Biodegradable Solutions for Synthetic & Natural Polymers

Polylactic Acid (PLA): PLA is a biodegradable polymer made from renewable resources such as cornstarch or sugarcane. It is often used for packaging, disposable tableware, and textiles.

Starch-Based Plastics: These are biodegradable plastics made from starch, often derived from sources like corn, potatoes, or cassava. They are used in various applications, including packaging and bags.

Polyhydroxyalkanoates (PHA): PHA is a family of biodegradable plastics produced by certain microorganisms. They are used in packaging, agricultural films, and medical products.

Polybutylene Adipate Terephthalate (PBAT): PBAT is a biodegradable polyester commonly used in compostable bags and films.

Polycaprolactone (PCL): PCL is a biodegradable polyester used in a variety of applications, including 3D printing, drug delivery systems, and wound dressings.

Hemp and Cotton Textiles: Hemp and cotton are natural fibers that are biodegradable. They are commonly used to make clothing and textiles.

Jute and Sisal: Jute and sisal are natural fibers used for making biodegradable textiles, rugs, and twine.

Linen: Linen is a natural textile made from flax fibers, and it is biodegradable.

Bamboo: Bamboo is a sustainable and biodegradable material used in various textile products.

Tencel (Lyocell): Tencel is a cellulose-based fiber made from sustainably sourced wood pulp. It is biodegradable and used in clothing, bedding, and textiles.

Coir (Coconut Fiber): Coir is a natural fiber derived from coconuts and is used in products like doormats and erosion control blankets.

Ramie: Ramie is a natural plant-based fiber that is biodegradable and used in textiles and clothing.

It’s important to note that while these materials are biodegradable, the rate of degradation can vary depending on environmental conditions and specific formulations of the materials. Proper disposal methods, such as composting or industrial composting facilities, are often necessary to facilitate the decomposition of these materials into biomass. Additionally, regulations and standards for biodegradable products can vary by region, so it’s important to check local guidelines and certifications when using or disposing of biodegradable plastics and textiles.

There are biodegradable polymers and bioplastics designed to enhance the biodegradability of plastic materials, ultimately converting them into biomass under specific conditions. These polymers and bioplastics are developed to address the environmental concerns associated with traditional plastics. Here are some examples:

Biodegradable polymers: These are typically mixed with conventional plastics to facilitate their biodegradation. Some common biodegradable polymers include:

a. Starch-based polymers: Starch-based materials, like cornstarch or potato starch, can be added to plastics to increase biodegradability.

b. PR degradant polymers: These polymers promote the breakdown of plastics through processes such as oxidation. They can make plastics more susceptible to biodegradation.

c. Biodegradable Plasticizers:Plasticizers are often added to plastics to improve their flexibility and durability. Biodegradable plasticizers can enhance the overall biodegradability of plastic products.

Bioplastics: Bioplastics are made from renewable, natural resources and are designed to biodegrade into biomass. Some common bioplastics include:

a. Polylactic Acid (PLA): PLA is a bioplastic made from cornstarch or sugarcane. It is compostable and breaks down into biomass under the right conditions.

b. Polyhydroxyalkanoates (PHA): PHA bioplastics are naturally produced by certain microorganisms and are fully biodegradable in various environments.

c. Polybutylene Succinate (PBS): PBS is a bioplastic derived from renewable resources and is biodegradable under specific conditions.

d. Polybutylene Adipate Terephthalate (PBAT): PBAT is a bioplastic used in compostable bags and films and is designed to biodegrade.

e. Polyglycolic Acid (PGA):PGA is a bioplastic often used in the medical field for sutures. It is biodegradable.

Bioplastics are generally more environmentally friendly than traditional petroleum-based plastics, and they can decompose into natural substances when exposed to the right conditions, such as industrial composting facilities or specific microbial environments. However, it’s essential to follow proper disposal guidelines for these materials to ensure they biodegrade effectively and contribute to a reduction in plastic pollution. Additionally, the rate and extent of biodegradation can vary based on the specific formulation of the material and environmental conditions.

Biodegradable Future now leads the World’s Ratings

According to a recent survey by Intellectual Market Insights Research (IMIR), Biodegradable Future emerged as a top market player in the Plastic Additives Industry. It’s all because of Biodegradable Future’s advanced technology and unique market perspective. Biodegradable Future is a global product developer and distributor of innovative and proven biodegradable technologies. Currently, 8 manufacturing plants are strategically placed worldwide. Biodegradable Future specializes in providing clients with cutting-edge biodegradable products and additives that when used in landfill, marine, or industrial composting environments, accelerate the biodegradation of plastic polymers. Biodegradable Future’s applications are endless in the petrochemical and natural polymer industries. It uses patented technology with international recognition. Biodegradable Future’s Additive portfolio surpassed others in the market due to its effectiveness and key benefits.

Intellectual Market Insights Research (IMIR) is a global market research and consulting company publishing syndicate studies as well as consulting assignments pertaining to markets that promise high growth opportunities in the strategic future. They are a dedicated team of analysts with a strong base of technical expertise as well as a thorough understanding of the market dynamics. Some of the key areas of expertise include Biotechnology, Chemicals and Materials, Healthcare, Information Technology, Equipment and Machinery, Semiconductors and others. They analyze the emerging trends in relatively nascent markets that promise high growth opportunities in the future. They focus on precision research practices that provide accurate market estimations and forecasts. This helps their clients make proper estimations regarding demand analysis, regional growth, major competitors, and market dynamics.

Biodegradable Future has a positive impact on the environment as it helps in producing biodegradable plastics, which have the potential to break down into natural substances, reducing the persistence of plastic waste in the environment. Biodegradable plastics require specific conditions, such as sunlight, oxygen, and microbial activity, to degrade effectively. Their degradation may be slow in environments lacking these factors, like landfills or the ocean, leading to persistent pollution. In agriculture, biodegradable plastics can help reduce plastic pollution when managed correctly.

Nowadays, Companies are under pressure to improve their business practices and thus look for alternatives when it comes to packaging and product design because of the staggering number of plastic products that end up in landfills each year. Biodegradable Future’s additives are a great choice for any business that wants to use plastics in an environmentally responsible way for a number of reasons as those mentioned below –
• Maintain the strength of the plastic
• Are cost-effective and easily implemented
• Are versatile and adaptable to your needs
• Have been tested and proven to work

Over 90% of all plastic ends up in landfills Biodegradable Future’s product is designed to ensure that this stop becoming a problem.

Biodegradable Future Additives

Biodegradable Future’s Additives improves how microbes interact with plastic, facilitating their consumption of it. Mixing it with a petroleum-based resin helps draw microbes to the plastic product, where they can then move on to colonize the surface. Once fully colonized, the microbes use the plastic as food and continue to degrade the polymer chain.