The event on “ 2nd World Congress on Biopolymers and Bioplastics” creates a platform to share and gain knowledge by focusing on the topics of Biopolymers, Bioplastics, Biomaterials, Polymer Science, Plastic Engineering, Tissue engineering and regenerative medicine, Biodegradable polymers, composite materials, polymer nanotechnology, Macromolecular Science. Biopolymer 2019 Conference held during October 21-22, 2019 at London, UK. The main theme is “Accelerating New Research & Innovations in Biopolymers & Polymer Sciences”. Meetings Int. supports comprehensive scope for research and principled review at an extensive variety of specialists all over the world. It will bring together world-class Directors, Professors, Scientists and Researchers to discuss the multidisciplinary field with research and interests covering all aspects of recent Biopolymers and Polymer Science.

The Biopolymers and Bioplasctics Conference shall include prompt keynote presentations, special sessions, workshops, symposiums, oral talks, poster presentations and exhibitions.

Track 1: Applied Polymer Science & Polymeric Materials

Polymers will be the material of the new millennium and the production of polymeric parts i.e. green, sustainable, energy-efficient, high quality, low-priced, etc. will assure the accessibility of the finest solutions round the globe. Polymers are formed by combining together a large number of basic chemical units (monomer molecules) to form long chain molecules (polymers). Carbon is the main building block of polymer materials but one or more other elements such as hydrogen, nitrogen, chlorine and oxygen are part of this building block. Polymer Science can be applied to save energy and improve renewable energy technologies.

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International Conference on Polymer Materials Science, Jan 05-07, 2019, Bangkok, Thailand | 5th International Conference on Materials Science & Technology, April 18-19, 2019, Vancouver, Canada | International Conference on Plastic Engineering & Polymer Science, June 25-26, 2019, Tokyo, Japan | 9th Annual Summit on Biomaterials and Biopolymers, July 17-18, Osaka, Japan | International Conference on Polymer Science and Technology, November 25-26, 2019, Miami USA.

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Applied Chemical Engineering Society (ACES),Europe; American Chemical Society, USA; IAENG Society of Chemical Engineering, Asia-Pacific; Division of Polymer Physics, USA; European Federation of Chemical Engineering, Europe; ASME Bioprocessing Equipment, Asia-Pacific; American Chemical Society(ACS), USA; Australian Society of Biochemist, Asia-Pacific; American Physical Society Division of Polymer Physics (APSDPOLY);

Track 2: Addition Polymerization or Chain-Growth Polymerization

Addition polymerization is a process by which unsaturated monomers are converted to polymers of high molecular weight, exhibiting the characteristics of a typical chain reaction. A large number of different classes of unsaturated monomers. Polypropylene: The reaction to make polypropylene (H2C=CHCH3) is illustrated in the middle reaction of the graphic. Notice that the polymer bonds are always through the carbons of the double bond.

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Track 3: Polymer Characterization and Techniques of Polymerization

Polymer characterization is the analytical branch of polymer science. Characterization describes those features of the composition and structure (including defects) of a material that are significant for a particular preparation, study of properties, or use, and suffice for reproduction of the material. Characterization techniques are typically used to determine molecular mass, molecular structure, morphology, thermal properties, and mechanical properties.

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Track 4: Advances in Macromolecular Science and Engineering

Macromolecular and polyelectrolyte solutions are of abiding interest not only because of the fascinating range of phenomena they display, but because of their tremendous utility. This process allows for the control of molecular parameters such as molecular-weight/molecular-weight distribution, microstructure/structure, topology, and the nature and number of functional groups. In addition, macromolecular engineering is the key to establishing the relationships between the precise molecular architectures and their properties. The understanding of the structure-property interplay is critical for the successful use of these elegantly tailored structures in the design of novel polymeric materials for applications such as tissue engineering, drug delivery, molecular filtration, micro- and optoelectronics, and polymer conductivity.

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Track 5: Plastic Engineering, Plastics-Materials and Processing Technology

For courses in Plastics, Materials and Manufacturing found in departments of mechanical, industrial or manufacturing technology or engineering; also for any beginning course in Plastics in engineering or technology programs. New classes of polymeric materials with unique applications are being introduced. In many cases, the properties and their usage were discovered only recently. This chapter covers two areas: health, medicine, and biotechnology, a rapidly developing domain based largely on known materials but moving to designed and engineered polymers, and information and communications, an emerging field for polymers significantly based on their electronic properties. These two areas are attracting a great deal of attention, particularly among researchers who are not traditional specialists in polymer science.

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Track 6: Recent Advances in Polymer Nanotechnology, Polymer Rheology and Polymer Morphology

Recent advances in nanotechnology have made the Nano science a field hot area research, making it one of the most research areas of science in the past two decades. Nano composites are a new class of materials in which the dimension of the dispersed particles occurred at the nanometer scale. Presents, in a multidisciplinary way, state-of-the-art topics related to polymer science and engineering. Covers composites, nanotechnology, testing and characterization, specialty materials, novelty materials, bio-based materials and applications.

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Track 7: Natural Polymer, Advanced polymers & its phenomenon

Most of the natural polymers are formed from the condensation polymers and this formation from the monomers, water is obtained as a by-product. Advanced polymer techniques are designed to produce some of the unique products and latest industrial developments and fabrication methods. These methods originate from both industry and academia for the growth of polymer applications and meeting the demands of the future. Natural polymers are liable to be biodegradable, although the rate of degeneration is generally inversely proportional to the extent of chemical modification for Polymeric Materials.

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Track 8: Biopolymers as Materials

Some biopolymers, for example, PLA, normally happening zein, and poly-3-hydroxybutyrate can be utilized as plastics, swapping the requirement for polystyrene or polyethylene based plastics. Polymer Nano composites (PNC) are made of a polymers or copolymers having nanoparticles or Nano fillers dispersed in the polymer matrix. The plastic used for food packaging and non-food applications is non-biodegradable, and also of valuable and scarce non-renewable resources like petroleum. With the current research on exploring the alternatives to petrol and priority on reduced environmental impact, research is increased in development of biodegradable packaging from biopolymer-based materials.

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Track 09: Smart Material and Functional Polymers

Smart materials and structures are inspired in nature and try to mimic adaptive characteristics of natural systems. This means that one of their properties can be changed by an external condition, such as temperature, light, pressure or electricity. This change is reversible and can be repeated many times. There are a wide range of different smart materials. Each offer different properties that can be changed. Smart functional polymers have gained a huge amount of interest in recent times due to their innumerable applications in areas including sensors, actuators, and switchable wettability, bio-medical and environmental applications. Numerous intensive research studies have been carried out to develop smart functional polymers using stimuli responsive polymeric moieties.

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Track 10: Recent Advances in Polymer Chemistry

Polymer Chemistry includes branches which mimic the divisions of the field of chemistry as a whole, with synthetic (preparation methods) and physical (property determination), biological (proteins, polysaccharides, and polynucleic acids), and analytical (qualitative and quantitative analysis) chemistry. Polymers already have a range of applications that far exceeds that of any other class of material available to man. Current applications extend from adhesives, coatings, foams, and packaging materials to textile and industrial fibers, elastomers, and structural plastics. Polymers are also used for most composites, electronic devices, biomedical devices, optical devices, and precursors for many newly developed high-tech ceramics. This new book presents leading-edge research in this rapidly-changing and evolving field.

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Track 11: Synthetic Polymers & Biobased Thermosetting Polymers

Thermoset polymer systems undergo a transformation, often referred to as curing from a liquid or a soft solid in which the molecules can move around freely (i.e. the uncured material will flow) to a material in which molecules are interconnected to form a network throughout the material. Thermosetting plastics are polymer materials which are liquid or malleable at low temperatures, but which change irreversibly to become hard at high temperatures. A major effort is underway to recognize biobased epoxy resins that can substitute for existing petroleum-based materials such as bis-phenol A diglycidyl ether[C21H24O4] (BADGE). Unfortunately, bis-phenol A (BPA) is particularly problematic as it is differentiated as a reprotoxic R2 substance and an endocrine disruptor.

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Track 12: Biopolymers in Biofibres & Microbial Cellulose

Cellulose-fiber-reinforced polymer composites have received much attention because of their low density, nonabrasive, combustible, nontoxic, low cost, and biodegradable properties. A lot of research works have been performed all over the world on the use of cellulose fibers as a reinforcing material for the preparation of various types of composites. Cellulose is the most generous substance on the earth, synthesized by plants, algae and also some species of bacteria and microorganisms. The Plant derivative cellulose and Black Carbon (BC) have the same chemical composition but differ in structure and physical properties.

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Track 13: Biodegradable Polymers & Biocomposite Materials

Global warming, the growing awareness of environmental and waste management issues, dwindling fossil resources, and rising oil prices: these are some of the reasons why “bio”products are increasingly being promoted for sustainable development. Biopolymers can be classified in two ways: according to their renewability content (fully or partially bio-based or oil-based) and to their biodegradability level (fully or partially or not biodegradable). Moreover, recent technological breakthroughs have substantially improved the properties of some bio-based polymers, such as heat resistant polylactic acid, enabling a wider range of applications. In addition, plants are being optimized, especially to provide bio-fibres with more stable resource properties over time.

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Track 14: Biopolymers in Biomedical Applications

The use of natural polymers in medical applications spans to ancient times. These polymers offered a bioactive matrix for design of more biocompatible and intelligent materials. Oligosaccharides and polysaccharides are biopolymers commonly found in living organisms, and are known to reveal the physiological functions by forming a specific conformation. In recent years in identifying the biological functions of polysaccharides as related to potential biomedical applications natural polymers or they might be poly anionic consisting of only one type of monosaccharide types.

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Track 15: Future and Scope for Biopolymers and Bioplastics

In search of novel Advanced Materials solutions and keeping an eye on the goal of sustainable production and consumption, Bioplastics have several (potential) benefits. The use of renewable resources to produce bioplastics the key for increasing resource productivity, the resources can be cultivated on an (at least) annual basis, the principle of cascade use, as biomass can primarily be used for materials and then for energy generation, a reduction of the carbon footprint and GHG egressions of some materials and products-saving fossil fuels in many resources, and for substituting them step by step. Biobased polymeric materials are closer to the reality of replacing conventional polymers than ever before. The bioplastics are about fifty year old, at present days, biobased polymers are commonly found in many applications from commodity to hi-tech applications due to advancement in biotechnology and public awareness.

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3^rd Annual Cell Congress

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3rd Annual Bioprocessing and Industrial Biotechnology Congress

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About Us

Recommended Conferences

3rd Annual Cell Congress

2nd European Biotechnology Congress

2nd International Conference on Metabolomics

Annual Next-Gen Tissue Engineering and Regenerative Medicine

3rd Annual Bioprocessing and Industrial Biotechnology Congress

What We Offer?

Meet Experts

Global Networking

Learning In a New Space

New Tips & Tactics

Certification

Supporters

3^rd Annual Cell Congress

2^nd European Biotechnology Congress