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6th Edition of International Conference on Polymer Science and Technology , will be organized around the theme “Empirical Awareness of Polymers in Modern Technology”

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

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Polymer demand in Europe has long been recognized amongst the world leaders. it's presently facing apparently restricting maturity within the West and therefore the question is currently, of a way to add price throughout the availability chain. Central Europe is seeing increasing investment in industrialized and plastic process, with several countries cashing in on free access to the only market not to mention an occasional production prices. Russia and therefore the former state Republics still have lots of unsuccessful potential, deteriorated by poor republics relations and political economy. The smaller states within the region square measure experiencing a fast growth of technological capability that offers nice opportunities, but at a similar time, threatens long established markets within the west the compound market is massive and numerous and despite increasing process, opportunities unit gift in today’s climate. while not prime quality information it's troublesome to arrange future investments and promoting ways. AMI’s latest report provides careful applied math analysis of wherever growth opportunities lie and therefore the nature of the trade. This report can assist any company wish to raised perceive the ecu industry

AMI's 2015 European industry Report, European compound markets square measure forecast to grow by one.3% this year, building on a recovery of but I Chronicles for 2014. However, even this modest gain is underneath risk from the region's tight provide for several materials and chop-chop economic process.As a result the ecu industry in 2015 finds itself in another amount of upheaval and alter because it appearance to tug out of the stagnation caused initial by the nice Recession in 2008-2009 then by the Eurozone crisis 2012-2013. within the 2 years since AMI printed its last review, in 2013, demand has barely shifted from simply over thirty six million tones and therefore the volume of polymers consumed in 2014 was still some 100 percent below that utilized in 2007 before the nice Recession hit.

 

  • Track 1-1Polymer market segmented by application for the year 2019
  • Track 1-2Polymer market by region
  • Track 1-3Polymer market by type of polymer
  • Track 1-4Trend, Profit, and Forecast Analysis
  • Track 1-5Shear thining

Solid Waste Management of Polymers increasing volumes of synthetic polymers are manufactured for various applications. "The disposal of the used materials is changing into a heavy drawback.". Unlike natural polymers, most synthetic macromolecules cannot be assimilated by microorganisms. Although polymers represent slightly over 10% of total municipal waste, the problem of nonbiodegradability is highlighted by overflowing landfills, polluted marine waters, and unsightly litter. "Existing government laws in Europe and anticipated laws within the us can greatly limit the employment of polymers in massive volume applications (packaging, water treatment, paper and textile, sizing, etc.) unless acceptable means that of waste management are obtainable. Total management of compound wastes needs complementary mixtures of biodegradation, burning, and exercise.. Biodegradation is the most desirable long-term future solution and requires intensive research and development before it becomes practical. On the other hand, incineration and recycling can become operational in a relatively short time for the improvement of the situation at present and in the near future.

 

  • Track 2-1Recycling of plastic waste by density separation
  • Track 2-2Polymers in plastic industry
  • Track 2-3Growth opportunities in shifting polymers markets
  • Track 2-4Industry profitability for investments on polymers
  • Track 2-5Identify most cost-effective raw materials to use
  • Track 2-6Polymers in textile marketing

Plastic utilization is that the method of convalescent scrap or waste plastic and reprocessing the fabric into helpful merchandise. Since the overwhelming majority of plastic is non-biodegradable, recycling could be a  part of world efforts to scale back plastic within the waste stream, on an average some eight million metric tons of waste plastic that enters the Earth's ocean per annum.

Compared with lucrative recycling of metal, and almost like the low price of glass, plastic polymers utilization is usually more difficult attributable to rarity and low price. There also are various technical hurdles to beat once utilization plastic.When differing types of plastics square measure liquified along, they tend to phase-separate, like oil and water, and set in these layers. The part boundaries cause structural weakness within the ensuing material, which means that chemical compound blends square measure helpful in just restricted applications. the 2 most generally factory-made plastics, polypropene and synthetic resin, behave this manner, that limits their utility for utilization. anytime plastic is recycled, extra virgin materials should be else to assist improve the integrity of the fabric. So, even recycled plastic has new plastic material else in. a similar piece of plastic will solely be recycled regarding 2-3 times before its quality decreases to the purpose wherever it will now not be used. Recently, the utilization of block copolymers as "molecular stitches" or "macromolecular welding flux" has been proposed to beat the difficulties related to part separation throughout utilization

 

  • Track 3-1Sorting
  • Track 3-2Washing
  • Track 3-3Shredding
  • Track 3-4Identification and Classification of Plastic
  • Track 3-5Extruding

Polymers have contend Associate in Nursing integral role among the advancement of drug delivery technology by providing controlled unhitch of therapeutic agents in constant doses over long periods, cyclic quantity, and tunable unhitch of every hydrophilic and hydrophobic drugs. From early beginnings mistreatment ready-made materials, the sphere has huge massively, driven partly by the innovations of chemical engineers. modern advances in drug delivery are presently predicated upon the rational kind of polymers tailored for specific consignment and engineered to exert distinct biological functions. throughout this review, we've got a bent to spotlight the essential drug delivery systems and their mathematical foundations and discuss the physiological barriers to drug delivery. we've got a bent to review the origins and applications of stimuli-responsive compound systems and compound medicine like polymer-protein and polymer-drug conjugates. the foremost recent developments in polymers capable of molecular recognition or leading object delivery unit of measurement surveyed perhaps areas of research advancing the frontiers of drug delivery.

 

 

 

  • Track 4-1Diffusion-Controlled Systems
  • Track 4-2Solvent-Activated Systems
  • Track 4-3Biodegradable Systems
  • Track 4-4Pharmacological Considerations in Drug Delivery
  • Track 4-5Polymer-Drug Conjugates
  • Track 4-6Molecularly Imprinted Polymers
  • Track 4-7Polymer-Protein Conjugates
  • Track 4-8Endosomolytic Polymers

In nanomaterial and nanotechnology the term ‘Nano’ is derived from the Greek ‘Nanos ‘which is known as extremely small particle. Basically nanomaterial is material with dimensions on the nano-scale.structure at Nano-scale has unique optical, electronic, or mechanical properties. Actually nanomaterial’s cover huge areas of materials of materials, many of which we would not normally consider to be particularly revolutionary. Because nature is full of nanomaterial’s and Nano-structure. Nanotechnology is the engineering of operative systems at the molecular scale. This covers both present work and concepts that are more advanced. In this real world today the nanotechnology has ability to bulid products using techniques and equipments to produce completly high performance products. The idea that seeded  nanotechnology were first discussed in 1959 by renowned physicist Richard Feynman in his talk There's Plenty of Room at the Bottom in which it explained about  the possibility of synthesis via direct manipulation of atoms

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  • Track 5-1Synthesis of nanomaterial and properties
  • Track 5-2Physicochemical characterization
  • Track 5-3Optical design and simulation
  • Track 5-4Microfabrication
  • Track 5-5Optical microfabrication
  • Track 5-6Development of catalytic process

From a synthetic bone fabricated from acrylic to custom confections created from chocolate, the globe of 3D printing keeps obtaining additional superb. Today, 3D printers will enable individuals to form just about something, employing a form of materials, from metal and ceramic to sugar and polystyrene. Of course, plastic is that the substance that 1st created 3D printing of any kind doable, and plastic remains one in every of the foremost common and versatile styles of materials employed in 3D printing.A commenter on a recent compound Solutions journal asked for data regarding the foremost common styles of plastics employed in 3D printing. Here’s a touch bit regarding the 3 most-frequently used plastics that have helped spur the superb evolution of 3D printing

 A terpolymer invented by polymerizing polyvinyl resin and vinyl cyanide with polybutadiene, ABS is another plastic unremarkably employed in 3D printing. Beginners particularly favor it for its simple use in its filament kind, and since it’s sturdy, strong, heat-resistant, efficient and versatile. , PLA is created from renewable, organic resources like corn starch or sugarcane. It’s unremarkably wont to create food packaging and perishable medical devices and implants. PLA is nice for 3D printing as a result of it’s straightforward to figure with, environmentally friendly, accessible in a very sort of colours, and may be used as either a organic compound or filament.

 

Of course, the vary of materials which will be employed in 3D printing continues to expand and evolve beside the method and its applications. Still, one in every of the foremost superb developments in producing traces its beginnings to the initial “space-age” material — plastic. which strikes America as terribly fitting!

 

  • Track 6-1Polylactic Acid (PLA)
  • Track 6-2 Acrylonitrile butadiene styrene (ABS)
  • Track 6-3Polyvinyl Alcohol Plastic (PVA)

The study of flow of matter is known as Rheology basically in a liquid state, but also responds for  "soft solids" or solids like plastic flow rather than deforming elastically in response to applied force. It is a department of physics which deals with the deformation and flow of materials, both solids and liquids. Rheology generally accounts for the behavior of non-Newtonian fluids, by distinguish the minimum number of functions that are needed to relate stresses with rate of change of strain or strain rates. Rheometry is experimental characterization of a material's rheological behavior .In execution, rheology is principally concerned with prolong continuum mechanics to characterize flow of materials, that indicates a combination of elastic, viscous and plastic behavior by properly combining elasticity and (Newtonian) fluid mechanics. Rheology has many application in polymer science and engineering, pharmaceutics, biology and physiology.

 

  • Track 7-1Visual and measurable phonemena
  • Track 7-2Relaxation time and Dimensionless number
  • Track 7-3Linear voscoelastic properties
  • Track 7-4Linear voscoelastic properties
  • Track 7-5Normal stress
  • Track 7-6Elongational viscosity

Conductive polymers consolidate the attractive properties related with traditional polymers and special electronic properties of metals or semiconductors. As of late, nanostructured conductive polymers have stimulated significant research enthusiasm because of their special properties over their macro-scale counterparts, for example, large surface area and short distances for charge/mass transport, making them potential candidates for expansive applications in energy storage and conversion, actuators, sensors and biomedical devices. Various synthesis techniques have been created to produce conductive polymer nanostructures and high performance devices in view of these nanostructured conductive polymers. This provides us with various applications of nanostructured conductive polymers such as electrode material for electrochemical capacitors and lithium-ion batteries and new perspective of practical materials for cutting edge high-energy batteries. Recently fuel cell systems with polymer-based electrolytes are of special interest for certain applications due to their relatively simple and compact design and high power densities. On the fundamental level, they are further classified according to the nature of ionic-conducting species in the polymer-based electrolyte, i.e., acidic (proton conducting) or alkaline (hydroxide ion conducting) membranes. Solar cells are one of the most reliable renewable sources of energy and but it is not the most efficient. Therefore, there is constant progress in improving the solar cells to provide greater efficiency. For this development different materials have been tested, among them are polymers. The polymer solar cells have a wide range of application including flexible solar modules and semi-transparent solar cells in windows, to building applications and even photon recycling in liquid-crystal displays.

 

  • Track 8-1Applications of conducting polymer nanostructures
  • Track 8-2Polymers for solar energy
  • Track 8-3Organic quantum dots for photovoltaics
  • Track 8-4Polymer inorganic hybrid solar cells
  • Track 8-5Lithium polymer batteries
  • Track 8-6Light emitting based on polymers

Biodegradable polymers are outlined as Polymers comprised of monomers joined to at least one another through functional groups and are de-escalated into biologically acceptable molecules that are metabolized and off from the body via traditional metabolic pathways. the event of biodegradable polymer composites promotes the utilization of environmentally friendly materials. Most within the business use the term bioplastic to mean a plastic created from a biological supply. All petroleum-based plastics were technically biodegradable. Biodegradable Polymers also can use to regulate the drug unleash rate from the formulations. Current and  future developments in biodegradable polymers focus to scaling-up of improvement and production of product properties leading to reduction in costs and augmented availableness. 

 

 

 

  • Track 9-1Biomedical hydrogels and applications
  • Track 9-2Biomass Production
  • Track 9-3Petrochemical products
  • Track 9-4Green and Sustainable Polymers
  • Track 9-5Biodegradable Polymers for Industrial Applications

 “Polymeric biomolecules” or the Biopolymers are polymers fabricated by living organisms. Polynucleotides, Nucleotides and Polypeptides are the three main classes of polymers those are called long polymers.it also have short polymer of amino acids and polysaccharides which are frequentlylinear bonded polymeric carbohydrate structure for example examples: rubber, suberin, melanin and lignin.

Structure of the biopolymer has a well- defined. The difference between biopolymer and synthetic polymer can be found in their structure .compare to biopolymer synthetic polymer has much simplest structure. This fact shows to a molecular mass distribution that is missing in biopolymers. All biopolymers are alike That they all contain the similar sequences and numbers of monomers and thus all have the same mass. 

 

  • Track 10-1Different classes of biopolymers
  • Track 10-2Sources and preparation of biopolymers
  • Track 10-3Different characterization techniques
  • Track 10-4Frequently studied biopolymers
  • Track 10-5Applications of biopolymers

A large variety of biopolymers, such as polysaccharides, polyesters, and polyamides, are naturally synthesized by microorganisms. These biopolymers range from viscous solutions to plastics and their physical properties which are dependent on the composition and molecular weight of the polymer. Genetic engineering of microorganisms has provided an enormous potential for the biotechnological production of biopolymers with desired properties suitable for medical application such as tissue engineering, material science, drug delivery and bioplastics. There are several benefits in commercializing biopolymers mostly for sustainable development, renewability and eco-friendly aspects. Bioplastics can be manufactured mainly with three different methods, one is modifying naturally occurring polymers such as starch, cellulose. Second, is by polymerizing bio-based monomers that are produced by fermentation and the last one, as mentioned earlier, by genetically modified microbes and plants. There are several technologies and processes designed for biopolymer production that include extrusion, film blowing, thermoforming, fermentation, injection moulding, etc.

 

  • Track 11-1Processing technologies
  • Track 11-2Raw materials resource base
  • Track 11-3Transition to bio based products
  • Track 11-4Potential benefits of biopolymer industries
  • Track 11-5Products of biopolymers

Polymer Degradation and Stability deals with the degradation reactions and their management that area unit a heavy preoccupation of practitioners of the various and various aspects of recent chemical compound technology. Deteriorative reactions occur throughout process, once polymers are subjected to heat, oxygen and mechanical stress, and through the helpful lifetime of the materials once oxygen and daylight are the foremost vital degradative agencies. in additional specialised applications, degradation is also iatrogenic by high energy radiation, ozone, atmospherically pollutants, mechanical stress, biological action, chemical reaction and lots of alternative influences. The mechanisms of those reactions and stabilisation processes should be understood if the technology and application of polymers are to still advance.

 

  • Track 12-1Photodegradable plastics
  • Track 12-2Combustion studies
  • Track 12-3Polymer photochemistry

Polymers might sound sort of a terribly business specific issue, and to a point they're, however they're truly a reasonably massive a part of a great deal of industries you'll so acknowledge. compound testing and practice for plastic has applications in such industries as part, automotive, physical science, packaging and medical devices. Polymers are  implausibly numerous parts that represent such fields of engineering from aeronautics through medicine applications, drug delivery system, biosensor devices, tissue engineering, cosmetics etc. the applying of polymers and their resultant composites continues to be advancing and increasing quickly because of their ease concerning producing. once considering a compound application, you may need to grasp however the fabric behaves over time therefore you'll be able to assess its real price. it's necessary to grasp that chemical compound materials might include: raw materials, compound compounds, foams, structural adhesives and composites, fillers, fibres, films, membranes, emulsions, coatings, rubbers, protection materials, adhesive resins, solvents, inks and pigments. confine mind that these ar a number of the industries during which you'd see the employment and application of varied chemical compound materials and polymers themselves

 

  • Track 13-1In aircraft, aerospace, and sports equipment
  • Track 13-2Biopolymers in molecular recognition
  • Track 13-3Polymers in holography
  • Track 13-4Organic polymers used in water purification
  • Track 13-5Printed circuit board substrates
  • Track 13-6Green Chemicals: Polymers and Biopolymers
  • Track 13-7Polymeric Biomolecules
  • Track 13-8Renewable Biomass operations
  • Track 13-9Polymers that are used in operation of bulletproof vests and fire-resistant jackets
  • Track 13-10Monomeric Units

The continuous decline in fossil fuel resources combined with increase in oil prices has initiated a search for alternatives that are based on renewable resources for energy production. The production organic chemical materials from the application of petroleum and carbon based chemistry has created a variety of initiatives to replace fossil sources with renewable materials. In particular, tremendous efforts are being conducted in polymer science and technology to produce macromolecular polymers from renewable resources. The utilization of vegetable biomass is gaining progress after segregation of its components and its development after chemical modification. Certain biodegradable polymers such as polyhydroxy alkanoates and polylactic acids utilize renewable feedstocks which in this case is microbial biomass. The plastic manufacturing industries utilize genetically modified strains of microbes such as bacillus subtilis or lactobacillus to improve bioplastic yield and reduce cost of production which is the major problem for bioplastic manufacturing industrial sectors.

 

  • Track 14-1Biocomposites from renewable resources
  • Track 14-2Technology of polylactic acid
  • Track 14-3Development of biodegradable plastics from renewable sources
  • Track 14-4Biopolymers from microbial sources
  • Track 14-5Production of biopolymers from vegetable oils
  • Track 14-6Polymer manufacturing

 Polymer production needs producing equipment’s that possess a large vary of flexibility operational. Reactors are required to be operated at varied temperatures that need a heat transfer fluid system around that's used for each heating and cooling. this sort of warmth transfer system configuration works best once one fluid will be accustomed effectively transfer heat over the entire temperature vary mere. Thermoset polymer matrix may be a polymer that's used for reinforcing thus has structural applications, it includes glass-reinforced plastic microwave radar domes on aircrafts and payload bay doors of area shuttles manufactured from graphene-epoxy. inside the Polymer composites, polymers are used as binders to carry the infused particles and fibres in situ.

 

  • Track 15-1Mold fabrication
  • Track 15-2Thermo- set matrix techniques
  • Track 15-3Thermoplastic matrix techniques
  • Track 15-4Liquid molding