Reborn Materials
Technology
Reborn Materials
Technology
History of Plastic Degradation Research
Late 19th to Early 20th Century: Beginning of Microbial Studies
Background:
Studies began on the natural degradation of complex polymers like cellulose and lignin by microorganisms.
Bacteria such as Cellulomonas sp. and fungi like Aspergillus nigerwere the focus of these early studies.
Key Enzymes:
Cellulase: Breaks down cellulose into glucose.
Laccase: Degrades lignin through oxidation-reduction reactions.
Limitations: These studies focused on natural polymers, as synthetic plastics had not yet been developed.
Mid-20th Century: Initial Exploration of Plastic Degradation
Background:
The industrial production of plastics led to increasing environmental pollution due to their non-degradable nature.
Early experiments showed that certain synthetic polymers could be partially degraded by microorganisms after chemical or thermal pretreatment.
Key Findings:
Pseudomonas sp. bacteria demonstrated the ability to break down certain organic compounds.
Fungi like Aspergillus niger were found to attack polyester structures.
Mid-20th Century: Initial Exploration of Plastic Degradation
Background:
The industrial production of plastics led to increasing environmental pollution due to their non-degradable nature.
Early experiments showed that certain synthetic polymers could be partially degraded by microorganisms after chemical or thermal pretreatment.
Key Findings:
Pseudomonas sp. bacteria demonstrated the ability to break down certain organic compounds.
Fungi like Aspergillus niger were found to attack polyester structures.
21st Century: Advancements in Plastic-Degrading Microorganisms and Enzymes
Background:
The industrial production of plastics led to increasing environmental pollution due to their non-degradable nature.
Early experiments showed that certain synthetic polymers could be partially degraded by microorganisms after chemical or thermal pretreatment.
Key Findings:
Pseudomonas sp. bacteria demonstrated the ability to break down certain organic compounds.
Fungi like Aspergillus niger were found to attack polyester structures.
Plastic Types, Research Milestones, and Degradation Methods
Empowering the Circular Economy with Precision Biodegradation
How Reborn's Technology Works
Discovery and Enhancement:
Leveraging insights from nature, we identify unique microbial systems capable of producing enzymes that target the molecular structure of plastics. These enzymes undergo proprietary modifications to enhance their durability, efficiency, and compatibility with various polymers.
Next-Level Stability:
Our patented nano-encapsulation technology ensures enzyme stability even under extreme industrial conditions, such as high temperatures and mechanical stress. This allows us to address plastics that have traditionally resisted biodegradation.
Surface Adaptation:
Plastics are engineered to interact seamlessly with our microbial systems, ensuring optimal degradation. This step is tailored for each polymer type and is part of a broader strategy to improve biodegradation in real-world environments.
The Invisible Layer (Ongoing Development):
Reborn is advancing a next-generation approach, including adaptive enzymes and self-replicating microbial systems, which will further accelerate degradation timelines and broaden the range of target plastics.
Plastics We Target
Reborn Materials Inc. addresses a variety of polymers to support industries worldwide:
PET (Polyethylene Terephthalate): Broken down into reusable monomers using PETase and MHETase.
PP (Polypropylene): Degraded at scale using heat-tolerant microbial solutions.
PE (Polyethylene): Treated with UV-assisted pre-treatment and enzymes for efficient decomposition.
PS (Polystyrene): Digested by microbial solutions derived from natural systems.
PVC (Polyvinyl Chloride): Detoxified with Dehalogenase enzymes, allowing safe microbial degradation.
PBAT (Polybutylene Adipate Terephthalate): Rapidly degraded in soil environments using advanced microbial formulations.
PLA (Polylactic Acid): Decomposed effectively with Proteinase K and Cutinase, tailored for compostable materials.
Why Choose Reborn Materials?
Reborn Materials Inc. stands out by blending advanced science with real-world practicality.
Scalability: Designed for industrial, landfill, and composting environments.
Adaptability: We develop solutions that are tailored to diverse applications, from consumer goods to agriculture.
Future-Focused: Ongoing research ensures we stay ahead of the curve, addressing plastics yet to be regulated or widely recycled.
Exclusive Innovation: Many of our processes remain under wraps, ready to be unveiled as market needs evolve.
What Makes Us Unique?
Breakthrough Enzyme Stability:
Our nano-encapsulation methods enable enzymes to work under conditions previously considered impossible, making Reborn’s solutions a game-changer in biodegradation.
Tailored Approaches:
Each plastic type requires a specific degradation strategy, and Reborn’s customizable solutions ensure maximum efficiency and minimal environmental impact.
More to Come:
The technologies we’ve introduced are just the tip of the iceberg. With several advancements in the pipeline, the future of plastics biodegradation is closer than you think.
Key Message:
"Reborn is not just solving today’s problems, we’re designing solutions for tomorrow."
Claim Disclaimer for Compliance:
"Our innovative hybrid plastic technology is designed to reduce long-term waste in environments with active microbial activity, such as soil and landfills. Tested to meet international standards, our packaging supports microbial digestion under specific conditions, promoting a more sustainable life cycle or Full Cycle for plastics."
"Degradation depends on environmental conditions such as microbial activity, moisture, and temperature. This product has been tested under laboratory conditions simulating soil (ISO 17556, ASTM D5988) and landfill environments (ASTM D5511). Results may vary in real-world settings. This product is not certified as industrially compostable under ASTM D6400 and does not fully degrade within one year in all environments."
Legal Disclaimers
General Disclaimer:
The information provided is for informational purposes only and does not guarantee specific results. Outcomes depend on polymer type, environmental conditions, and application protocols.
Intellectual Property Disclaimer:
The technologies described, including nano-encapsulation and microbial formulations, are protected under patents and/or are patent-pending. Additional developments remain proprietary and may be disclosed upon partnership or regulatory approval.
Regulatory Compliance Disclaimer:
Reborn Materials Inc. adheres to biodegradability standards, including ISO 17556 and ASTM D5511. Specific certifications vary by product and application.
Performance Disclaimer:
Degradation results depend on environmental variables, polymer structure, and operational parameters. Contact us for specific case studies or data.
Forward-Looking Disclaimer:
Certain statements, including those about ongoing development, are forward-looking and subject to change as research progresses.
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