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World Congress on Materials, Nanomaterials and Biobased Chemistry, will be organized around the theme “Innovatory Advancements in the Field of Chemistry”

Nanomate 2020 is comprised of keynote and speakers sessions on latest cutting edge research designed to offer comprehensive global discussions that address current issues in Nanomate 2020

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Materials Science is not to be thought of as a solitary discipline, but rather as a wide and indispensable field of information and strategies that establish a fundamental foundation stone of current modern technologies. In that regard, materials resembles other spreading fields, for example, communications, energy, medical science, engineering and nanotechnology, each of which encompasses few disciplines and is characterized by tremendous effect on society.

 

  • Track 1-1New frontiers in Materials Science by Ionic liquids
  • Track 1-2Engineering approach for elastic-plastic fracture analysis in materials
  • Track 1-3Regulation On Advanced Therapy Medicinal Products/ Tissue Engineering
  • Track 1-4Teaching and technology transfer in materials science
  • Track 1-5Electron backscatter diffraction in Materials Science

The modern field of biomaterials combines biology, medicine, chemistry, physics, and also more recent impacts from tissue engineering and material science. The field has developed significantly in the past decade because of innovations in regenerative medicine and tissue engineering.

Biomaterials, for example, bone substitutes and collagen layers, are utilized regularly in regenerative dentistry as well as for bone and ligament regeneration in orthopaedics.

Recently, scientists developed an injectable, engineered biomaterial that reversed type 1 diabetes in non-obese diabetic mice. Researchers are also investigating the improvement of supramolecular biomaterials that can be turned on or off in response to physiological indications or that mimic regular biological signalling.

Biomaterials can be reengineered into formed or machined parts, coatings, filaments, foams and fabrics for use in biomedical devices. These may incorporate heart valves, hip joint substitutions, dental implants, or contact lens. The biodegradable and bio-absorbable property of biomaterials made them to dispose of step by step from the body in the wake of fulfilling a function.

 

  • Track 2-1Smart Polymers
  • Track 2-2Tissue Engineering
  • Track 2-3Biomimetic
  • Track 2-4Biomedical Imaging
  • Track 3-1Polymer matrix composites
  • Track 3-2Composite materials fabrication
  • Track 3-3Improvised composite materials
  • Track 3-4Bio ceramics and medical applications
  • Track 3-5Ceramics coating

The foremost challenges in the upcoming decades will be the increase in population, the concentration of people in expansive urban centres, and globalization, and the expected change of climate. There is no doubt that polymers will play a key role in finding successful ways in handling these challenges. Currently, the emphasis has been on speciality polymers that are costly yet have specific properties that give high esteem, for instance, therapeutic prostheses such as, hip cups, replacement tendons or adaptable light-discharging diodes.

Polymeric materials can be designed on the atomic scale to meet the requirements of advanced technology. The possible control of engineered processes by biological systems is promising as a means of idealizing structures.

 

  • Track 4-1Molecularly imprinted polymers
  • Track 4-2Super Absorbent Polymers
  • Track 4-3Polymer Characterization and Degradation
  • Track 4-4Polymer Structure
  • Track 4-5Properties and Synthesis of Polymers
  • Track 4-6Applications of Polymers
  • Track 5-1Advances in dielectric materials and electronic Devices
  • Track 5-2Optical nanomaterials for photonics/bio photonics
  • Track 5-3Imaging, microscopy and adaptive optics
  • Track 5-4Lasers in medical and biology

Material science impacts metallurgy more than one could imagine. Powder metallurgy is a term covering a wide scope of fields in which materials or parts are conveyed using metal powders. They can avoid, or staggeringly decrease, the need to utilize metal expulsion shapes and can lessen the expenses. Pyro metallurgy solidifies warm treatment of minerals and metallurgical metals and thinks to recognize physical and considerable changes in the materials to empower recuperation of valuable metals.

Corrosion is a dangerous and costly problem. Corrosion threatens the safe disposal of radioactive waste that must be stored in containers for tens of thousands of years, corroded medical implants may cause blood poisoning .There are plenty of methods for protection against corrosion which are in common use, whether by providing a physical barrier or deliberate control of the corrosion reaction.

Mining is challenging field for both machine and human. As the demand for minerals become higher and the sources of useful metals are depleted, reuse and recovery are becomes significant.

 

  • Track 6-1Alloy development and casting techniques
  • Track 6-2Powder metallurgy
  • Track 6-3Corrosion, heat treatment
  • Track 6-4Metallurgical machinery and automation
  • Track 6-5Environmental protection

Industrial biotechnology also known as “white biotechnology” is one of the most favourable processes/method to control some of the serious issues of modern industry. A substantial part of this life science activities are devoted directly or indirectly to industrial biotechnology. We can manufacture products like chemicals, detergents and animal feed by utilizing natural/synthetic enzymes and microorganisms. This session will include the recent advances and research which enables to use renewable raw materials and can contribute to lowering greenhouse gas emissions and stirring away from a petrochemical-based economy.

 

  • Track 7-1Scale fermentation
  • Track 7-2Cell culture technology
  • Track 7-3Solid state fermentation
  • Track 7-4Advanced microbiology
  • Track 7-5Bio transformation
  • Track 8-1The built environment
  • Track 8-2Innovative materials for sustainable construction and cultural heritage
  • Track 8-3Green building materials
  • Track 8-4Green Polymers and polymer composites
  • Track 8-5Properties and Applications of green materials

The most effective way to reduce plastic pollution is to not create plastics in the first place. Once the plastic is in your possession, it is your chance to be creative and find different usages for it. Reuse plastic produce bags for sandwiches, plastic grocery bags for small trash bags, and re-use your plastic silverware! Reusing plastics can reduce the demand for new plastics to be created.

Recycling plastic takes less energy than making plastic from raw materials. Sure it can be a hassle to clean your peanut butter jar to recycle it rather than tossing it in the trash, but the impact is vastly different

At this time, plastic is a fact of modern life, as is pollution derived from it. However, with a little planning, commitment, and effort, it’s easy to make steps towards reducing your carbon footprint.  Remember that the biggest impact is made by avoiding plastics in the first place, if that can’t be done reuse and recycling are the next best steps

 

  • Track 9-1External recycling
  • Track 9-2Ocean acidification
  • Track 9-3Metallurgy
  • Track 9-4Thermal processes
  • Track 10-1Nanometric
  • Track 10-2Nanopolymers
  • Track 10-3Nanoglasses
  • Track 10-4Nano ceramics
  • Track 10-5Biological Nanomaterials
  • Track 10-6Quantum dots
  • Track 10-7Nanomaterials for data storage
  • Track 10-8Physico-chemical methods of nanostructured materials

Nanodentistry is a branch that involves the maintenance and up gradation of oral health care yet more precise by employing nanomaterials, biotechnology, including tissue engineering & ultimately dental Nano robotics. Recent developments of nanoparticles and nanotubes in dentistry, endodontics, periodontal management, has played a crucial role in the in the upgrade of dental industry.  Nanomaterials and nanoparticles are cornerstones of innovative dental devices used for drug discovery and delivery, discovery of biomarkers, and molecular diagnostics. Nanodentistry aims to manipulate and fine tune particle to make exceptional with novel properties and advances in dentistry.

 

  • Track 11-1Dentine Hypersensitivity
  • Track 11-2Nano Composites
  • Track 11-3Nanoencapsulation
  • Track 11-4Diagnosis of Oral Cancer
  • Track 12-1Tissue Engineering
  • Track 12-2Cell Repair
  • Track 12-3Nano Implants
  • Track 12-4Prosthesis
  • Track 13-1Nanomaterials for solar cells, fuel cells, batteries
  • Track 13-2Health and Environmental Impact of Nanotechnology
  • Track 13-3Nanoscale energy technology and Nanosensors
  • Track 13-4Green Nanotechnology
  • Track 13-5Nanomaterials for energy storage and conversion
  • Track 14-1Risk and safety assessment
  • Track 14-2Food regulatory system
  • Track 14-3Genetic modification
  • Track 14-4Nutraceuticals
  • Track 14-5Nano encapsulation
  • Track 14-6Nanostructure lipid carrier
  • Track 14-7Food processing
  • Track 14-8Nano packaging

Nanomedicine can be characterized as medicinal use of nanotechnology. Nanomedicine ranges from the restorative utilizations of nanomaterials and organic gadgets. Nanomaterials can be helpful for both in vivo and in vitro biomedical research and applications and reconciliation of nanomaterials with science has prompted the improvement of cutting edge demonstrative gadgets, exercise based recuperation applications, explanatory instruments, differentiate operators and medication conveyance vehicles.

Nanoscience and Molecular Nanotechnology are the new edges of science and advancement in Europe and around the world, working at the measure of individual particles. Top specialists and what's more policymakers general praise the focal points it would pass on to the entire society and economy: a vast segment of them request the key part research would play in the quality creation strategy to make exploitable game plan of advancements by the European business inciting a choice of exceptional applications, things, markets and gainful wage sources

 

  • Track 15-1Nano Medicine
  • Track 15-2Nano Bio-Technology
  • Track 15-3Nano Bio-Technology
  • Track 15-4Nano Fabrication
  • Track 15-5Nano Patterning
  • Track 15-6Nano Patterning
  • Track 15-7Nano Lithography
  • Track 15-8Nano Photonics, Nano imaging and Nano Spectroscopy

Biomass control is carbon impartial power produced from renewable organic waste that would some or another way is dumped in landfills, straightforwardly consumed, or left as feed for woodland fires. Whenever incinerate, the energy in biomass is discharged as heat. Usage of chimney involves in the use of biomass as the wood you incinerate in it is a biomass fuel.

 

  • Track 16-1Biomass Resources for Bioenergy
  • Track 16-2Agriculture residues
  • Track 16-3Energy crops
  • Track 16-4Bioenergy cropping systems

Biophotonics is the subject that deals with the study of optical methodology in biological systems, composed those which occur naturally and in bioengineered materials. The important feature of this field is imaging and detecting cells and tissue. It also comprises of injecting fluorescent markers to track cell dynamics and drug delivery into a biological system. Biophotonics is similarly used to study biological materials, i.e., scattering material, on a microscopic or macroscopic scale. On the microscopic scale common applications encompass microscopy and optical coherence tomography. On the macroscopic scale, the light is diffuse and applications normally deal with diffuse optical imaging and tomography. Biomedical optics deals on the design and application of advanced optical techniques to resolve problems in medicine and biology.

 

  • Track 17-1Photonic Therapeutics and Diagnostics
  • Track 17-2Neurophotonics, Neurosurgery and Optogenetics
  • Track 17-3Clinical Technologies and Systems
  • Track 17-4Tissue Optics, Laser-Tissue Interaction and Tissue Engineering
  • Track 17-5Nano/Biophotonics
  • Track 17-6Advanced Optical Techniques for Diagnostics

 A bio refinery may be a facility that integrates biomass conversion processes and instrumentality to supply fuels, power, heat, and added chemicals from biomass. The bio refinery conception is analogous to today's oil refinery that produces multiple fuels and merchandise from crude oil.

 

  • Track 18-1Biochemical conversion
  • Track 18-2Biocomponent
  • Track 18-3Lignocellulosic feedstock biorefineries
  • Track 18-4Marine biorefineries
  • Track 18-5Conventional biorefineries
  • Track 18-6Green charcoal
  • Track 19-1Biogas from agriculture waste
  • Track 19-2Plasma arc gasification
  • Track 19-3Toxic waste
  • Track 19-4Sanitary landfill
  • Track 19-5Bio-natural gas (Biomethane, Hydrogen)
  • Track 19-6Biogas plants
  • Track 19-7Biogas from waste vegetables
  • Track 19-8Biogas from algae
  • Track 19-9Advances in biogas technology
  • Track 19-10Landfill diversion

First-generation biofuels are made of the sugars and vegetable oils found in food crops exploitation customary process technologies. Second-generation biofuels area unit made up of totally different completely different} feedstock’s and thus might need different technology to extract helpful energy from them. The term second-generation biofuels is employed loosely to explain each the 'advanced' technology accustomed method feed stocks into biofuel, however additionally the utilization of non-food crops, biomass and wastes as feed stocks in 'standard' biofuels process technologies if appropriate. This causes some extensive confusion. so it's necessary to differentiate between second-generation feed stocks and second-generation biofuel process technologies.

 

  • Track 20-1Second generation biofuels
  • Track 20-2Lignocellulose
  • Track 20-3Jatropa
  • Track 20-4Camelina
  • Track 20-5Algae
  • Track 20-6Silver bullet
  • Track 20-7Sustainable feedstock
  • Track 20-8Cellulosic ethanol