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Hinckley and Bosworth, United Kingdom
11-50 Employees
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Featured
BIOPOLYMER SOLUTIONS LIMITED
... BIOPOLYMER SOLUTIONS LIMITED What does Biopolymer Solutions Ltd do? We work with biopolymer based materials for the: Food Pharmaceutical Biomaterials Ingred ...
Columbus, United States
51-100 Employees
2013
We aspire to be the world's leading specialty fermentation company with local production and a global presence focused on making quality products and exceeding customer expectations. The company is positioning itself to be a leading provider to partners in biotech, pharmaceutical, nutraceutical, food, chemical and the oil field. Not only are we one of a handful of specialty fermentation companies, we are also in the enviable position of adding 2,000,000 liters of capacity in the near future. Jon is known for putting people first and meeting or exceeding customer expectations in fast-paced growth organizations and business units while delivering against company goals. Jeff Haney, Chief Operations Officer, brings 38 years of experience in Industrial Fermentation, producing a wide variety of products including pharmaceuticals, nutraceuticals, food, animal health, agricultural, and biofuels. Bruce Vorderlandwehr, Corporate Controller, is known as a dynamic results oriented financial executive that develops high performance financial organizations. Bruce has over 20 years of experience of progressive responsibilities for large manufacturing corporations in the automotive and aerospace industries. Tim is known for working collaboratively with other team members to ensure they are successful in accomplishing goals for the company’s immediate and future success.
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Featured
Welcome to FERMWORX - High Quality Biopolymers Products
... FERMWORX is a fermentation company that specializes in high quality biopolymers and bio-based fermentation products. ...
Oosterhout, Netherlands
11-50 Employees
2001
Rodenburg Biopolymers is based in Oosterhout, The Netherlands. We are focused on delivering science-based, sustainable and scalable biobased solutions with environmental and social impact. Rodenburg Biopolymers is based in Oosterhout, The Netherlands. Rodenburg Biopolymers compounds can be converted with most common manufacturing processes. Rodenburg Biopolymers is ISO 9001:2015 certified; ISO 9001:2000 since 2004. Our products are based on sustainable, second generation waste streams; not competing with land for food. Our products are honest and sustainable; based on second generation potato starch. And we provide tailor made products to provide solutions that meet demand.
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Featured
rodenburg biopolymers
... biopolymers - Rodenburg Biopolymers ...
1-10 Employees
Axcelon Biopolymers Corporation is an innovative biomaterials company focused on leveraging its unique Bacterial NanoCellulose (BNC) platform technology to develop bacterial cellulose-based, high value products for wound care, medical devices, and industrial applications. Axcelon is focused on becoming a world leader in the development and manufacturing of novel and cost-efficient bacterial cellulose-based products for the biomedical device industry and for non-medical industrial applications. Our business model involves developing bacterial cellulose-based biomaterials and products to a stage where they can be licensed to commercial partners for specific therapeutic areas. Axcelon Biopolymers Corporation is an innovative biomaterials company focused on leveraging its unique Bacterial Nanocellulose (BNC) platform technology to develop high value products for wound care, medical devices, tissue engineering, and industrial applications. Nanoderm™ is a microfibrillar biosynthetic cellulose film that stimulates the skin’s natural regenerative mechanism to help promote quicker wound healing with a one-time application dressing.
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Featured
Overview – Axcelon Biopolymers Corporation
... Overview – Axcelon Biopolymers ...
Pessac, France
1-10 Employees
Ce qu'on fait à Dionymer vous intéresse ? Multipliez la valeur-ajoutée de vos biodéchets avec la nouvelle voie de valorisation offerte par Dionymer.
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Featured
Dionymer - Circular Biopolymer solutions
... Dionymer - Circular Biopolymer ...
Montabaur, Germany
1-10 Employees
With its entrepreneurial activities, BioPolymer works hard to improve the quality of life of people. For this reason, BioPolymer is committed to compliance with all of the current environmental regulations and also works hard to continually develop operational environmental protection in the areas of production and development. BioPolymer evaluates the environmental effects of its actions as early as possible and prevents damage to the environment as far as possible. At BioPolymer we value long-lasting commercial relationships to successfully distribute our products worldwide. We are always open to expand our network with new alliances and distributor and welcome you to connect with us. The main focus of BioPolymer is the development of innovative injectable implants. BioPolymer has dedicated itself to the optimization of existing treatment methods as well to the development of new treatment methods. BioPolymer GmbH is a family-owned manufacturer of medical devices based in Dümmer, near Hamburg, Germany.
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Featured
BioPolymer – manufacturer of medical devices
... The main focus of BioPolymer is the development of innovative injectable implants. BioPolymer has dedicated itself to the optimization of existing treatment methods as well to the development of new treatment methods. The goal is optimizing the composition, mode of action ...
Lemförde, Germany
1001-5000 Employees
1962
Using our established knowledge of material science, we provide solutions to your challenges.
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Featured
Ecovio® (PBAT, PLA)
... ® is a versatile and high-performance biopolymer. Its particular advantage: It is certified compostable and partly bio-based. ...
Merseburg, Germany
5001-10000 Employees
2020
Aus pflanzlichen Abfällen hergestellte Kunststoffe, die sich mehrfach zu neuen, gleichwertigen Produkten wie Textilien, Verkleidungsteilen oder Verpackungen recyceln lassen und obendrein biologisch abbaubar sind: Das ist unsere Vision einer nachhaltigen Kunststoffwirtschaft, die in drei bis fünf Jahren Wirklichkeit werden soll. Aus pflanzlichen Reststoffen als regional verfügbarer Rohstoff werden vielseitig einsetzbare nachhaltige Produkte.
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Featured
RUBIO - Biopolymer
... RUBIO - Biopolymer ...
Landsberg am Lech, Germany
11-50 Employees
Postnova is the inventor and leader in Field-Flow Fractionation and innovator in Light Scattering technology, offering solutions used by leading scientists in laboratories worldwide. Postnova Analytics offers the Gold Standard in Field-Flow Fractionation. Postnova Analytics Inc 230 South 500 East, S. Postnova Analytics UK Ltd Unit 64, Malvern Hills Science Park Malvern, Worcestershire, WR14 3SZ UK. Postnova Northern Europe Valimotie 13A 00380 Helsinki Finland. Our unique analytical characterization platform is the premier solution for the advanced analysis of nanoparticles, proteins and macromolecules.
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Featured
Solutions for Food-Agro-Cosmetics scientific questions: Biopolymers
... FFF Solutions for Biopolymers Applications Systems Publications {loadposition loadcontent} {loadposition loadcontentsystem} {loadposition loadcontentpublic ...
Technologies which have been searched by others and may be interesting for you:
Some interesting numbers and facts about the results you have just received for Biopolymer
| Country with most fitting companies | United States |
| Amount of fitting manufacturers | 225 |
| Amount of suitable service providers | 131 |
| Average amount of employees | 11-50 |
| Oldest suiting company | 1962 |
| Youngest suiting company | 2021 |
A biopolymer is a type of polymer that is produced by living organisms; it consists of monomeric units that are covalently bonded to form larger structures. Unlike synthetic polymers, which are crafted from petrochemicals, biopolymers are made from natural sources—plants, animals, or microorganisms—making them inherently biodegradable and renewable. These biological macromolecules play a pivotal role in various industries, ranging from pharmaceuticals to packaging, due to their eco-friendly properties and compatibility with living tissue. In the medical field, for instance, biopolymers are used to create advanced drug delivery systems and biocompatible implants, offering a sustainable alternative to conventional materials. In the packaging industry, the use of biopolymers signifies a shift towards reducing plastic waste and carbon footprint, as these materials decompose naturally without harming the environment. Their impact extends beyond just their applications; the development and use of biopolymers represent a crucial step towards sustainability and environmental preservation. By harnessing the power of nature to create materials that are both functional and eco-conscious, biopolymers are at the forefront of a paradigm shift in material science, offering a promising pathway to mitigate the environmental challenges posed by synthetic polymers.
1. Eco-Friendliness
Biopolymers, derived from renewable resources, offer a significant environmental advantage by being more biodegradable than traditional plastics. This attribute reduces long-term pollution and fosters a healthier planet.
2. Reduced Carbon Footprint
The production process of biopolymers generally emits lower levels of greenhouse gases compared to conventional plastics. This is because they are made from biomass, which absorbs carbon dioxide as it grows, thereby mitigating climate change impacts.
3. Non-Toxicity
Biopolymers are often non-toxic, making them safer for use in packaging materials that come into direct contact with food. This characteristic ensures consumer health is not compromised, enhancing product safety standards.
4. Versatility
The versatility of biopolymers in various applications, from medical devices to packaging, highlights their adaptability. Innovations in biopolymer technology continue to expand their utility across industries, promising a wide range of sustainable solutions.
While evaluating the different suppliers make sure to check the following criteria:
1. Product Quality
Ensure the biopolymers meet industry standards and specifications, including purity, molecular weight, and mechanical properties.
2. Supply Chain Reliability
Evaluate the supplier's ability to deliver consistently on time, especially in volatile markets or during supply chain disruptions.
3. Environmental Impact
Consider the environmental sustainability of the biopolymer production process, including the use of renewable resources and the carbon footprint.
4. Regulatory Compliance
Verify that the biopolymers and their production processes comply with relevant regulations and standards, including those related to health, safety, and environmental protection.
5. Cost-effectiveness
Assess the overall cost, including material, shipping, and potential waste, to ensure the biopolymer choice aligns with your budget and provides value.
6. Technical Support and Service
Determine the level of technical support offered, including material selection guidance, processing support, and problem-solving capabilities.
Biopolymers, derived from biological sources, offer environmental and operational advantages across a range of industries. In the packaging sector, they are increasingly utilized to produce biodegradable and compostable materials. This shift not only helps companies reduce their carbon footprint but also meets the growing consumer demand for sustainable packaging solutions. The automotive industry is another significant beneficiary, where biopolymers are used to manufacture lightweight components. This application contributes to enhanced fuel efficiency and reduced greenhouse gas emissions, aligning with global sustainability goals. The medical field leverages biopolymers for their biocompatibility and biodegradability, making them ideal for developing surgical sutures, drug delivery systems, and implants. These applications minimize the risk of adverse reactions and reduce the need for surgical removal, thereby improving patient outcomes. Additionally, in the agriculture sector, biopolymers serve as a base for producing slow-release fertilizers and pesticides. This innovative use ensures more targeted and efficient delivery of nutrients and pest control, contributing to higher crop yields and reduced environmental impact. Each of these use cases underscores the versatility and eco-friendly nature of biopolymers, positioning them as a key material in the pursuit of sustainable industry practices.
Biopolymers, which are polymers produced from natural sources either through extraction or biosynthesis, currently find themselves at varying Technology Readiness Levels (TRLs) depending on their application and type. Generally, biopolymers such as PLA (Polylactic Acid) and PHA (Polyhydroxyalkanoates), used in packaging and agricultural films, are at a higher TRL, around 7 to 9, indicating that these materials have been demonstrated in operational environments and are close to or have already reached commercialization. This advanced TRL status is due to significant research and development efforts that have optimized their production processes, making them more cost-effective and improving their physical properties to meet commercial demands. However, for more novel applications of biopolymers, such as in biomedical engineering for drug delivery or tissue engineering, they might be placed at a lower TRL, around 4 to 6. This discrepancy is primarily due to the stringent regulatory requirements and the need for extensive clinical trials to prove their efficacy and safety for medical use. The rate at which biopolymers can move through the TRL scale is heavily influenced by technical challenges such as achieving consistency in product quality, enhancing their mechanical and thermal properties to match or surpass those of conventional polymers, and developing efficient and scalable production processes.
In the Short-Term, advancements in biopolymer technology will primarily focus on enhancing production efficiency and expanding the range of biodegradable plastics. Researchers are poised to develop more cost-effective fermentation processes, reducing the overall expense of biopolymer production. This phase will also see an increased application of biopolymers in packaging, driven by rising consumer demand for sustainable products. The Mid-Term phase will witness significant strides in the diversification of biopolymer applications, extending beyond packaging to the automotive and construction industries. Breakthroughs in biopolymer formulations will result in materials with improved strength, resilience, and temperature tolerance, making them viable alternatives to conventional plastics in more demanding applications. Additionally, regulatory support and incentives for green materials will bolster the adoption of biopolymers across various sectors. In the Long-Term, the focus will shift towards achieving full lifecycle sustainability of biopolymers through advancements in biodegradability and recyclability. Scientists will likely unlock new biopolymers that can degrade in a broader range of environmental conditions, including marine environments, significantly reducing plastic pollution. The development of efficient biopolymer recycling processes will also ensure that these materials can be reused, further minimizing their environmental impact. This era will mark the full maturation of biopolymers as a cornerstone of sustainable material science.
