Conference Information

Welcome message

Greetings!

We are delighted to welcome you to the “3rd International Conference on Polymer science and Technology” from August 28-30, 2023. All the great scientists, faculty, scholars, young researchers, business delegates, postdocs and students from around the world to join us at London, UK.

Polymer Science Conference 2023 mainly focuses on and works based on the theme “Exploring innovations and technologies in Polymer Science and Technology”.

Polymer Science Conferences 2023 aims to bring together a multidisciplinary community of scientists, engineers, and other experts from around the world to discuss and exchange cutting-edge concepts and cutting-edge research techniques in the fields of polymer science, chemistry, nanotechnology, environmental science, and materials science. It promotes top-tier research and globalises high-quality research generally, making it more internationally competitive for discussions, presentations, and reflection on current outstanding achievements in the domains of chemistry and polymer science as well as its future trends and requirements.

Current advances in chemistry, physics, materials science, and engineering are brought together in Polymer Science Conferences 2023 in order to advance fundamental and applied discoveries, which enable new innovations and motivate effective business partnerships.

All those interested in the future and growth of polymer science shouldn't miss this conference because it covers very global elements of the field, from highly academic topics to industrial and practical applications.

We are looking forward to connecting with outstanding researchers from other nations and exchanging cutting-edge research discoveries. We are hoping that you will help us make Polymer Science Conference 2023 a special occasion!

Welcome you to our upcoming conference Polymer Science Conference 2023

Regards

International Organizing Committee,

Polymer Science Conference 2023

Mail: polymerchemistry@pulsusforums.com

About Conference

Pulsus group invites you to attend International Conference – Polymer Science 2023 scheduled to be held in London during August 25-27,2023 which foucussed on the theme “Exploring innovation and technologies in Polymer Science and Technology”.

Polymer Science Conference 2023 invites all the professionals and scientists in related disciplines to come together attend from all over the world.

The conference will provide polymer scientists, polymer chemists, professors, assistant professors, researchers, research students, scientists, deans, heads of departments, and students a special opportunity to share their research with colleagues and to discuss and debate the most recent technologies and advancements in the field of polymers.

Featuring a wide range of conference activities, such as keynote addresses, in-depth debates, panels, workshops, poster sessions, and exhibitions.

We cordially encourage researchers from every field, as well as from the industry, to participate in this polymer conference and to submit their most recent findings as a lecture or a poster at the intersection of design/function or function/application of polymers. A sizable space will be set aside on the agenda for debates and networking in order to encourage research activity in these sectors.

Why To Attend:

Polymer Science Conference 2023 would provide young researchers and scientists with a stage on which to discuss their innovations in Polymer Science Conference 2023. The Global Polymer Science welcomes Presidents, CEO, Delegates, and contemporary experts from the fields of polymer science, public health, and other relevant organizational positions to participate in these sessions, B2B gatherings, and board discussions. Share your insightful research with individuals from around the globe who are interested in learning more about Polymer science; this is the best way to get in touch with the largest group of people worldwide who are involved in recycling and to raise awareness and enforce strict control.

Target Audience:

Polymer Science Associations
Polymer Industries
Polymer Science Researchers
Business Entrepreneurs
Environmental Academies
Training Institutes
Polymer Chemist.
Polymer Physicist
Environmental Engineers
Recycling Associations
CEO
Research scholars and students from this department

Target field:

Polymer Science
Materials Science
Environmental Sciences
Chemical Engineering
Environmental Engineering
Recycling
Nanotechnology
Artificial Intelligence
Technology Engineering
Health and Biotechnology
Petrochemical and Oil Materials
Collectors and MRF operators

Sessions & Tracks

Track 1: Polymer science and Technology

Polymer science and technology is a multidisciplinary field that combines chemistry, physics, and engineering to understand, develop, and manufacture polymers. Polymers are large molecules composed of repeating structural units connected by covalent bonds. These molecules have a wide range of applications in many fields, including medicine, electronics, packaging, and construction. Polymer science and technology explores the properties and applications of polymers, as well as their synthesis and characterization. It involves the study of the structure and properties of polymers, the design of new polymer materials, and the manufacture of polymers for specific end-use applications.

Polymer science and technology is the study of the synthesis, processing, and characterization of polymers. It is a multi-disciplinary field that includes chemistry, physics, engineering, and materials science. Polymer science and technology has applications in many industries, such as automotive, electronics, medical, and packaging. It is used to develop new materials, optimize existing processes, and advance the understanding of polymer properties. The goal of Polymaer science and technology is to create materials and products that are stronger, lighter, less expensive, and more effective than existing materials.

Sub Tracks

Polymer Synthesis and Characterization
Polymer Properties and Processing
Polymer Structure and Morphology
Macromolecular Engineering
Polymerization Kinetics and Reactions
Polymer Blends and Composites

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Related Association

Polymer Science Association (PSA) | Asian Polymer Association | USM Polymer Science Association | American Plastics Council | British Plastics Federation | European Committee of Machinery Manufacturers for the Plastics and Rubber Industries (EUROMAP) | European Council for Plasticisers & Intermediates | Portuguese Association for the Mould Industry | Verband Deutscher Maschinen- und Anlagenbau eV (VDMA) | Verband Deutscher Maschinen- und Anlagenbau eV (VDMA) | Materials Research Society (MRS) | Nanotechnology Industries Association | International Association of Nanotechnology | BBIA – Bio-Based and Biodegradable Industries Associations | Australasian Bioplastics Association |

Track 2: Polymer Physics

Polymer Physics is a subfield of materials science that deals with the physical properties of polymers molecules and their interactions with each other and with their environment. It involves the study of the structure, dynamics, and thermodynamics of polymers, and the interplay between their physical and chemical properties. The field of Polymer Physics focuses on understanding the behavior of polymeric materials and their applications, such as in coatings, adhesives, and drug delivery.

The field of physics that studies the physical properties of polymers materials. It is an interdisciplinary field that draws from a variety of disciplines including Polymer chemistry, materials science, colloidal science, physical chemistry, biophysics, and rheology. Research in polymer physics is focused on understanding and predicting the behavior of polymeric materials in various environments, as well as developing new materials and technologies. Topics of study include polymer structure and dynamics, polymer characterization, polymer melt rheology, polymer surfaces and interfaces, and polymer blends and composites.

Sub Tracks

Structure and Dynamics
Polymer Networks and Gels
Polymer Colloids and Latexes
Polymer Crystallization and Melting
Polymer Processing and Rheology
Polymer Degradation and Stability
Polymer Nanocomposites
Polymer Recycling and Sustainability

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Track 3: Polymer Chemistry

Polymer chemistry is a branch of chemistry that studies the structure, synthesis, and properties of polymers. Polymers are large molecules composed of repeating structural units connected by chemical bonds. These molecules range in structure from linear, to branched, to cross-linked. Polymer chemistry has applications in many fields, including materials science, electronics, and medicine. Polymers are used to make a variety of materials, from plastics to nanomaterials, and are essential for the development of new products and technologies. Polymer chemists also study the physical, chemical, and mechanical properties of polymers and use this knowledge to develop new materials and applications. Polymer chemistry is a branch of chemistry that studies the structure, synthesis, and properties of polymers, large molecules composed of repeating structural units. Polymer chemistry is a multidisciplinary science that draws on concepts and techniques from organic chemistry, physical chemistry, colloid science, and materials science. Polymer chemists use a variety of tools to study and modify Polymer properties, such as spectroscopy, light microscopy, electron microscopy, and thermal analysis.

Sub Tracks

Polymer Structure and Morphology
Polymer Surfaces and Interfaces
Degradation and Recycling of Polymers
Spectroscopic Characterization of Polymers
Bio-based Polymers
Biomedical and Pharmaceutical Applications of Polymers
Polymer Crystallization and Thermodynamics

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Track 4: Polymer Biotechnology

Polymer biotechnology is the technology that uses polymers to create and manipulate biological systems. This technology has applications in drug delivery, tissue engineering, gene and cell therapy, and diagnostics. Polymers are materials that are made up of repeating monomers or small molecules linked together. They can be synthetic or natural, and have a wide range of properties that make them ideal for use in biotechnology. For example, polymers can be used to control the release of drugs or proteins over time, or to create scaffolds for tissue engineering. Polymer biotechnology can also be used to create novel materials that can be used in medical devices, such as drug delivery systems and diagnostic systems. Polymer biotechnology is a rapidly growing field of biotechnology that involves the use of polymers to create biocompatible materials and products. This field is used to develop materials and products that can interact with biological systems, and create new treatments and therapies for diseases. Polymer biotechnology has applications in tissue engineering, drug delivery, diagnostics, and gene therapy. The polymers used in this field are usually natural polymers such as polysaccharides, proteins, and nucleic acids, but can also be synthetic polymers such as polyesters, polyamides, and polyacrylates. Polymer biotechnology is used to develop materials and products that are biocompatible, biodegradable, and non-toxic. This technology has the potential to revolutionize healthcare by providing new treatments and therapies for diseases.

Sub Tracks

Recombinant Polymerase Chain Reaction (rPCR)
Protein Engineering for Polymer Applications
Bio-Based Polymers and Biodegradable Plastics
Polymer-Based Drug Delivery Systems

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Track 5: Food Science in Polymers

Food science in Polymers involves the use of polymers materials in food production, packaging, and storage. Polymers are materials made up of large molecules composed of repeating structural units that can be manipulated to create a variety of properties. Examples of polymers materials commonly used in food production include polyethylene, polypropylene, polystyrene, and polyvinyl chloride (PVC). These materials are often used for food packaging and in the production of food products such as plastic wraps, containers, and lids. Polymers can also be used to create food additives, such as emulsifiers, stabilizers, and thickeners, which are used to improve texture, flavor, and shelf life. Polymers can also be used in food processing and storage, such as for the production of edible films or coatings. Food science in polymers is a field of study that examines the use of polymers materials in food processing and packaging. It focuses on the characteristics of polymers materials and their application in food production. This includes the selection and design of polymers materials for food safety and quality, the design of food processing and packaging systems, and the development of novel polymers materials for food products. Applications in this field include the development of novel polymers-based food products, the design of food processing and packaging systems, and the evaluation of polymers materials for food safety and quality.

Sub Tracks

Packaging and Preservation of Food using polymers
Polymer Additives and Their Impact on Food Quality
Synthesis and Characterization of Polymeric Food Additives
Food Biopolymers and their Impact on Food Quality
Polymer Processing and Fabrication in Food Engineering
Gelling Agents and Emulsifiers in Food Technology

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Track 6: Polymer Rheology

Polymer rheology is the study of the deformation and flow of polymeric materials. It encompasses a wide range of topics, including the structure and properties of polymers, the effects of temperature, pressure, and other environmental factors on the behavior of polymers, the dynamics of polymer melts, and the rheological behavior of polymeric solutions and suspensions. Rheology is an important tool for understanding the behavior of polymers at the molecular level and for predicting the behavior of polymers in applications ranging from medical devices to coatings and adhesives. Polymer Rheology is the study of the flow of polymeric liquids and other materials. Polymer Rheology is important because it helps to understand the behavior of polymers in a variety of applications, from manufacturing to product design. Polymer Rheology studies the behavior of polymers when exposed to various forces, including shear, compression, and extension. By studying this behavior, engineers and scientists can create and optimize materials for specific applications. Polymer Rheology also helps researchers understand how polymers interact with other materials, such as solvents, additives, and fillers. This understanding can be used to develop new polymer-based products or improve existing products.

Sub Tracks

Molecular structure and rheology of polymeric materials
Rheological behaviour of polymers under different temperature conditions
Shear and extensional rheology of polymers
Dynamics of macromolecular networks
Relaxation and viscoelasticity of polymers
Viscosity and viscoelasticity of polymer melts

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Track 7: Biomedical and Biodegradable Polymers

Biomedical and biodegradable polymers are polymers materials that are used in the medical field and are also biodegradable. These polymers are typically composed of biodegradable materials such as polylactic acid (PLA), polyglycolic acid (PGA), polycaprolactone (PCL) and their copolymers combinations. These materials are used in a variety of medical applications such as tissue engineering, drug delivery, medical implants, wound healing and more. They have been used in the medical field for decades and have proven to be effective and safe for use in humans. They are also environmentally friendly as they are biodegradable, meaning that they are broken down into harmless compounds that are not harmful to the environment. Biomedical and biodegradable polymers offer many advantages over traditional materials such as metals and plastics. They are more biocompatible, meaning that they are less likely to cause an immune reaction in the body. They are also more flexible and lighter in weight than traditional materials, which makes them easier to use in medical applications. Additionally, they are more cost effective and can be customized to meet specific needs.

Sub Tracks

Polymer-based Drug Delivery Systems
Biomedical and Biodegradable Polymers in Tissue Engineering
Regulatory Considerations for Biomedical and Biodegradable Polymers

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Track 8: Biopolymers and Bio plastics

Biopolymers and bio plastics are plastics created from renewable resources such as corn, wheat, and other plant material. They are biodegradable, meaning they can be broken down by microorganisms, and they can be made from renewable resources, meaning they can be replenished more quickly than traditional plastics. Bio plastics are becoming increasingly popular because they are more environmentally friendly and cost effective than traditional plastics. They can also be used in a variety of applications ranging from packaging to medical devices. Biopolymers and Bio plastics are materials made from renewable sources such as plant-based polymers, starches and vegetable oils. They are biodegradable, non-toxic and compostable. These materials are increasingly being used in packaging, medical applications, and consumer products. Some of their advantages include improved sustainability and reduced environmental impact. The use of bioplastics helps to reduce oil dependency, as well as the amount of waste that is sent to landfills. Additionally, biopolymer and bio plastic products are often lighter and more cost-effective than their traditional counterparts. Examples of bioplastics include polylactic acid (PLA), a thermoplastic derived from corn, and polyhydroxyalkanoate (PHA), a biodegradable plastic made from sugar. Biopolymers and bio plastics are also being used in 3D printing materials, automotive parts, and construction materials.

Sub Tracks

Biopolymer Applications in Food Packaging
Biopolymer Synthesis
Biopolymers in Agricultural Applications
Biopolymer-Based Materials
Biopolymer Processing and Manufacturing
Biodegradable Polymers and Plastics
Biopolymer Applications in Drug Delivery

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Track 9: Polymer Marketing Plastic Processing and Composite Materials

The Polymer Marketing Plastic Processing and Composite Materials Conference is a three-day event that brings together experts in the plastic industry to discuss the latest trends and developments in the plastic world. This conference will provide a forum for professionals to network, exchange ideas and opinions, and to learn about the latest innovations in the plastic industry. The topics covered at this event include, but are not limited to, the latest developments in plastic processing, market trends, and the use of composites in the plastic industry. Additionally, the conference will feature presentations from industry leaders, who will share their insights into how to best compete in the ever-changing plastic industry. Attendees will also be able to participate in interactive panel discussions and hands-on workshops to gain further knowledge on the topics discussed. The Polymer Marketing Plastic Processing and Composite Materials Conference is the premier event for professionals in the Polymer, plastic processing and composite materials industry. This annual conference brings together the leaders in the industry to discuss the latest innovations and developments in the field. Attendees will learn about the latest trends and technologies, as well as gain insights into the challenges and opportunities in the market. The conference will feature leading-edge presentations, workshops, and panel discussions from experts in the field. Topics covered include new materials and processes, automation, sustainability, and emerging markets. Attendees will be able to network with peers and meet potential partners to expand their business. This conference is an essential event for anyone interested in staying up to date on the latest developments in the polymer, plastic processing and composite materials industry.

Sub Tracks

Thermoplastic Processing Techniques
Injection Molding of Polymers
Compounding and Blending of Polymers
Polymer Recycling and Reuse
Plastics Additives and Fillers

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Track 10: Biomaterials and Tissue Engineering

Biomaterials and tissue engineering involve the use of materials to create or replace tissue in the body. This includes the development of artificial organs and implants, as well as the use of biomaterials to create scaffolds for tissue engineering. The field is rapidly advancing, as new materials and technologies are being developed to improve the quality and function of these devices and implants. Additionally, research is also being conducted to better understand the biological processes involved in tissue development and healing, in order to better design and use these materials for a variety of medical applications. They two fields of study that are closely related to each other. Both involve the use of materials that are derived from living organisms or their components, such as cells and proteins, to create or improve medical devices, treatments, and therapeutic interventions. While biomaterials are primarily used as a means to facilitate the delivery of drugs or therapies, tissue engineering is concerned with the design and fabrication of living tissues and organs for the purpose of replacing or restoring damaged or lost tissue. Biomaterials are engineered materials that interact with biological systems, including cells and tissues. These materials can be used in a variety of medical applications, including drug delivery, wound healing, and tissue regeneration.

Sub Tracks

Drug Delivery and Targeted Therapy
Tissue Engineering
Cell-Material Interactions
Regenerative Medicine
Stem Cell Engineering

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Track 11: Polymer for Drug Delivery

Polymers are increasingly being used in drug delivery applications. This is because they have the ability to encapsulate and deliver drugs in a controlled and sustained manner. Polymers can be engineered to release drugs over an extended period of time and allow for targeted drug delivery to specific areas of the body. This can help improve the efficacy and reduce the side effects of drugs, as well as reduce the need for frequent doses. Polymers can also be used to create drug-eluting stents, implantable devices, and other types of drug delivery systems. Polymers are widely used in drug delivery applications because of their ability to chemically modify drugs and control their release. Polymers can be used to control drug release in a variety of ways, including encapsulation, diffusion, osmosis, and chemical reaction. They are also used to increase drug solubility, enhance drug stability, reduce drug toxicity, and target specific tissues or organs. Polymers can be used to modify drug delivery systems, such as transdermal patches, nanoparticles, and liposomes, to improve drug efficacy and reduce drug side effects. In addition, polymers are used to create drug delivery devices, such as implants, stents, and microcapsules, to improve drug delivery and reduce drug release.

Sub Tracks

Drug Release from Polymers
Targeted Drug Delivery Using Polymers
Biodegradable Polymers for Drug Delivery
Nanoparticle-Based Polymer Drug Delivery Systems
Liposomal Polymer Drug Delivery Systems
Polymer-Based Drug Delivery Systems for Cancer Treatment

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Track 12: Polymer Waste Recycling and Management

Polymer waste is a major environmental concern due to its non-biodegradable nature. However, it is possible to recycle and manage Polymer waste through a variety of methods.

Mechanical Recycling: Mechanical recycling involves breaking down the polymer waste into its component parts and then reforming them into new products. This process is energy-intensive and requires specialized equipment. It is also limited to certain types of polymers and can be expensive.

Chemical Recycling: Chemical recycling involves breaking down the polymer into its molecular components and then reforming them into new products. This process is more energy-efficient and is less expensive than mechanical recycling. It is also more flexible in terms of the types of polymers that can be recycled.

Incineration is a process in which the polymer waste is burned in a controlled environment to produce energy. This process is the most energy-efficient but also the most polluting. Landfill is a method of disposing of polymer waste by burying it in the ground. This is the least energy-efficient method of disposal and produces the most pollution.

Sub Tracks

Types of polymer waste management
Strategies for reducing polymer waste
Automation of polymer waste recycling
Cost-effective methods for polymer waste recycling
Technological advances in polymer waste recycling

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Track 13: Polymer Design and Reaction

Polymer design and reaction engineering involves the use of chemical reactions and polymerization processes to create materials and products. This includes the use of a variety of tools and techniques such as polymerization, reaction kinetics, thermodynamics, and material characterization. The goal is to design, optimize, and control the production of polymer materials and their properties. This includes the design of new products, optimization of existing products, and the development of new processes. The polymer design engineer must understand the fundamentals of Polymer science, reaction kinetics, and thermodynamics to be successful. They must also have an understanding of the economics of production and the effects of different processes on the quality and performance of the materials.

Sub Tracks

Modification
Composites
Applications
Degradation
Nanocomposites

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Track 14: 3D Printing Polymers

The global 3D printing polymers market is projected to grow at a CAGR of 12.2% from 2020 to 2027 and reach US$ 1,841.1 million by 2027. The growth of the 3D printing polymers market is primarily attributed to the increasing demand for 3D printing in the medical and healthcare sector due to its ability to create complex geometries, and the demand for 3D printed components in the automotive, aerospace, and defense industries.

The increasing demand for 3D printing in the medical and healthcare sector is expected to drive the growth of the 3D printing polymers market. 3D printing provides a range of benefits such as faster prototyping, cost-effectiveness, and design flexibility, which are the key drivers of the 3D printing polymers market. Moreover, with the advancement of 3D printing technology, the range of materials available for 3D printing has increased significantly, which is driving the market.

Sub Tracks

Processing Techniques for 3D Printing Polymers
Potential Applications for 3D Printing Polymers
Challenges of 3D Printing with Polymers
Cost Considerations for 3D Printing Polymers
Strategies for Optimizing 3D Printing with Polymers
Environmental Impact of 3D Printing Polymers

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Track 15: Oils and Bio-Inorganic Materials

Oils and bio-inorganic materials are being used in a wide range of industries from the automotive to construction. Oils are composed of molecules with a hydrocarbon backbone, and many of these hydrocarbons have functional groups that can be used for specific purposes, such as lubrication and corrosion protection. Bio-inorganic materials are made from a variety of sources, including plant and animal matter, and are used for various applications, such as adhesives and coatings. Oils and bio-inorganic materials can be used to create surfaces with improved properties, such as better adhesion, heat resistance, and abrasion resistance. These materials can also be used to create protective coatings, which can help to reduce corrosion and wear. In addition, they can be used to enhance the performance of electronic devices, such as batteries and photovoltaic cells.

Sub Tracks

Synthesis and Characterization of Oils
Catalysis and Kinetics of Oil Oxidation
Polymerization Reactions of Oils
Reactivity of Oils
Properties of Bio-Inorganic Materials
Metal-Organic Frameworks

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Track 16: Organic and Inorganic Composites

Organic and inorganic composites are materials that are made up of both organic and inorganic components. These materials are used in a variety of applications including aerospace, automotive, biomedical and construction. Examples of organic composites include fiber-reinforced plastics, epoxy resins, and carbon-fiber composites. Examples of inorganic composites include cement-based composites and ceramic matrix composites. These composites offer superior strength and durability compared to traditional materials, and can be engineered to meet specific performance requirements.

These composites are materials that are made up of both organic and inorganic components. These composites are used in many applications, including medical devices, construction materials, automotive parts, and consumer products. Organic composites are typically composed of polymers and fillers, while inorganic composites contain a mix of non-metallic components such as glass, ceramics, and polymers. The combination of organic and inorganic components can provide materials with enhanced properties, such as improved strength, durability, and chemical resistance.

Sub Tracks

Challenges in Designing Organic and Inorganic Composites
Future Trends in Organic and Inorganic Composites
Environmental Impact of Organic and Inorganic Composites
Testing and Evaluation of Organic and Inorganic Composite

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Track 17: Future of Thermoplastic Composites

Thermoplastic composites have become increasingly popular in the last few decades due to their ability to replace traditional materials such as metals and alloys. This trend is expected to continue in the future as thermoplastic composites become even more cost-effective and versatile. Thermoplastic composites are also expected to be used in more applications as researchers continue to develop new and improved materials. Industries such as automotive, aerospace, and medical devices are expected to benefit from the use of thermoplastic composites. Additionally, thermoplastic composites are expected to become more sustainable and environmentally friendly as manufacturers strive to reduce their carbon footprint. Thermoplastic composites have a bright future due to their superior properties and versatility. Their high strength-to-weight ratio and recyclability make them a great choice for a wide range of applications. They are being used in the automotive, aerospace, sporting goods, and construction industries. With new advancements in manufacturing technology, thermoplastic composites will become even more widely used in the future. They have the potential to revolutionize the way we build and design products. Companies are already exploring ways to use them for medical implants and other medical applications. With further research and development, thermoplastic composites will continue to be a great material for many applications.

Sub Tracks

Emerging Trends in Thermoplastic Composites
Challenges and Opportunities for Thermoplastic Composites
Automation in Thermoplastic Composite Manufacturing
Developments in Recycling and Reuse of Thermoplastic Composites
Regulatory Landscape for Thermoplastic Composite Materials
Design Considerations for Thermoplastic Composites

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Track 18: Polymer based nanomaterials

Nanomaterials are materials with structural features on a nanometric scale, i.e., with at least one dimension that falls between 1 and 100 nanometres. Polymers are large molecules composed of repeating structural units connected by covalent chemical bonds. They are commonly used in materials science, and are an important class of materials in nanotechnology. Nanomaterials are materials that have one or more dimensions of the order of nanometers (nm). They are usually constructed from a variety of different elements, including carbon, oxygen, nitrogen, and metals such as gold, silver, and iron. Polymers, on the other hand, are materials composed of many repeating units, known as monomers. These monomers are linked together to form long chains and are generally composed of carbon, hydrogen, and other elements such as oxygen and nitrogen. Nanomaterials polymers are polymers that have been modified to form nanosized particles. These materials can have a range of properties, including enhanced mechanical strength, electrical conductivity, and optical properties. They are used in a variety of applications, from drug delivery to energy storage. Nanomaterials are materials, such as nanoparticles, nanowires, nanotubes, and nanofibers, that exhibit unique properties due to their nanoscale dimensions. These materials are often combined with polymers to create materials with special properties, such as increased strength, increased electrical conductivity, and enhanced optical properties. The combination of nanomaterials and polymers can be used to produce composite materials with a variety of applications. For example, nanocomposites combining carbon nanotubes and polymers have been used to create electrically conductive films, and nanocomposites combining graphene and polymers have been used to produce lightweight, strong composites with high electrical and thermal conductivity.

Sub Tracks

Self-assembly and Nano structuring of Polymers
Functionalization and Modification of Polymers
Smart Polymers and Nanomaterials
Nanoparticle-Polymer Interactions

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Track 19: Synthetic Polymers

Synthetic polymers are artificially created chemical compounds made up of large molecules composed of repeating structural units. They are derived from petroleum, natural gas, and coal. Their main applications are in industry, such as in the production of plastics, paints, coatings, rubber and synthetic fibers. Synthetic polymers are man-made polymers that are produced by chemical synthesis. They are typically made from petroleum-based monomers such as ethylene, propylene, and styrene. Common synthetic polymers include polyethylene, polypropylene, polyvinyl chloride (PVC), nylon, and acrylics. These polymers have a wide range of uses, from packaging materials and textiles to medical implants and automotive components. They are also used in construction, electronics, and other industries. Synthetic polymers are typically more durable and resistant than natural polymers and can provide improved performance for certain applications. Synthetic polymers are man-made materials created from chemical reactions. Common examples of synthetic polymers include plastics, nylon, polyester, and rubber. Many of these materials are used in everyday items such as clothing, containers, medical devices, and furniture. Synthetic polymers are also used in industry and manufacturing for a variety of purposes. For example, they are used to make synthetic fibers, adhesives, sealants, and coatings. Synthetic polymers can also be used to create composites, which are materials made from two or more materials with different properties. Synthetic polymers are man-made polymers created through the use of chemical reactions to combine two or more monomers into a large molecule. These polymers can be designed to have properties that are superior to naturally occurring polymers. Examples of synthetic polymers include polyethylene, polyvinyl chloride (PVC), polypropylene, polystyrene, polyurethane, polycarbonate, and polytetrafluoroethylene (PTFE).

Sub Tracks

Characteristics
Applications
Processing
Recycling
Alternatives

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Track 20: Nano-Additive Manufacturing

Nano-additive manufacturing is a type of 3D printing that uses nanomaterials to create objects with nanoscale features. This type of manufacturing is used to create components with microscopic features, such as high-precision medical implants and sensors, as well as complex electronic structures. Nano-additive manufacturing is usually done using a layer-by-layer process, where a material is added one layer at a time. This method allows for greater control over the size, shape, and composition of the final product. This type of manufacturing has the potential to revolutionize the production of medical, consumer, and industrial products. Nano-additive manufacturing is a type of 3D printing technology that uses nanomaterials for the fabrication of intricate structures and components. This technology is used to create objects with extremely fine details and complex shapes, such as micro-scale electronic devices, medical devices, and other nanoscale components. It can also be used to create components with properties that are not achievable with conventional manufacturing methods, such as improved strength, toughness, and electrical conductivity. This technology is a promising tool for creating advanced materials and components for many different industries, including the automotive, aerospace, and medical industries.

Sub Tracks

Additive Manufacturing of Nanomaterials
3D Printing of Nanostructures
Nanoscale Structural Characterization of 3D Printed Parts
Nanoscale Process Control in Additive Manufacturing
Multifunctional Nanocomposites for 3D Printing
Nanoparticle Deposition in Additive Manufacturing

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Track 21: Polymers and Environmental Applications

Polymers materials have a wide range of applications in environmental protection, from the reduction of carbon emissions to the development of renewable energy sources. Polymers can be used to develop materials with the ability to absorb carbon dioxide from the atmosphere, reducing the amount of greenhouse gases in the atmosphere and helping to slow the process of global warming. Polymers can also be used to create materials that are more resistant to corrosion, helping to reduce the number of pollutants that are released into the environment. Additionally, polymers can be used to create more efficient solar panels and wind turbines, helping to increase the amount of renewable energy sources available. Polymers materials have been used in a variety of environmental applications, from water and sewage treatment to the production of biofuels. Polymers can be used to adsorb pollutants from water, and can be used to stabilize pollutants in soils and sediments. Polymers have also been used in the construction of bioplastics, which are biodegradable and compostable materials made from renewable resources. These materials can reduce the amount of waste that is created and help to reduce the environmental impacts of plastic production. Polymers can also be used in the production of biofuels, which are renewable sources of energy that can be used to reduce dependence on fossil fuels. Additionally, polymers-based materials can be used to improve water filtration and purification techniques, helping to reduce the number of pollutants that enter the environment.

Sub Tracks

Biopolymers
Recyclable Polymers
Sustainable Polymers
Degradable Polymer Blends
Polymer Microplastics

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Track 22: Composite Materials in Aerospace Applications

Composite materials are increasingly being used in aerospace applications due to their lightweight and high strength-to-weight ratio. Composite materials are formed by combining two or more materials with different properties, such as carbon fiber and epoxy resin. This combination of materials offers exceptional strength and stiffness, allowing for lighter structures and components that can be used to create more efficient aircraft. Composite materials are widely used in the construction of aircraft, including wings, fuselage, tail, and control surfaces. Additionally, composite materials are also used in the construction of spacecraft, satellites, and rockets. Composite materials are highly resistant to corrosion and can withstand extreme temperatures, making them ideal for use in aerospace applications. Composite materials are increasingly being used in aerospace applications due to their unique and varied properties. Composites are made up of a combination of two or more materials, such as metal and plastic, which are combined to create a new material with superior properties.

Composites are used in both primary and secondary structures of aircraft and spacecraft. For primary structures, composites are used in fuselage and wing skins, landing gear components, and other airframe components. In spacecraft, composites are used in antennas, solar panels, and other components. In addition to their strength, composites also offer improved fuel efficiency and reduced drag.

Composite materials are also used in aircraft engines, where their lightweight and strength properties are beneficial for performance and efficiency. Composites are used for fan blades, turbine blades, and other components. Composites are also being used in aircraft interiors, where their durability and fire resistance are beneficial in terms of safety and comfort.

Sub Tracks

Advantages of Composite Materials in Aerospace
Challenges of Designing with Composite Materials
Testing and Certification Requirements for Composite Aerospace Parts
Production Methods for Composite Materials in Aerospace
Repair and Maintenance of Composite Aerospace Structures
Biomaterials Applications

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Market analysis

Global Market Analysis:

Polymer science is a fast-growing research field with a wide array of applications across many industries. The global polymer science market size was valued at USD 744.5 billion in 2018 and is expected to register a CAGR of 5.3% from 2019 to 2025. The market growth is primarily attributed to the increasing demand for advanced polymer materials in various end-use industries such as construction, automotive, packaging, and medical. In terms of region, the market has been classified into North America, Europe, Asia Pacific, Latin America, and Middle East & Africa. North America is the largest market for polymer science, followed by Europe and Asia Pacific. The market in North America is driven by the increasing demand for high-performance polymers from various end-use industries such as construction, automotive, and medical. The U.S. is the largest market for polymer science in the region. The Asia Pacific polymer science market is expected to witness the fastest growth during the forecast period, owing to the increasing demand for lightweight and high-performance materials from various consumer electronics and automotive industries. The increasing demand for biodegradable polymers in the region is also driving the market growth.

The greatest producer of paints and coatings, the second largest manufacturer of semiconductors, and the largest producer of automobiles, China is the world's largest manufacturing nation. Italy came in second with 9,728,528 automobiles produced in 2018, behind Spain with 27,809,196. (5,174,645 units produced in 2018). Hence, the automotive industry is expanding quickly in the Europe area, which is anticipated to fuel demand for special polymers over the projection period.

Spain is concentrating on raising domestic electric vehicle manufacturing and sales. The nation intends to raise the manufacturing of electric cars (EVs) to 2 million vehicles per year by 2020 and 7 million vehicles per year by 2025 in order to meet this target. The target, if achieved, will increase the proportion of electric vehicles increased to 20%. in total new car production in Spain, by 2025.

The semiconductor, electronics, and automobile industries all use special polymers extensively. Thus, it is anticipated that throughout the course of the projected period, demand for specialty polymers will increase steadily due to robust expansion in these industries and government backing. The market for polymer science is anticipated to expand steadily over the next few years as a result of factors like rising demand for high performance polymers across a range of applications, expanding use of biopolymers in the food and medical industries, and expanding demand for advanced materials in the automotive and aerospace sectors.

One of the common products is polyethylene. In 2017, it produced more than 80 million tones worldwide. The packaging sector primarily uses it for containers, bottles, plastic bags, films, and geomembranes. It has a number of applications. There are numerous varieties of PE polymers, including HDPE, LDPE, and LLDPE, depending on their molecular weight. As an illustration, low-molecular-weight polymers of PE are utilized as lubricants, medium-molecular-weight polymers are utilized as paraffin-infused waxes, and high-molecular-weight polymers are frequently utilized as waxes. used in the production of plastic.

Largest Polymer science Companies

TWI Technology Centre
BAE SYSTEMS PLC
ILIKA PLC.
TRI Austin
Trelleborg
CCm Research Limited
ABZENA PLC.

Market Analysis- United Kingdom:

The polymer science market has experienced strong growth over the last few years. This growth has been driven mainly by the rising demand for advanced polymer products in the automotive, construction, healthcare, aerospace and other consumer products industries. The polymer science market is expected to reach a market size of £1.6 billion by 2025, growing at a compound annual growth rate of 5.1% during the forecast period of 2020 – 2025. The polymer science market is primarily driven by the increasing demand for advanced polymer products in the automotive, construction, healthcare and aerospace industries. The government of the is also pushing for the development of more advanced materials to support the growth of the economy. This is creating a favorable environment for the growth of the polymer science market.

In terms of regional presence, the is a major player in the global polymer science market. The market is mainly driven by the strong research and development capabilities and its presence in the automotive and aerospace industries. The is also home to leading polymer science companies such as BASF and Dow Chemical. The polymer science market is characterized by the presence of a large number of small and medium-sized companies. These companies are mainly engaged in the production of polymers, polymer-based products and services. The polymer science market is also supported by several research and development organisations. In 2012, the polymer science market was valued at £2.4 billion.

The polymer science market is expected to grow at a CAGR of 5.4% during the period 2013-2019, to reach a value of £3.4 billion by 2019. The market is driven by factors such as the increasing demand for lightweight and high-performance materials, and the growing demand for bio-based materials. In addition, the increased use of polymer materials in the medical and automotive industries is also driving the growth of the market. The major players in the polymer science market are BASF SE, Dow Chemical Company, DSM, DuPont, Evonik Industries, and Solvay. These companies are focusing on the development of new products and technologies to gain a competitive edge in the market. Furthermore, the companies are also focusing on strategic collaborations and partnerships to strengthen their market presence.

3rd International Conference on
Polymer science and Technology

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