Degradable Disposable Paper Cups Market size was valued at 1.29 Billion USD in 2025 and is poised to grow from 1.

Environmentally Degradable Refuse Sacks Market size was valued at 1.29 Billion USD in 2025 and is poised to grow from 1.

Hundreds of millions of metric tons of plastics are produced every year, and most of them end up sitting in landfills or polluting natural environments after use.

DEFINITION: Plastic material - either bio-based or fossil-fuel-based - that has been designed to degrade by oxidation. Oxo-degradable plastics typically contain a chemical additive which triggers frag...

DEFINITION: Plastic material - either bio-based or fossil-fuel-based - that has been designed to degrade by oxidation. Oxo-degradable plastics typically contain a chemical additive which triggers frag...

Using a new technique, a research group led by Osaka Metropolitan University (OMU) has substantially increased the range of plastics that can be degraded naturally.

Compostable plastics are touted as a greener alternative to conventional petroleum-based plastics that can linger in the environment for centuries. But there’s a catch. Degradable plastics only break down in the right conditions typically found in a composting facility. The tons of compostable plastic that ends up in oceans can still float around for decades and threaten marine life and ecosystems. Researchers have found a way for plastics to break down much faster in the ocean. They embedded tiny amounts of plastic-degrading enzymes in compostable polyester plastics. The enzyme-containing polyesters completely degraded in a relatively short time period even in microbe-scarce environments. The method works at all depths from coastal waters to the deep open sea, the researchers report in the journal Nature. There are many types of biodegradable plastics in commercial use today. These plastics are designed to decompose completely by microorganisms at certain temperatures and humidities. Those conditions are found in industrial composting facilities and with more care in backyard compost settings. But out in cold ocean water, biodegradable plastics can persist for a long time. The research team from Japan took four types of compostable plastic—PBS, PBSA, PCL, and PBAT—and melted them. The heat of the melt...

Using a new technique, a research group led by Osaka Metropolitan University (OMU) has substantially increased the range of plastics that can be degraded naturally. The study is published in the journ...

Compostable plastics are touted as a greener alternative to conventional petroleum-based plastics that can linger in the environment for centuries. But there’s a catch. Degradable plastics only break down in the right conditions typically found in a composting facility. The tons of compostable plastic that ends up in oceans can still float around for decades and threaten marine life and ecosystems. Researchers have found a way for plastics to break down much faster in the ocean. They embedded tiny amounts of plastic-degrading enzymes in compostable polyester plastics. The enzyme-containing polyesters completely degraded in a relatively short time period even in microbe-scarce environments. The method works at all depths from coastal waters to the deep open sea, the researchers report in the journal Nature. There are many types of biodegradable plastics in commercial use today. These plastics are designed to decompose completely by microorganisms at certain temperatures and humidities. Those conditions are found in industrial composting facilities and with more care in backyard compost settings. But out in cold ocean water, biodegradable plastics can persist for a long time. The research team from Japan took four types of compostable plastic—PBS, PBSA, PCL, and PBAT—and melted them. The heat of the melt...

Dr. Claudia Chavez-Munoz, a surgeon-researcher based in Vancouver's Mount Pleasant neighbourhood, has established the Conexeu lab at the adMare BioInnovations complex, where her team is developing absorbable 3D-printed implants designed to regenerate tissue after surgical procedures. The technology, which uses bio-degradable collagen scaffolding, allows the patient's body to grow new tissue that matches the original in function and structure. This innovation addresses the emotional and physical trauma many patients experience following procedures like mastectomies, burn treatments, or trauma recovery. The implants, displayed as semi-translucent prototypes with intricate tunneling for cell growth, are designed to be absorbed by the body over time, eliminating the need for replacement surgeries. Regenerative medicine is a rapidly growing field, though it faces challenges including high costs, lengthy development timelines, and variable patient responses. Despite these hurdles, patients often seek out such treatments for improved quality of life. Dr. Chavez-Munoz's team is working toward clinical trials within the next few years, with the goal of implementing the technology in British Columbia hospitals, including Vancouver General Hospital (VGH), within a decade. Her vision extends beyond current applications, with the potential to address a wide range of tissue loss scenarios. The lab's work aligns with broader Canadian efforts in regenerative medicine, including projects in Montreal and Manitoba focused on lung tissue printing and regenerative dentistry. While the technology remains in development, the potential to help the body heal itself represents a significant shift in surgical care, offering hope to patients facing life-altering diagnoses or chronic pain.

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The Degradable Mask Market was valued at USD 2.5 billion in 2025 and is poised to grow from USD 2.

The Degradable Mask Market was valued at USD 2.5 billion in 2025 and is poised to grow from USD 2.