Biotic uses a diverse array of responsibly sourced feedstocks including to create bio-based, biodegradable PHBV polymers, a member in the PHA family, to help fulfill plastic demand.
Our scalable technology:
Fully biodegrades in any environment
Provides cost-effective solutions
Fits existing production lines & machinery
Why Macroalgae?
Renewable Feedstock
Macroalgae is a regenerative biomass, proliferates year-round, and can be grown in any sea or ocean, as well as industrial settings
Scalability
Macroalgae does not require arable land nor freshwater, and only a small portion of the ocean is required to cultivate enough macroalgae to fulfill global plastic demand
Environmental Co-benefits
Macroalgae effectively absorbs carbon dioxide at a rate 4 times higher than trees
Wide Usability
Biotic can use any marine biomass to create PHBV polymers, including seaweed, sugar kelp, sargassum, ulva, as well as seagrass
Biotic’s PHBV polymers are a type of PHA
Biotic’s PHBV polymers can be synthesized to exhibit a wide range of properties, displaying similar characteristics as polypropylene, HDPE and LDPE, polyester, fibers, etc., making them able to be processed into a wide range of end products. They can be tailored to be rigid or flexible, transparent or opaque, and even water-soluble or insoluble.
Biotic’s PHBV Polymers’ Properties
Biodegradability
Biotic’s PHBV polymers are fully biodegradable, meaning they can be broken down by microorganisms in the environment into natural compounds such as carbon dioxide and water.
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Reduced Microplastic Polution
Microplastics are tiny plastic particles that accumulate in water bodies and soil, and harm marine life and animals by entering the food chain. Because Biotic’s PHBV is biodegradable, it does not contribute to microplastic pollution.
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Reduced Carbon Footprint
The production of Biotic’s PHBV generates lower carbon emissions than that of conventional plastics. Biotic’s feedstock is renewable, and is manufactured using fully biological processes, and therefore has the potential to significantly reduce greenhouse gas emissions and help combat climate change.
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Renewable & Sustainable
Biotic’s PHBV polymers are produced using macroalgae, which is a regenerative biomass that grows in virtually every sea and ocean. In utilizing renewable feedstocks, Biotic’s technology helps to reduce dependence on fossil fuels and support a more sustainable tomorrow.
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Biotic’s
PHBV
polymers
VS
other plastics
Biotic PHBV
PE/PP
PET
PLA
PBAT
Toxic Free
Bio-Based
Biodegradable
Home
Compostable
Technical
Properties
Fits Existing Industrial Processes
Definitions:
PHA
Polyhydroxyalkanoates is a biobased, biodegradable family of plastics, commonly seen as a beneficial alternative to conventional plastics because of its ability to degrade in natural environments.
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PHBV
PHBV, or poly (3-hydroxybutyrate-co-3-hydroxyvalerate), is a specific type of PHA which has more desirable properties, including toughness, flexibility, and processability, than other PHA polymers.
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Compostable
A subset of biodegradable materials that specifically break down into compost, a nutrient-rich humus-like substance, under the right conditions.
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Biodegradable
A material that can be broken down by natural biological processes. Biodegradation occurs over a relatively short period, minimizing environmental impact and contributing to the reduction of waste in landfills and ecosystems. The pace of degradation also depends on product composition, the part thickness and other external conditions.
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Bio-Based
A material made from substances derived from living (or once-living) organisms.