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9th World Congress on Biopolymers & Bioplastics, will be organized around the theme “”
Biopolymer Congress 2019 is comprised of keynote and speakers sessions on latest cutting edge research designed to offer comprehensive global discussions that address current issues in Biopolymer Congress 2019
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Biopolymers, the most promising of which is Polylactide (PLA), are a type of plastic which, instead of being manufactured from petrochemicals, are made from sustainable feedstocks such as sugar, starch or Cellulose. Till date, the use of biopolymers, including first generation PLA, has been limited by their Physical properties and relatively high cost of manufacture. Next generation biopolymers, including Plastic component fabrication, Polysaccharides second generation PLA, are expected to be cheaper and to offer improved performance and a wider application reach, enabling them to capture an increasing share of the various markets for Biopolymers. Innovations has already achieved significant success with its early investments its £1.5m investment in obesity drug developer return up to £22m, following its sale for£100m in 2013, while the sale of Respivert, a small molecule drug discovery company, resulted in Innovations realizing £9.5m, a 4.7 return on investment. In the year to2015, Innovations invested £14.0m in 20 ventures, helping to launch three new companies.
- Track 1-1Chemistry of biopolymers
- Track 1-2Plastic component fabrication using Biopolymers
- Track 1-3Polylactic acid in Biopolymers
- Track 1-4Nucleic acids in Biopolymers
- Track 1-5Polysaccharides in Biopolymers
- Track 1-6Polynucleotide in Biopolymers
- Track 1-7Micro fabrication techniques
- Track 1-8Production of Biopolymers from Acetobacter xylinum
Bioplastics are plastics derived from renewable biomass sources, such as vegetable fats and oils, corn starch, or microbiota. 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 are derived from petroleum or natural gas. Production of such plastics tends to require more fossil fuels and to produce more greenhouse gases than the production of biobased polymers (bioplastics). Some, but not all, bioplastics are designed to biodegrade. Biodegradable bioplastics can break down in either anaerobic or aerobic environments, depending on how they are manufactured. Bioplastics can be composed of starches, cellulose, biopolymers, and a variety of other materials.
- Track 2-1Bioplastics Engineering
- Track 2-2Food and Beverage Packaging Technology
- Track 2-3Bio-Based Plastics
- Track 2-4Synthetic Biology
- Track 2-5Innovations in Food Packaging
- Track 2-6Biodegradable Plastics
- Track 2-7Nanomaterials
Ocean plastic research is a relatively new field, the billions upon billions of items of plastic waste choking our oceans, lakes, and rivers and piling up on land is more than unsightly and harmful to plants and wildlife. About 8 million metric tons of plastic are thrown into the ocean annually. Of those, 236,000 tons are microplastics– tiny pieces of broken-down plastic smaller than our little fingernail. There is more plastic than natural prey at the sea surface of the Great Pacific Garbage Patch, which means that organisms feeding at this area are likely to have plastic as a major component of their diets. For instance, sea turtles by-caught in fisheries operating within and around the patch can have up to 74% (by dry weight) of their diets composed of ocean plastics.
By 2050 there will be more plastic in the oceans than there are fish (by weight).
- Track 3-1Plastic-free Ocean
- Track 3-2Biopolymers in Marine Sources
Natural polymers group consists of naturally occurring polymers and chemical modifications of these polymers. Cellulose, starch, lignin, chitin, and various polysaccharides are included in this group. These materials and their derivatives offer a wide range of properties and applications. Natural polymers tend to be readily biodegradable, although the rate of degradation is generally inversely proportional to the extent of chemical modification for Polymeric Materials. US demand for natural polymers is forecast to expand 6.9 percent annually to $4.6 billion in 2016. Cellulose ethers, led by methyl cellulose, will remain the largest product segment. This study analyzes the $3.3 billion US natural polymer industry. It presents historical demand data for the years 2001, 2006 and 2011, and forecasts for 2016 and 2021 by market.
- Track 4-1Polymer Gels usage in Biopolymers
- Track 4-2Rheology of Natural and Biopolymers
- Track 4-3Degradation & Stability approach through Biopolymers
- Track 4-4Chitin & Chitosan Polymers in Biopolymers
- Track 4-5Life cycle analysis of Biopolymers
- Track 4-6Natural polymeric vectors in Gene therapy
- Track 4-7Copolymers & Fibers
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. Global composite materials industry reached $19.6B in 2011, marking an annual increase of 8.2% from 2010, and driven by recovering of majority of markets. Market value of end use products made with composites was $55.6B in 2011. North American composites industry accelerated by 9 % in 2014, Europe increased by 8%while Asia grew by 7% in 2015. By 2017, composite materials industry is expected to reach $ 29.9B (7% CAGR) while end products made with composite materials market value is expected to reach $85B Global Automotive composite materials market was estimated to be around $ 2.8 B in 2015, and forecast to reach $ 4.3 B by 2017 @ CAGR of approx. 7%.
- Track 5-1Bio composites in Biopolymers
- Track 5-2Biopolymers usage in Bio Ceramics
- Track 5-3Biopolymers in Nanotechnology
- Track 5-4Polymer Physics
- Track 5-5Bionano Composites for Food packing applications of Biopolymers
- Track 5-6Micro & Nano Blends based on Natural polymers
- Track 5-7Wood & Wood polymer Composites in Biopolymers
- Track 6-1Polymers for Electronics, Energy, Sensors and Environmental Applications
- Track 6-2Biomedical & Environmental Applications
- Track 6-3Applications in Packing
Polymer Nano composites (PNC) consist of a polymer or copolymer having nanoparticles or Nano fillers dispersed in the polymer matrix. Plastic packaging for food and non-food applications is non-biodegradable, and also uses up valuable and scarce non-renewable resources like petroleum. With the current focus on exploring alternatives to petroleum and emphasis on reduced environmental impact, research is increasingly being directed at development of biodegradable food packaging from biopolymer-based materials. A biomaterial is any matter, surface, or construct that interacts with biological systems. As a science, biomaterials are about fifty years old. The study of biomaterials is called biomaterials science. It has experienced steady and strong growth over its history, with many companies investing large amounts of money into the development of new products. Biomaterials science encompasses elements of medicine, biology, chemistry, tissue engineering and materials science. Global Biomaterial market over the forecast period of 2012-2017 market for biomaterials is estimated at $44.0 billion in 2012 and is poised to grow at a CAGR of 15% from 2012 to 2017 to reach $88.4 billion by 2017.
- Track 7-1Polymer hybrid assemblies
- Track 7-23D printing of materials in Biopolymers
- Track 7-3Surface and Interfaces of Biopolymers
- Track 7-4Industry and Market of Biopolymers
- Track 7-5Biopolymers for Food packaging
- Track 7-6Biopolymers for plastic production
- Track 7-7Biological materials in the areas of automotive manufacturing
Tissue engineering has been an area of immense research in recent years because of its vast potential in the repair or replacement of damaged tissues and organs. The present review will focus on scaffolds as they are one of the three most important factors, including seed cells, growth factors, and scaffolds in tissue engineering. Among the polymers used in tissue engineering, poly(-hydroxy esters) (such as PLA, PGA, and PLGA) have attracted extensive attention for a variety of biomedical applications. Besides, PCL has been widely utilized as a tissue engineering scaffold. Scaffolds have been used for tissue engineering such as bone, cartilage, ligament, skin, vascular tissues, neural tissues, and skeletal muscle and as vehicle for the controlled delivery of drugs, proteins, and DNA. The global market for tissue engineering and regeneration products reached $55.9 billion in 2010, is expected to reach $59.8 billion by 2013, and will further grow to $89.7 billion by 2016 at a compounded annual growth rate (CAGR) of 8.4%.
- Track 8-1Tissue engineering and Regenerative medicine
- Track 8-2Whole organ engineering and approaches
- Track 8-3Bone and cartilage tissue engineering
- Track 8-4Scaffolds
- Track 8-5Novel approaches in guided tissue regeneration
- Track 8-6Biopolymer methods in Cancer therapy
- Track 9-1Lightweight materials from Biofibers & Biopolymers
- Track 9-2Biopolymers from Gluconacetobacter xylinus
- Track 9-3Biofiber Reinforcements in composite materials of Biopolymers
- Track 9-4Microbial production of Biopolymers
Biodegradable polymers are a specific type of polymer that breaks down after its intended purpose to result in natural by-products such as gases (CO2, N2), water, biomass, and inorganic salts. These are found both naturally and synthetically made, and largely consist of ester, amide, and ether functional groups. Their properties and breakdown mechanism are determined by their exact structure. These polymers are often synthesized by condensation reactions, ring opening polymerization, and metal catalysts. There are vast examples and applications of biodegradable polymers.
- Track 10-1Advanced Biodegradable polymers
- Track 10-2Biodegradable polymers for Industrial Applications
- Track 10-3Biodegradable polymer applications
- Track 10-4General Biodegradable polymer applications
Biodegradable polymers have many uses in the biomedical field, that to in the fields of tissue engineering and drug delivery. In order for us to use biodegradable polymer as a therapeutic, it should undergo certain criteria: it should be non-toxic so that it could eliminate foreign body response; The time it takes for the polymer to degrade is proportional to the time required for therapy; The products resulting from biodegradation are not cytotoxic and are readily eliminated from the body; The material must be easily processed in order to tailor the mechanical properties for the required task; It should be easily sterilized; and it should have acceptable shelf life.
- Track 11-1Biofilms
- Track 11-2Biopolymers for Drug delivery
- Track 11-3Nano medicines
Bioinformatics is an interdisciplinary field that develops methods and software tools for understanding biological data. As an interdisciplinary field of science, bioinformatics combines computer science, statistics, mathematics, and engineering to analyze and interpret biological data. Bioinformatics has been used for in silico analyses of biological queries using mathematical and statistical techniques.
- Track 12-1Structural bioinformatics
Biobased biopolymers offer advantages not only on the raw materials side but also on the disposal side through certain promising end-of-life (EOL) options. Especially waste disposal with energy recovery has an added benefit, which lies in gaining carbon neutral energy while allowing multiple uses after possible recycling. The Commission said that all of the composts containing biodegradable polymer materials could be classified using a risk assessment system at a higher toxicity level. Biodegradable biopolymer waste can be treated by aerobic degradation, composting, or anaerobic digestion .When biopolymers are composted or digested, their individual elements are recycled naturally, in particular their carbon and hydrogen content. The largest segment of the market, packaging, is expected to reach nearly 1.7 billion pounds in 2016. The market in 2011 is estimated at 656 million pounds, making the five-year CAGR 20.5%. The second-largest segment, made up of fibers/fabrics, is expected to increase in volume from an estimated 134 million pounds in 2011 to 435 million pounds in 2016, for a five-year CAGR of 26.6%.
- Track 13-1Biopolymers in plastic recycling stream
- Track 13-2Chemical recycling using Dry –Heat Depolymerization
- Track 13-3Biopolymer packing to lower carbon impact
- Track 13-4Environment aspects of Biopolymers
- Track 13-5Biopolymers in waste management
Bio related products are to replace petroleum-related products, new methodologies, where various types of lignocellulosic biomass undergo bioprocessing to commercially important products, must be devised. A relatively low value lignocellulosic biomass that could be utilized to produce bio based co-products is grass. Currently, many grasses are largely utilized for grazing by livestock or harvested as hay. To exploit this opportunity, the feasibility of using microbial bioconversion to produce chemicals and polysaccharide gums from the fermentable sugars present in hydrolysates of various grass species. The best production of 2.5 g/l was obtained when the cells were grown on medium containing 70 mM sucrose and 0.2% (w/v) Casamino Acids. It enriched medium is maximum biopolymer production of up to 3.4 g/laws was obtained.
- Track 14-1Bio-based Materials usage in Biopolymers
- Track 14-2Lignocellulosic Feed stock challenges in Biopolymers
- Track 14-3Corn- Primary feed stock in Biopolymers
- Track 14-4Soy protein as Biopolymer
- Track 14-5Cutting edge advancements in Biopolymers
- Track 14-6Production of Other Biobased/Biodegradable Polymers
Futures of Biopolymers demand the manufacturer for these new materials is overwhelming. However the cost-effectiveness of these materials must improve and they must contribute specifically to sustainable development. Applications using the new materials should utilize the specific properties of these polymers, and the product should be developed based on those properties. They are beginning to emerge as a result of needing to be more responsible in taking care of the world we live in. Thus, the recent emergence of bio-based products rather than petroleum or natural gas based products. Various reasons are associated with the research and development of Biopolymers. The use of biopolymers could markedly increase as more durable versions are developed, and the cost to manufacture these bio-plastics continues to go fall. 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 material items you are buying and therefore can help in making environment sustainable. Bio-based polymers are closer to the reality of replacing conventional polymers than ever before. Nowadays, biobased polymers are commonly found in many applications from commodity to hi-tech applications due to advancement in biotechnologies and public awareness.
- Track 15-1Biopolymers in Stem Cell Technology
- Track 15-2Ceramics and applications
- Track 15-3Ceramics and applications
- Track 15-4Biopolymers in Drug Delivery
- Track 15-5Global Bio-based Market growth of Biopolymers
- Track 15-6Biopolymers in Drug Delivery
- Track 15-7Biopolymers in Marine Sources
- Track 15-8Biopolymers from Renewable sources