's modulus, a high yield strength, and a high failure strain. They have the rare ability to revert to their former shape and size after being stretched to extremes.

  • Chemical Resistance of Thermoplastics
  • Film Properties of Plastics and Elastomers
  • Permeability Properties
  • Raw materials for plastics & elastomer
  • Testing of plastics and elastomers
  • The Effect of different factors on Plastics and Elastomer
11. Magnetism and Multiferroism

The force exerted by magnets when they attract or repel each other is known as magnetism. The movement of electric charges causes magnetism. Another strongly magnetic substance must enter the magnetic field of an existing magnet to get magnetised. The magnetic field is the magnetically charged area surrounding a magnet.

Materials that exhibit more than one of the primary ferroic properties in the same phase are known as multiferroics. Multiferroic materials serve an important role in the development of systems with high magnetoelectric coupling, in which magnetization or polarisation can be manipulated by applying an electric or magnetic field, respectively.

  • Spintronics
  • Ferroic materials
  • Magentism
  • Magnetoelectric coupling
  • Domains and Domain Walls
  • Applications in different fields
13. Biosensors and Bio Electronic Materials

Analytical gadgets that turn a biological response into an electrical signal are known as biosensors. Biosensor fabrication, materials, transducing devices, and immobilisation procedures all necessitate multidisciplinary study in chemistry, biology, and engineering. Biosensor materials are divided into three types based on their mechanisms: biocatalytic, which includes enzymes, bio affinity, which includes antibodies and nucleic acids, and microbe-based, which includes microorganisms.

The application of electrical engineering principles to biology, medicine, behaviour, or health is known as bioelectronics. It develops innovative devices or processes for the prevention, diagnosis, and treatment of disease, as well as patient rehabilitation and health improvement. It advances fundamental concepts, creates knowledge from the molecular to the organ systems levels, and develops innovative devices or processes. Pacemakers and almost the whole medical imaging industry are the most common examples of bioelectronics.

  • Pacemaker
  • Materials in diagnosis
  • Biomaterials
  • Tissue engineering
15. Emerging Smart Materials

Smart materials are materials that have been engineered to act in a controlled and reversible manner, changing some of their properties in response to external stimuli such as mechanical stress or temperature. Smart materials are also known as responsive materials because of their response. With hot water, pressure, chemical, light, or heat, these things can change shape or behaviour. When you touch these smart materials, they may potentially self-assemble. Without any extra control or electronics, these property changes can be used to generate an actuator or a sensor from the materials. Shape memory material (SMM) and shape memory technology are terms used to explain smart materials (SMT). Many applications, such as sensors and actuators, or artificial muscles, rely on smart materials, notably electroactive polymers (EAPs).

  • Smart Materials Application in AI
  • Smart Electronic Materials
  • Smart Nanomaterials
  • Smart Materials for Energy and Environment
  • Smart Biomaterials and Bio-engineering
  • Smart Composite Materials
  • Smart Material for Manufacturing
17. Applications of Metallurgy, Minerals and Materials Science in other fields

Many industrial and scientific operations require the use of metallurgy. Metallurgy assists the mining, agricultural, geological, industrial, and engineering industries by examining the qualities of different minerals as the basis of their production, purification, or application.

Inorganic and solid in nature, a mineral is a chemical compound with a defined chemical makeup. It's a substance that's found in nature. It's inorganic with a well-organized internal structure. Copper is a mineral that is utilised in electrical devices because it is an excellent electrical conductor. Clay is used to manufacture cement and other materials that aid in the construction of roadways. Computers and other electronic devices contain gold. It's also used in the dental field. Aluminium is utilised in beverage cans, foil, cosmetics, and other products.

Materials are all around us. Material Science and Engineering has evolved into a critical tool for bringing about technical transformation.

  • Construction Engineering
  • Tissue Engineering
  • Medical & Biomedical Sciences
  • Chronic Diseases due to high exposure to metals like Beryllium, Lithium, etc..
  • Environmental Sciences
  • Agricultural research
  • Food Industry
19. Metals, Mining, Minerals and Materials

Metals are minerals or substances that naturally occur underneath the Earth's surface. The majority of metals are glossy or gleaming. Metals are inorganic, meaning they are formed of materials that have never been alive.

The extraction of precious minerals or other geological elements from the Earth, usually from an ore body, lode, vein, seam, reef, or placer deposit, is known as mining. The miner is interested in these deposits because they constitute a mineralized commodity.

A mineral is a naturally occurring inorganic solid having a crystalline structure and a specific chemical makeup. Mineral elements make up the earth, either alone or in a variety of combinations known as compounds.

A substance or mixture of substances that makes up an object is referred to as a material. Pure or impure materials, as well as living and non-living things, can be used. Physical and chemical qualities, as well as geological origin and biological purpose, can all be used to classify materials.

  • Mineral Raw Materials
  • Mining & Metals in a Sustainable World
  • Applications
21. Physics and Chemistry of Materials, Minerals and Metals

The Physics and Chemistry of Materials highlights the physical and chemical origins of solid-state properties while focusing on technologically significant materials that scientists and engineers are developing and employing.

The Physics and Chemistry of Minerals focuses on how to evaluate atomic structures and physical or chemical properties of minerals using modern techniques or novel theories and models.

Physical characteristics are a key technique to distinguish between materials. Because of the laws of thermal expansion and contraction, most metals have a higher density at lower temperatures. Metals are the electropositive elements, which give electrons and form positive ions, allowing them to become stable.

  • Surface chemistry
  • Advancements
  • Chemical modifications
23. Metal recycling processes, waste treatment

Metals are necessary, versatile, and may be employed in a variety of applications. Metal recycling has the advantage of being able to be recycled multiple times without losing its qualities. Aluminium and steel are two of the most commonly recycled metals. Silver, copper, brass, and gold, for example, are so expensive that they are rarely thrown away to be recovered for recycling. As a result, they don't cause a waste disposal dilemma or issue.

Chemical precipitation, flotation, adsorption, ion exchange, and electrochemical deposition are some of the traditional methods for removing heavy metals from wastewater. The most common method for removing heavy metals from inorganic wastewater is chemical precipitation.

  • Physical adsorption
  • Chemisorption
  • Treating heavy metals in wastewater
25. Advances in Materials Science, Metals and Minerals

Advances in Materials Science and focuses on all aspects of materials science and engineering, including material synthesis, characteristics, and applications in engineering.

Metalworking and metallurgical advancements are essential for the development of many modern technologies. Metal strives to be a pillar of the medical industry, from implanted devices to sharps goods, surgical tools to x-ray equipment. Because their characteristics are well suited for these demanding tasks, titanium alloys and high-carbon, cast cobalt chrome have permitted the manufacturing of successful implanted devices.

Mineral and metal extractive industries play an important part in the economic growth of all countries, and mineral processing is one of the most important areas for extracting required metals and a variety of mineral-derived finished goods from ores.

  • Advances in Materials Science and Engineering for Sustainable Development
  • Innovations in Polymeric Materials
  • Advances in Mineral Resources Engineering
27. Hydrogen Energy and Fuel Cell technology

Hydrogen energy is the use of hydrogen and/or hydrogen-containing molecules to generate energy for all practical uses with great energy efficiency, significant environmental and social advantages, and competitive economy.

A fuel cell is a device that uses a chemical reaction to create electricity. The two electrodes are located on the anode and cathode, respectively, in every fuel cell. The electrodes are placed where the reactions that produce electricity take place. Every fuel cell also has an electrolyte that transports electrically charged particles from one electrode to the other, as well as a catalyst that accelerates reactions at the electrolyte.

 Hydrogen fuel cells work by mixing hydrogen and oxygen atoms to generate power. The hydrogen combines with oxygen in a battery-like electrochemical cell to produce electricity, water, and a little quantity of heat.

  • Fuel Cells Advantages and Applications
  • The role of hydrogen and fuel cells in the global energy system
  • Design of Fuel cells
29. Minerals, Metals and Materials in Industry

Industrial resources (minerals) are geological materials extracted for their commercial worth, which are not fuel (fuel minerals or mineral fuels) or metal sources (metallic minerals), but are utilised in industries due to their physical and/or chemical qualities. They are utilised as raw materials or as additives in a wide range of applications, either in their native state or after beneficiation.

Metals, as well as their alloys with other metals, are widely used in our daily lives. Iron, copper, aluminium, silver, gold, and other metals are often used. Iron and steel production, as well as aluminium manufacturing, make up the primary metal industry. Over the last 30 years, this industry has reduced its energy use by 46%.

Industrial materials, as opposed to disposable “soft” goods such as chemicals, foodstuffs, pharmaceuticals, and textiles, are utilised in the creation of “hard” goods, such as more or less durable machines and equipment created for industry and consumers.

  • Industrial metals and their applications
  • Energy reduction in metal industries
  • Minerals as raw materials
31. Polymer Degradation and Stabilization

Polymer degradation refers to the loss of a polymer's physical qualities, such as strength, due to changes in its chemical composition. Polymers, particularly plastics, degrade at every stage of their product lifecycle, including manufacturing, usage, disposal, and recycling. The pace of deterioration varies greatly; some commercial techniques can totally dissolve a polymer in hours, while biodegradation can take decades.

Polymer stabilisers are chemical additives that can be added to polymeric materials like plastics to prevent or slow down degradation. Stabilizers can be used to protect plastics. The type of stabiliser required is determined by the environment against which the polymer must be protected (e.g., UV stabilizers, processing stabilizers, and long-term heat stabilizers).

  • Stabilizers used in polymer industries
  • Methods adopted to prevent polymer degradation
33. Renewable Resources and Biopolymers

Renewable resources can provide a steady supply of clean energy and are energy sources that are never depleted and Clean energy is produced by renewable resources, which means reduced pollution and greenhouse gas emissions, both of which contribute to climate change. Biomass energy (such as ethanol), geothermal power, hydropower, wind energy, and solar energy are examples of renewable resources.

Biopolymers are biodegradable polymers that are made from bio-based resources. Molecular biotechnology is used to create these bio-polymers, which use bacteria as factories to synthesise huge and complicated chemicals. Bioresources used in the form of fresh and waste biomass is both an opportunity and a challenge for the future, as it provides the opportunity to replace fossil fuels in the manufacture of energy carriers, materials, and specialty chemicals while are also reducing market pressure in a carbon-neutral manner.

  • Non-biodegradable biopolymers from renewable resources
  • Biopolymers from renewable resources
35. Rheology of Polymers

Polymers are viscoelastic fluids that can be either elastic or viscous depending on how quickly they flow or deform.

The study of how stress in a material or force exerted is related to deformation and flow of the material is known as polymer rheology testing. Understanding the rheological properties of polymers through laboratory testing can aid in the optimization of goods and process conditions, resulting in cost reduction and waste reduction. Rheological property testing is carried out on a variety of polymers, including polyolefins, liquids, adhesives, gels, and pastes, utilising a variety of temperatures and deformation rates (both shear and extensional). Rheology tests for intrinsic viscosity and relative viscosity are carried out when the polymer is in the melt phase or after it has been dissolved in a solvent.

  • Structure and Morphology of Polymer Blends
  • Intrinsic viscosity of polymer
  • Relative viscosity of polymer
37. Role of Polymers in biology, biological systems and other fields

A biopolymer is a polymer created by a living organism. Polymers, which are molecules made up of numerous smaller molecules called monomers, make up the majority of biological macromolecules. Typically, all of the monomers in a polymer are the same or highly similar to one another, and they are joined over and over to form the larger macromolecule.

These simple monomers can be joined together in a variety of ways to create complex biological polymers. The roles of macromolecules in living systems as information storage systems (such as DNA) and in biochemical synthesis have been widely investigated and understood, as have the roles of polymers in biological lubrication and their relationship to diseases like osteoarthritis and to remedies like tissue engineering.

Peptides can easily be converted into synthetic polymers, which are being researched for a variety of applications, including the creation of novel biomaterials and drug delivery/imaging.

  • Biopolymer
  • DNA and RNA as polymer
  • Biochemical synthesis of polymers
  • From biopolymer to Synthetic polymers
39. Metal selection, Construction and commissioning - Case studies of optimised operations

Metals are solid materials that are hard, lustrous, malleable, fusible, ductile, and electrically and thermally conductive. Metals are extensively utilised in the building industry to build structural components, piping, cladding materials, and other components due to their durability and strength.

Carbon steel, aluminium, copper tube, and stainless steel are the most popular, each with its own set of properties and applications.

Metal conditioning is the process of removing surface imperfections (seams, laps, pits, etc.) from metal that is in a semifinished state (bloom, billet, slab).

  • Procedure of metal conditioning and its types
  • Conditioning metals from semifinished state
  • Construction of metals- setbacks and advancements
2. Mechanics, Characterization Techniques and Equipments

Mechanics is a branch of science that studies the motion of bodies under the influence of forces, including the special case of a body at rest. Statics, which deals with forces acting on and in a body at rest; kinematics, which describes the various motions of a body or system of bodies; and kinetics, which tries to explain or predict the motion that will occur in a given condition, are the three branches of mechanics.

  • Mechanics of materials
  • Statics
  • Kinetics
  • Kinematics

In materials science, characterization refers to the broad and generic process of exploring and measuring a material's structure and properties. It is a crucial step in the field of materials science, without which no scientific understanding of engineering materials can be achieved. While many characterization techniques, such as basic optical microscopy, have been used for decades, new techniques and procedures are continually being developed.

  • Atomic Force Microscopy (AFM)
  • Focused Ion Beam (FIB)
  • Nanoindentation.
  • Scanning Electron Microscopy (SEM)
  • Time-of-Flight Secondary Ion Mass Spectrometry (ToF-SIMS)
  • Transmission Electron Microscopy (TEM)
  • X-Ray Diffraction (XRD)
  • X-ray Photoelectron Spectroscopy (XPS)
4. Environmental and Green Materials

As defined by Environmental Laws, Environmental Materials are any substance, material, chemical, contaminant, waste, or pollutant that is defined, regulated, listed, or determined to be dangerous, toxic, hazardous, extremely hazardous, restricted, or otherwise harmful to environment or humans.

Local and renewable resources are referred to as green materials. Green materials also have low embodied energy in their harvesting, gathering, manufacturing, transportation, and use. A green material blends in best with ecosystem activities and contributes to the development of a service-based economy.

  • Sustainable materials
  • Renewable resource
  • Natural green materials
  • Artificial green materials
6. Materials Science and Engineering

Materials science is an interdisciplinary field that studies the properties of matter and how they are applied to many fields of science and engineering. Chemical, mechanical, civil, and electrical engineering, as well as elements of applied physics and chemistry, are all included in it. Characterization is the foundation of all materials science, and it entails linking the desired qualities and relative performance of a material in a specific application to the structure of the atoms and phases in that material.

Material engineering is the study of the properties and applications of numerous materials used in science and technology, such as metals, ceramics, and plastics. Manipulation of materials, their qualities, and processes is critical in the quest to make things stronger, cheaper, lighter, more functional, and more sustainable.

  • Material Science
  • Technical advancements
  • Recent trends
8. Failure Analysis and Prevention Techniques

The process of collecting and evaluating data to establish the reason of a failure, usually with the objective of determining corrective actions or liabilities, is known as failure analysis. It is a significant discipline in many fields of the manufacturing industry, such as the electronics industry, where it is a crucial tool for developing new products and improving old ones. The failure analysis process begins with the collection of failed components, which are then examined using a variety of technologies, including microscopy, to determine the cause or reasons of failure.

Failure analysis can be used as a technique for both prevention and troubleshooting in the development of new products and the refinement of current ones. To avoid product failures, there are two strategies that can be applied, Fault Tree Analysis (FTA) and Failure Modes Effects Analysis (FMEA).

  • FTA
  • FEMA
  • Analysis of failure
10. Coating and Surface Engineering

A coating is a layer of material put onto a substrate to improve the surface qualities for corrosion and wear protection, according to surface engineering. Service environment, life expectancy, substrate material compatibility, component shape and size, and cost are all factors that influence coating selection. Coating techniques for depositing different types of material at thicknesses ranging from a few microns to several millimetres are available.

Surface engineering is a sub-discipline of materials science concerned with solid matter's surface. Chemistry, mechanical engineering, and electrical engineering are among the fields where it can be used. Surface engineering is the process of changing the properties of a surface phase in order to slow down its degradation. This is achieved by making the surface resistant to the environment it will be employed in. It provides low-cost material that can be used to create a strong design.

  • Surface Coating
  • Recent advances in surface engineering and coating technologies
12. Structural Materials and Metallurgy

Materials with the primary aim of transmitting or supporting a force are classified as structural materials. They can be made of metal, ceramic, polymer, or a combination of these materials. Transportation (plane and automobiles), construction (buildings and roads), bodily protection (helmets and body armour), energy production (turbine blades), and other smaller structures such as those used in microelectronics are all possible applications of structural materials.

The science and technology of metals and alloys is known as metallurgy. Metals technology, science related to metal manufacturing, and metal engineering are all terms that can be used to define metallurgy. Metallurgy is also known as metals technology, which refers to the application of science to the fabrication of metals and the engineering of metal components for use in consumer and manufactured goods.

  • Traditional Metallurgy
  • Metallurgy of Bridges
  • Metalworking processes
  • Alloys
  • Extraction Procedures
14. Optical, Electronic, Magnetic Materials and Plasmonics

Optical materials are usually conceived of as transparent materials, i.e., materials that transmit light well in specific spectral bands while absorbing and scattering light minimally. Absorption, on the other hand, can be used for optical filters, and light scattering is also used in some applications.

Electronic materials are materials that are primarily studied and exploited for their electrical properties. The electric response of materials is largely determined by electron movements and their interactions with atoms and molecules. According to its response to an external electric field, a material can be classed as a conductor, semiconductor, or insulator.

Magnetic materials are materials that have magnetic properties and are studied and used for that reason. The magnetic dipole moment associated with the intrinsic angular momentum, or spin, a material's electrons determines much of its magnetic response.

A plasmonic material is one that uses surface plasmon resonance phenomena to produce optical qualities that aren't found in nature. The interaction of light with metal-dielectric materials causes a collective oscillation of free electrons, resulting in surface plasmon resonance.

  • Magneto-plasmonic nanoantennas
  • Magnetic-plasmonic bifunctional nanoparticles
  • Plasmonic simulation
  • Magnetic characterization
16. Biomaterials and Medical Devices

A biomaterial is a substance that has been created to interact with biological systems for a medical purpose, either therapeutic or diagnostic. Biomaterials play an important role in modern medicine, restoring function and assisting recovery for those who have been injured or diagnosed with a disease. Natural or synthetic biomaterials are utilised in medical applications to support, augment, or replace damaged tissue or biological functions. Biomaterials is a modern field that includes medicine, biology, physics, and chemistry, as well as tissue engineering and materials science. Tissue engineering, regenerative medicine, and other advances have propelled the discipline forward dramatically in the last decade.

A medical device is any instrument, apparatus, implement, machine, appliance, implant, in vitro reagent, software, material, or other similar or related product that the producer intends to be used alone or in combination for medical purposes. Medical gadgets are utilised in a wide range of situations ranging from common medical operations, such as bandaging a sprained ankle, diagnosing HIV/AIDS to implanting an artificial hip, or

  • Biomaterials for Energy production
  • Biomaterials in Medical Devices
  • Biocompatibility of polymer-based biomaterials and medical devicesany surgical intervention.
18. Advanced Bio-Materials, Bio-devices & Tissue Engineering

A biomaterial is a substance that has been created to interact with biological systems for a medical purpose, either diagnostic or therapeutic. Emerging advanced biomaterials, such as hydrogels, films, micro/nanofibers, and particles, have recently shown significant promise for use as cell/drug carriers for local drug delivery and biomimetic scaffolds for future regeneration therapies.

Any device made out of biological components is referred to as a biodevice. More efficient, concurrent design of materials and components to meet specified performance requirements, the ability to prioritise models and computational methods by the degree of utility in design, are all potential benefits of this systems approach.

Tissue engineering is a biomedical engineering discipline that restores, maintains, improves, or replaces various types of biological tissues by combining cells, engineering, materials technologies, and appropriate biochemical and physicochemical parameters.

  • Designing Smart Biomaterials for Tissue Engineering
  • Polymers for Health and Biomaterials
  • Energy Harvesting for Bio Devices
  • Bio Device Fabrication
  • Wearable and Mobile Devices
  • Diagnostic Devices
  • Radio/Photo Therapy Devices
20. Casting, hot/cold rolling, forming, forging, heat treatment, annealing

Casting is a manufacturing method in which a liquid substance is poured into a mould with a hollow hole of the required shape and subsequently solidified. A casting is a solidified object that is ejected or broken out of the mould to complete the process.

Rolling is a metal forming process that involves passing metal stock between one or more pairs of rolls to reduce thickness, uniform thickness, and/or impart a desired mechanical attribute.

Forming, also known as metal forming, is a metal working method for shaping metal parts and objects through mechanical deformation; the workpiece is reshaped without removing or adding material, and its mass remains constant.

Since the time of the ancient Mesopotamians, forging, a metal shaping technique that uses compressive, confined forces, has been a standard metal fabrication technique.

Heat treatment is a regulated technique that changes the microstructure of metals and alloys like steel and aluminium to impart qualities that improve the component's working life, such as increased surface hardness, temperature resistance, ductility, and strength.

Annealing is a heat treatment procedure that alters a material's physical and occasionally chemical properties to improve ductility and reduce hardness, making it easier to work with.

  • Steel Forming Processes
  • Furnace technology
22. Carbon Nanostructures, Graphene and 2D Materials

Carbon nanostructures are artificially formed structures with nanoscale scale, and carbon nanostructure changes have piqued the interest of numerous researchers since their discovery in the early 1990s. Carbon nanostructures are a key tool for creating advanced polymer composite materials.

A one-atom-thick layer of carbon atoms organised in a hexagonal lattice is known as graphene. It is the building block of graphite (which is used, among other things, in pencil tips), but graphene is a fascinating substance in and of itself, with a slew of astounding features that have earned it the moniker "wonder material" on numerous occasions.

Single-layer materials, often known as 2D materials in materials science, are crystalline solids made up of a single layer of atoms. These materials show promise in several applications.

  • Biocompatibility and biodegradability of 2D materials
  • Carbon Nanostructures for Sensing Applications
  • Classic Carbon Nanostructures
24. Advanced Energy Materials & Energy Harvesting Materials

Energy materials are a type of material that has a lot of chemical energy stored in it that can be released. Energy materials are a large category of materials that can be used for energy conversion and transmission. Advanced Energy Materials encompasses batteries, fuel cells, photovoltaics, magnetic refrigeration, hydrogen technologies, supercapacitors, photocatalysis, thermoelectrics and solar power technologies.

The development of energy-harvesting technology requires innovative materials. Thermoelectric materials, pyroelectric materials, piezoelectric materials, and magnetic materials are among the potential micro- and nano-scale energy-harvesting materials (including single crystals, polymers, ceramics and composites) and technologies now being explored.

  • Solar Energy Materials
  • Catalysis and Energy Materials
  • Carbon Materials in Energy
  • Quantum dots
  • Materials and Emerging Technologies for Energy Applications
26. Novel Hybrid Carbon Materials

Carbon-based materials have distinct structures and dimensions, allowing them to be modified electrically and integrated into a variety of commercial systems. Because carbon-based materials are inert in nature, they could significantly increase antifouling characteristics, bacterial suppression, and membrane stability and strength. It comes in a variety of allotropes, ranging from 1D to 3D structures, and is employed in a variety of applications.

A true carbon-based hybrid nanomaterial is defined as "a new material in which two or more carbon allotropes have been integrated into a new hybrid with possible additions of selected metallic nanoparticles and which exhibits emerging properties that are significantly beyond those of its building blocks.

  • Novel hybrid carbon materials for nano-electronics
  • Carbon Nanofibers
  • Novel hybrid materials for Batteries
28. Polymer Science and Engineering

Polymers are materials made up of lengthy chains of molecules that repeat themselves. Depending on the sort of molecules bound and how they are linked, the materials have distinct properties. Polymers are used in nearly every facet of modern life. Rubber and polyester are two materials that flex and stretch. Epoxies and glass, for example, are strong and tough.

Polymer science, often known as macromolecular science, is a branch of materials science that studies polymers, particularly synthetic polymers like plastics and elastomers. Researchers from a variety of fields, including chemistry, physics, and engineering, work in the topic of polymer science.

  • Polymer Energy Materials
  • Biopolymers
  • Applications of polymers
30. Biomaterials and Healthcare

A biomaterial is today described as a substance that has been designed to take a shape that is utilised to steer the course of any therapeutic or diagnostic treatment by controlling interactions with components of biological systems, either alone or as part of a complex system.

In medical language, a biomaterial is defined as "any natural or synthetic material (including polymer or metal) intended for introduction into live tissue, particularly as part of a medical device or implant" (for example joint or artificial heart valve).

Biomaterials are defined as "materials that have certain new features that allow them to come into direct contact with living tissue without provoking any harmful immune rejection reactions" from a healthcare perspective.

Apart from biodevices and implants, biomaterials have proven usefulness in other healthcare-related sectors including diagnostic kits, disposable medical devices, polymeric therapies, and so on.

  • Medical Textiles and Modern textiles for Healthcare
  • Preparation of Scaffolds and New Biomaterials
  • Latest Ways Biomaterials Are Being Used in Health Care
32. Pharmaceutical & Industrial Coating Materials

The pharmaceutical sector is beset by limits and has a diverse range of specialties, putting it on a completely different level than other industries. From acquiring pharma raw materials to receiving ready-to-sell products, the pharmaceutical sector requires extraordinary precision and attention at every stage. The following three types of pharmaceutical raw materials are available: APIs (Active Pharmaceutical Ingredients), Inactive Ingredients (Excipients), and Raw Materials for Packaging.

A coating is a protective layer that is applied to an object's surface, also known as the substrate. The coating can be applied for ornamental, functional, or both purposes. The coating may be an all-over coating that covers the entire substrate or a partial coating that just covers parts of the substrate. A thin film of functional material is applied to a substrate, such as paper, film, fabric, foil, or sheet stock, in many industrial coating processes.

  • Future trends in film coating
  • Moisture Barrier Coating for Drug Delivery
  • Coatings Applications
  • Pharmaceutical Coatings
34. Fibers and Composites

Fibres are thread-like structures with thin, long, and flexible strands that can be broadly defined. Plants and animals are the two main sources of fibres. The fibre manufacturing process, as well as the components and coating chemistries used in the process, determine the fibre qualities.

Fibre reinforcement is the primary source of structural characteristics in composite materials. The fibre in a composite, held in place by the matrix resin, gives tensile strength to the final product, improving performance attributes such as strength and stiffness while reducing weight.

  • Fiber-reinforced composite
  • Fibers and Composites Manufacturing
  • Natural Fibre Composites in Structural Components
  • Fiber-Matrix Relationship for Composites Preparation
  • Evaluation of Epoxy Composites
36. Scanning Probe Microscopy for Energy Applications

Scanning probe microscopy (SPM) is a type of microscopy that creates images of surfaces by scanning the specimen with a physical probe. It's a device that can image surfaces at the atomic level. Several scanning probe microscopes can image several interactions at the same time. The way these interactions are used to create an image is referred to as a mode.

Materials utilised for energy conversion, energy transmission, and energy storage are referred to as "energy applications." In these disciplines, substantial basic and applied research is undertaken to meet today's and tomorrow's needs. Scanning Probe Microscopy (SPM), with its several operation modes, is currently a key player in this arena.

  • SPM and its applications
  • Recent advancements in energy storage
38. Development of New Characterization, Modeling, Data Analytics and Design Methods

In materials science, characterization refers to the broad and generic process of probing and measuring a material's structure and properties. It is a crucial step in the field of materials science, without which no scientific understanding of engineering materials can be achieved. Application of homologous series of tracers to the development of new characterisation approaches and modelling of transport properties on plastic materials.

Some of the primary goals of materials research include modelling numerous phenomena observed in materials, predicting their behaviour under various conditions, and developing/designing cost-effective materials with enhanced or desired qualities.

Materials data science, as a definition of data science, is an interdisciplinary field of study that incorporates materials science, computer science, arithmetic, physics, and chemistry.

The Material Design technique makes it easier to create material experiences. It proposes four key action steps: (1) Understanding the Material: Technical and Experiential Characterization, (2) Creating Materials Experience Vision, (3) Manifesting Materials Experience Patterns, and (4) Designing Material/Product Concepts, which are provided in a sequential order.

  • Material design protocol
  • Data analysis in material science
  • Advancements in this field
40. Geometallurgy, mineral processing, hydrometallurgy, biometallurgy and pyrometallurgy

The method of mixing geology or geostatistics with metallurgy, or more precisely, extractive metallurgy, to build a spatially or geologically based prediction model for mineral processing plants is known as geometallurgy. It is utilised in the hard rock mining industry to control and mitigate risk during the design of mineral processing plants.

Mineral processing is the process of separating valuable minerals from waste rock, or gangue, in crude ores and mineral products. It is the initial process that most ores go through once they are mined in order to generate a more concentrated material for extractive metallurgy techniques.

Hydrometallurgy is a technique for extracting metals from their ores in the area of extractive metallurgy. Hydrometallurgy is the process of extracting metals from ores, concentrates, and recycled or residual materials using aqueous solutions. Pyrometallurgy, vapour metallurgy, and molten salt electrometallurgy are processing processes that complement hydrometallurgy.

Biometallurgy is a term that refers to biotechnological processes that involve microorganisms interacting with metals or metal-bearing materials. Biomining and bioremediation are the two most researched branches of the biometallurgical science, and they are used on a significant scale all over the world.

Pyrometallurgy is an extractive metallurgy branch. Thermal treatment of minerals, metallurgical ores, and concentrates is used to cause physical and chemical changes in the materials, allowing valuable metals to be recovered.

  • Geostatistics
  • Geology
  • Metallurgy
  • Metal ore extraction
  • Interaction of microorganisms with metals
  • Electrometallurgy
  • Phytometallurgy
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