Plant-Based Biopolymer Technology
Advanced polymer chemistry, biotechnology, and sustainable manufacturing for high-performance biodegradable materials
Our Biopolymer Technology
Our materials are created through a combination of chemical reaction, biological fermentation, renewable plasticizers, and natural strengthening agents. We engineer our formulations to achieve strong mechanical performance, thermal stability, and predictable biodegradation in industrial composting and natural soil environments.
PlastScience's biopolymer resins represent a breakthrough in sustainable materials science. By combining renewable crop-derived components in precisely controlled formulations, we create high-performance materials that match traditional plastic properties while ensuring complete biodegradability.
Key Innovation
Tunable biopolymer formulations enable application-specific optimization of properties
Core Biopolymer Technologies
Chemical Reaction
Proprietary chemical processes that transform plant-based feedstocks into high-performance polymer ingredients. Our modification techniques enhance thermoplastic behavior, mechanical strength, and biodegradation characteristics.
Biological Fermentation
Advanced biotechnological production of polymer ingredients through controlled fermentation processes using engineered strains. This biotechnology approach enables efficient conversion of agricultural feedstocks into biodegradable polymer components.
Renewable Plasticizers
Plant-derived plasticizers that enhance material flexibility and processability while maintaining complete biodegradability. These compounds improve flow properties during manufacturing.
Strengthening Agents
Natural reinforcement materials that enhance mechanical durability without compromising environmental performance. Natural fiber and mineral-based options available.
Material Development Process
Feedstock Selection
Careful selection of renewable, crop-derived materials optimized for performance and sustainability.
Formulation Engineering
Precise formulation of biopolymer blends to achieve target mechanical and biodegradation properties.
Processing Validation
Comprehensive testing to ensure compatibility with standard plastic processing equipment.
Material Properties
Mechanical Properties
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Tensile Strength: Comparable to conventional plastics
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Flexibility: Tunable from rigid to flexible depending on application needs
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Impact Resistance: Optimized for real-world application requirements
Environmental Properties
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Water Resistance: Excellent barrier properties during use
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Temperature Stability: Suitable for food contact and various applications
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Shelf Life: Stable storage characteristics with predictable degradation
Biodegradation Mechanism
Our plant-based biopolymers undergo complete biodegradation through natural enzymatic and microbial processes:
Hydrolysis
Initial moisture absorption triggers polymer chain hydrolysis, beginning the breakdown process.
Enzymatic Action
Natural enzymes from microorganisms break down plant-based polymer components.
Microbial Consumption
Microorganisms consume degraded polymer fragments, converting them to biomass and carbon dioxide.
Complete Mineralization
Final conversion to water, carbon dioxide, minerals, and biomass with no toxic residues.
Biodegradation Timeline
Complete breakdown in industrial composting conditions
Application-Specific Formulations
Tableware & Foodservice
Optimized for: Rigidity, food safety, durability
Key Properties: High strength, water resistance, FDA compliance
Packaging & Films
Optimized for: Flexibility, tear resistance, barrier properties
Key Properties: High elongation, puncture resistance, printability
Molded Goods
Optimized for: Versatility, impact resistance, aesthetics
Key Properties: Balanced properties, color options, surface finish
Interested in Our Technology?
Learn more about how our plant-based biopolymers can meet your specific application requirements.
Contact Our Technical Team View Product Specifications