Polymer Science Conference | Polymer Science Congress | Polymer Waste | Tokyo | Japan

Theme: Recent advances and future trends in Biopolymers and Bioplastics

Polymer Science 2022

Polymer Science 2022

Conference Series LLC Ltd invites you to attend the 3^ed International Conference on Polymer Waste- Biopolymers & Bioplastics going to be held on April 25-26, 2022 at Tokyo, Japan. The main theme of the conference is " Reduce Reuse Recycle of Polymers in day to day life"

Polymer Science 2022 International Conference is an attempt to explore the various ways to utilize natural resources for betterment of the future, promising a better tomorrow for the progeny and a better vision for the springing research. Polymers and Biopolymers conferences is anticipated to be one the best scientific conferences in all over the world. The scientific sessions of this International Conference on Polymer Waste and Biopolymers conferences has been designed on vivacious topics such as Polymer Recycle and Polymer Waste Management, Biodegradable Plastics Applications, Green Composites in Biopolymers. Polymer Waste conferences is consisting of well-organized scientific program and effervescent speeches by the expertise. Conference Series LLC Ltd Organizes 300+ Conferences, 500+ Workshops and 200+ Symposiums Every Year on Pharma, Medicine, Science and Technology across USA, Europe & Asia (conference series) with support from 1000 more scientific societies and Publishes 400+ Open access journals which contains over 30000 eminent personalities, reputed scientists as editorial board members. Conference Series Ltd conferences always encourage the young researchers and students to share their excitement and enthusiasm with world class expertise.

Polymer Science 2022 is an event delivering the concept of biobased world across the globe. In the present world where the use of conventional plastics, the consequences of plastic products use and the waste management of these products when they become waste, is a current and pressing issue. Concerns focus on the potential impact of conventional plastics they cause to the environment.

Target Audience:

Eminent Scientists of biopolymers and bioplastics
Chemical engineering Research Professors
Junior/Senior research fellows of biomaterials and bio products
CEO's of biopolymers companies
Members of different physics associations of Biopolymers and bioplastics
Biopolymers doctorates

Prestigious Award for Young Research’s at Polymer science 2022 – “Recent advances and future trends in Biopolymers and Bioplastics”

Polymer science 2022 Committee is glad to announce “3rd International Conference on Polymer Waste - Biopolymers & Bioplastics” on April 25-26, 2022 focusing on the theme: “Recent advances and future trends in Biopolymers and Bio plastics” Polymer science 2022 developments are maintaining their momentum. Polymer science Conference program delves into strategic discussions.

Polymer science 2022 Young Scientist Awards:

Polymer science 2022 Committee is intended to honour prestigious award for talented Young researchers, scientists, Young Investigators, Post-Graduate students, Post-doctoral fellows, Trainees, Junior faculty in recognition of their outstanding contribution towards the conference theme. The Young Scientist Awards make every effort in providing a strong professional development opportunity for early career academicians by meeting experts to exchange and share their experiences on all aspects of Polymer science.

Young Research’s Awards at Polymer science 2022 for the Nomination: Young Researcher Forum - Outstanding Masters/Ph.D./Post Doctorate thesis work Presentation, only 25 presentations acceptable at Polymer science 2022 young research forum.

Benefits

Young Scientist Award recongination certificate and memento to the winners.
Our conferences provide best Platform for your research through oral presentations.
Learn about career improvement with all the latest technologies by networking.
Young Scientists will get appropriate and timely information by this Forum.
Platform for collaboration among young researchers for better development.
Provide an opportunity for research interaction and established senior investigators across the globe in the field.
Share the ideas with both eminent researchers and mentors.
It’s a great privilege for young researchers to learn about the research areas for expanding their research knowledge.

Eligibility

Young Investigators, Post-Graduate students, Post-doctoral fellows, Trainees, Junior faculty with a minimum of 5 years of research experience
Presentation must be into scientific sessions of the conference.
Each Young Researcher / Young Scientist can submit only one paper (as first author or co-author).
Age limit-Under 35yrs
All submissions must be in English.

PARTICIPATION OPTIONS: Polymer Science 2022 provides the participants with different modes or ways to participate such as Delegate or Speaker under either ACADEMIC / STUDENT / BUSINESS Category. Mode of participation is Online through Power Point Presentation/ Video Presentation on Cisco Webinars.

Keynote speaker: 45-50 minutes
Speaker (oral presentation): 25-30 minutes (only one person can present)
Speaker (workshop): 45-50 minutes (more than 1 can present)
Speaker (special session): 45-50 minutes (more than 1 can present)
Speaker (symposium): more than 45 minutes (more than 1 can present)
Delegate(only registration): will have access to all the sessions with all the benefits of registration
Poster presenter: can present a poster and enjoy the benefits of delegate
Remote attendance: can participate via video presentation or e-poster presentation
Exhibitor: can exhibit his/her company’s products by booking exhibitor booths of different sizes
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For more details about each mode, kindly contact: https://polymerscience.conferenceseries.com/

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Track 1: Polymer Waste

Polymer recycling is a way to reduce environmental problems caused by polymeric waste accumulation generated from day-to-day applications of polymer materials such packaging and construction. The recycling of polymeric waste helps to conserve natural resource because the most of polymer materials are made from oil and gas. One of the useful properties of polymers is that they are unreactive, so they are suitable for storing food and chemicals safely. Unfortunately, this property makes it difficult to dispose of polymers. They are often buried in landfill sites or incinerated - burned.

Track 2: Polymer Waste Management

Increasing volumes of synthetic polymers are manufactured for various applications. The disposal of the used materials is becoming a serious problem. 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.

Track 3: Polymer Recycling

Track 4: Biopolymers and Bioplastics

Biopolymers are polymers that can be found in or manufactured by, living organisms. These also involve polymers that are obtained from renewable resources that can be used to manufacture Bioplastics by polymerization. There are primarily two types of Biopolymer, one that is obtained from living organisms and another that is produced from renewable resources but require polymerization. Those created by living beings include proteins and carbohydrates.

Bioplastics are plastics derived from renewable biomass sources, such as vegetable fats and oils, corn starch, straw, woodchips, food waste, etc. Bioplastic can be made from agricultural by-products and also from used plastic bottles and other containers using microorganisms. Common plastics, such as fossil-fuel plastics (also called petrobased polymers) are derived from petroleum or natural gas. Not all bioplastics are biodegradable non- biodegrade more readily than commodity fossil-fuel derived plastics. Bioplastics are usually derived from sugar derivatives, including starch, cellulose, lactic acid.

Track 5: Biodegradable Plastics Applications

Biodegradable plastics are plastics degraded by microorganisms into water, carbon dioxide (or methane) and biomass under specified conditions. To guide consumers in their decision-making and give them confidence in a plastic’s biodegradability, universal standards have been implemented, new materials have been developed, and a compostable logo has been introduced. Biodegradable plastics can be composed of bio-plastics, which are plastics made from renewable raw materials. There are normally two forms of biodegradable plastic, injection molded and solid. The solid forms normally are used for items such as food containers, leaf collection bags, and water bottles.

Track 6: Recycling and Waste management of Biopolymers

A survey stated that 14% of Biopolymer usage is expected to grow in the year of 2022. That survey motivates us to find the methods and ways to recycle and manage the Biopolymer waste. Once a biopolymer product is used, it can be changed as any of the recycled product. Biopolymers can be biodegradable Biopolymers can be recycled and non-degradable biopolymers can be littered or land filled. In rare cases, Biopolymers can also dissolved in water. Although there are several options to manage the biopolymer waste such recycling and digestion to make it as compost. Such recycling methods have positive impact on environment and economy. Littering and land filling help us to manage the waste and on the other hand it is also possible to recycle the biopolymers mechanically and chemically. In any type of recycling the waste should be collected and sorted in order to decide whether to recycle or to landfill. The Pre-consumed Biopolymers can be easy to collect, low contaminated where as post-consumed Biopolymers hard to collect, highly contaminated.

Biopolymers in plastic recycling stream

Chemical recycling using Dry –Heat Depolymerization

Biopolymer packing to lower carbon impact

Environment aspects of Biopolymers

Biopolymers in waste management

Prevention-minimization of waste, reduction of hazardous waste, reuse

Preparation for resuse- reparation, purification and demolition

Recycling- material sourcing, raw material production

Other recovery- energy recovery, fuel disposal

Incineration- disposal, landfilling

Track 7: Green Composites in Biopolymers

Whole green composites are the composite materials that are made from both renewable resource based polymer (biopolymer) and biofiller. Whole green composites are recyclable, renewable, triggered biodegradable and could reduce the dependency on the fossil fuel to a great extent when used in interior applications. Whole green composites could have major applications in automotive interiors, interior building applications and major packaging areas. Despite the large number of recent reviews on green composites defined as biopolymers or bio-derived polymers reinforced with natural fibers for bioprocessing of materials, limited investigation has taken place into the most appropriate applications for these materials.

Bio composites in Biopolymers
Biopolymers usage in Bio Ceramics
Biopolymers in Nanotechnology
Polymer Physics
Bio-nano Composites for Food packing applications of Biopolymers
Micro & Nano Blends based on Natural polymers
Wood & Wood polymer Composites in Biopolymers
Green Plastics: An Introduction to the New Science of Biodegradable Plastics

Track 8: Recycling and Disposal of Polymers

Most plastics crumble into ever-tinier fragments as they are exposed to sunlight and the elements. Except for the small amount that's been incinerated–and it's a very small amount–every bit of plastic ever made still exists, unless the material's molecular structure is designed to favour biodegradation. The use of plastic waste as a fuel source would be an effective means of reducing landfill requirements while recovering energy. This, however, depends on using appropriate materials. Inadequate control of combustion, especially for plastics containing chlorine, fluorine and bromine, constitutes a risk of emitting toxic pollutants.

Track 9: Future and Scope of 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. Bio-plastics can replace conventional plastics in the field of their applications also and can be used in different sectors such as food packaging, plastic plates, cups, cutlery, plastic storage bags, storage containers or other plastic or composite materials items you are buying and therefore can help in making environment sustainable. Bio-based polymeric materials are closer to the reality of replacing conventional polymers than ever before.

Biopolymers in Drug Delivery

Global Bio-based Market growth of Biopolymers

Biopolymers in Marine Sources

Biopolymers from Renewable sources

Biopolymers in Stem Cell Technology

Ceramics and applications

Renewable Chemical and Biobased Materials

Challenges, Trends and Opportunities

Growing Global Biobased Markets

Bio composites from aligned natural fibers and polymers

Track 10: Biopolymers in Biomedical Applications

Innovative solutions using biopolymer-based materials made of several constituents seems to be particularly attractive for packaging in biomedical and pharmaceutical applications. In this direction, some progress has been made in extending use of the electrospinning process towards fiber formation based on biopolymers and organic compounds for the preparation of novel packaging materials.

Track 11: Biopolymers from Renewable Sources

A wide range of naturally occurring polymers derived from renewable resources are available for material applications.These biopolymers are derived from a diverse set of polysaccharides, proteins, lipids, polyphenols, and specialty polymers produced by bacteria, fungi, plants and animals. Some of these polymers have recently been reviewed. The market for renewable chemicals is in its infancy and is projected to witness dynamic growth at a CAGR of over 10.0% between 2015 and 2020.

Track 12: Solid Waste Management of Polymers

The controlled combustion of polymers produces heat energy. The heat energy produced by the burning plastic municipal waste not only can be converted to electrical energy but also helps burn the wet trash that is present. Paper also produces heat when burned, but not as much as do plastics. On the other hand, glass, aluminium and other metals do not release any energy when burned. The disposal of polymer solid waste by means other than landfilling is necessary.

Recycling of plastic waste by density separation
Polymers in plastic industry
Growth opportunities in shifting polymers markets
Industry profitability for investments on polymers
Identify most cost-effective raw materials to use
Polymers in textile marketing

Track 13: Polymer Degradation And Stabilization

Polymer Degradation and Stability deals with the degradation reactions and their control which are a major preoccupation of practitioners of the many and diverse aspects of modern polymer technology. Deteriorative reactions occur during processing, when polymers are subjected to heat, oxygen and mechanical stress, and during the useful life of the materials when oxygen and sunlight are the most important degradative agencies.

Track 14: Polymer Science And Applications

Polymer Science and Innovative Applications: Materials, Techniques, and Future Developments introduces the science of innovative polymers and composites, their analysis via experimental techniques and simulation, and their utilization in a variety of application areas.

Track 15: Environmental impact of polymer-waste disposal

Long term usage and exposure of plastics and plastic products to high temperature can lead to leaching of toxic chemical constituents into food, drinks and water. Indiscriminate disposal of plastics on land and open air burning can lead to the release of toxic chemicals into the air causing public health hazards. This paper also presents recommendations for global prevention and control of plastic wastes.

Track 16: Polymer engineering

Polymer planning is significant for the creating field of materials planning that base on plastics and various polymers. Get some answers concerning degrees open, work decisions and pay rates in this field Smart Materials. Polymer planning majors require heaps of math and science courses, including polymer science, actual science and examination. Focus courses may join thermodynamics, statics and material strength, polymer creation and advancement, polymer properties, polymer examination and polymer taking care of. During a capstone course, you'll make an exceptional polymer planning undertaking. A general material planning framework ordinarily consolidates a part of comparative courses, yet moreover covers various materials, for instance, ceramics and metals.

Track 17: Ocean plastics

Sea plastic examination is a generally new field, the heaps of things of plastic waste gagging our seas, lakes, and waterways and accumulating ashore is more than unattractive and unsafe to plants and untamed life. Around 8 million metric huge loads of plastic are tossed into the sea yearly. Of those, 236,000 tons are miniature plastics–minuscule bits of separated plastic more modest than our little fingernail. There is more plastic than characteristic prey at the ocean surface of the Great Pacific Garbage Patch, which implies that living beings taking care of at this region are probably going to have plastic as a significant segment of their weight control plans.

Track 18: Bio plastics and its Applications

Bio plastics are plastics gotten from sustainable biomass sources, for example, vegetable fats and oils, corn starch, or micro biota. Bio plastic can be produced using agrarian results and furthermore from utilized plastic jugs and different compartments utilizing microorganisms. Regular plastics, for example, non-renewable energy source plastics are gotten from oil or petroleum gas. Creation of such plastics will in general require more non-renewable energy sources and to deliver more ozone harming substances than the creation of bio based polymers (Bio plastic). A few, however not all, Bio plastic are intended to biodegrade. Biodegradable plastics can separate in either anaerobic or vigorous conditions, contingent upon how they are made. Bio plastic can be made out of starches, cellulose, Biopolymer, and an assortment of different materials.

Track 19: Marine Biopolymers Based Nanomaterials

Marine biopolymer-based nanomaterials are one of the most active research areas in recent decades for theranostic applications. Marine biopolymers are interesting biomaterials for clinical applications because of their good biocompatibility, biodegradability, inexpensiveness, abundance, stability, ease of surface modification, and nontoxic nature. New nanoparticles in development are coated with marine polymers to combine therapeutic and diagnostic (theranostic) applications because of the strongly enhanced absorption and scattering in near-infrared (NIR) regions

Track 20: Imminent Ambits of Biopolymers

Biopolymers are polymers conveyed by living structures; in that capacity, they are polymeric biomolecules. Biopolymers contain monomeric units that are covalently joined to shape greater structures. There are three rule classes of biopolymers, organized by the monomeric units used and the structure of the biopolymer formed: polynucleotides (RNA and DNA), which are long polymers made out of at any rate 13 nucleotide monomers; polypeptides, which are short polymers of amino acids; and polysaccharides, which are consistently immediate strengthened polymeric starch structures. Various cases of biopolymers consolidate versatile, suberin, melanin and lignin.

Track 21: Polymers Nanotechnology

The branch of Nanotechnology is a standout amidst the most prevalent regions for momentum progressive work in fundamentally all specialized controls. This clearly integrates Polymer Nanotechnology which integrate microelectronics (which could now be alluded to as nanomaterial). Related kinds are polymer-based biomaterials, incise lithography, electro spun nanofabrication, Nano emulsion particles; control device cathode polymer bound impetuses, Nano solution, layer-by-layer self-collected polymer films, polymer mixes and Nano complexes. Indeed, even in the field of Nano-composites, numerous diverse subjects exist including complex support, fire protection, curative applications, hindrance properties, electro-optical assets, bactericidal properties.

Clay-based polymer nanocomposites.

Nanocomposite formation.

Variations and applications of polymer-based nanocomposites.

Commercial applications of polymer-based nanocomposite

Track 22: NaturalPolymer-Advanced Polymers & its phenomenon

Most of the natural polymers are compose from the condensation polymers and this formation from the monomers, water is obtained as a by-product. Advanced polymer techniques are designed to contribute 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 stipulate of the future. Natural polymers are liable to be biodegradable, although the rate of degeneration is generally inversely proportional to the expansion of chemical modification for Polymeric Materials.

Global Polymers Market size is forecast to reach around $ 750 billion by 2025, after growing at a CAGR of 5.1% during 2020-2025. Polymer is one of the widely used chemical products in almost all the sectors such a medical, aerospace, packaging, automotive, construction, electrical appliances, and medical sector, and consequently, the global polymers market is thriving. Polymers are used widely as a substitute of metal and mineral based products due to its high performance, cost-effectiveness, and low weight. Increase in the retail sector and prospering e-commerce industry is demanding for more packaging material that is influencing the significance of the polymers market. Whereas, the growing interest in renewable feedstock and biopolymers among the consumers have led to the development of several alternatives to traditional plastics that in turn drives the demand for Polymer during the forecast period. Furthermore, growing demand for polymer in the electronic industry for the manufacturing of different electrical parts such as switches and sockets are driving the Polymers Market.

Report Coverage

The report: “Global Polymers Market – Forecast (2020-2025)”, by Industry ARC, covers an in-depth analysis of the following segments of the Global Polymers Market.

By Type: Polypropylene, Polyethylene (HDPE, LDPE, LLDPE, and Others), Polyvinyl Chloride, Polystyrene (Expanded Polystyrene (EPS) and Extruded Polystyrene (XPS)), Polyurethane (Flexible Polyurethane Foam, Rigid Polyurethane Foam, Thermoplastic polyurethane (TPU), and Others), and Others.

By Process: Injection Molding, Extrusion, and Others.

By End-Use Industry: Packaging (Rigid and Flexible), Building and Construction (Roofing, Windows, Flooring, and Others), Automotive (Engine, Tires, Body Panel, and Others), Electrical and Electronics, Agriculture, Medical/Healthcare, and Others.

By Geography: North America, South America, Europe, APAC, and RoW.

Key Takeaways

In the Latin America region, in 2019, Brazil is the major market for the Polymer owing to a rise in the purchasing power of consumers, growing consumer packaged goods market, and rise in corn, wheat, and sugarcane production and consumption across the country owing to the Bio-based plastic and polymers are gaining prominent growth.

The polymers are observed to be the better substitutes than glass, and metals that is leveraging the polymers market. The increasing demand for specialty polymers are fueling the growth of the polymers market.

Progression in 3D printing is improving the growth aspects of polymers and plastic manufacturing. The changing preference of consumers from metal 3D printing to plastic material 3D printing is leading to substantial growth in the polymers market.

Fluctuation in international oil prices tend to force companies to search for an alternative stable source of the raw material for packaging, which further provides lucrative opportunities for the growth of Polymer industry.

Evolution of the natural and environment-friendly polymers in the packaging sector for food packaging, cosmetics packaging and pharmaceutical packaging is driving the growth.

Comparatively lower awareness about the biodegradable polymer in emerging nations like India, Thailand, South Africa and Qatar are hampering the market growth.

Polymer Market Segmentation Analysis

The thermoplastics category, based on type, held the largest share in the polymer market in the past. The cost efficiency, high mechanical strength, and manufacturing ease of thermoplastics have made them vastly popular in the food packaging, construction, textile, automotive, and home appliance industries.

In the coming years, the polyethylene (PE) category, under the base material segment, will witness the highest value CAGR in the polymer market, of 5.6%. PE accounts for a high-volume consumption in the production of tubing products, packaging products, bottles, connectors, and plastic surgical implants, as a result of its high flexibility, stability, heat resistance, and impact resistance.

Packaging is projected to continue being the largest category in the polymer market, under segmentation by application, throughout this decade. As polymers offer protection, appreciable flexibility, and high shock, vibration, and surface abrasion resistance to products, they are replacing conventional packaging materials.

Presently, Asia-Pacific (APAC) is the most-productive polymer market, and it is also set to grow the fastest in the years to come. The expansion of the construction, automotive, agriculture, packaging, textile, and electronics & electrical industries is propelling the consumption of numerous polymeric materials in the region. Among the most-significant applications of polymers in APAC are the production of battery parts, flexible bottles, bearings, film wrapping, cams, gears, handles, bushings, wire and cable jacketing, anti-corrosion seals, and safety helmets.

Major global polymer market players include Evonik Industries AG, Dow Inc., Eastman Chemical Company, Royal DSM, Mitsui Chemicals Inc., Covestro AG, BASF SE, Exxon Mobil Corporation, Huntsman Corporation, Clariant International Limited, Saudi Basic Industries Corporation (SABIC), and Sadara Chemical Company.

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Conference Date	April 29-30, 2022
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3^rd International Conference on Polymer Waste - Biopolymers & Bioplastics April 29-30, 2022 Tokyo, Japan

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