We can't find the internet
Attempting to reconnect
Something went wrong!
Hang in there while we get back on track
Microplastic and adhesive free, multifunctional, circular economy approach-based biomass-derived drinking straws
AI summary Read the abstract
Researchers developed drinking straws made from rice straw waste that are free of microplastics and adhesives. The study suggests these bio-based straws are water-stable, heat-resistant, antibacterial, and biodegradable, with a dramatically lower carbon footprint than metal or polylactic acid alternatives, turning agricultural waste into a useful consumer product.
Generation of voluminous single-use plastic waste and byproducts from agricultural harvests such as rice straws (RSs) are major global challenges due to their disposal issues, contributing to greenhouse gas emissions, and affecting the ecological system with threats to human health. A scalable, low-cost, and eco-friendly strategy for fabricating cellulose-silica-based drinking straws, free from microplastics and adhesive, through strategic valorization of RS is reported. Functionalization by delignification-cum-crosslinking of RS leads to development of straws with high water stability (∼5 days), solvothermal stability (0°C-95°C), tensile strength (128 MPa), low migration values (<60 mg/kg), improved biodegradability (∼126 days) with reduced wettability and hydrophobicity. RS drinking straws show antibacterial, self-cleaning, self-healing, anti-fizzing, reusable, and generate significantly lower carbon footprint (<99.8% and <53.34% global warming potential than metal and polylactic acid straws). Repurposing of agro-wastes from farms to commercially viable drinking straws which biodegrades after its consumption achieves the goal of circular economy and sustainable development.
More Papers Like This
A hydrophobic and degradable straw based on the ethyl cellulose-coated bacterial cellulose
AI summary Read the abstract
Researchers developed a hydrophobic and biodegradable straw made from ethyl cellulose-coated bacterial cellulose as a microplastic-free alternative to conventional disposable plastic straws. The cellulose-based straw achieved the hydrophobicity needed for beverage use while remaining biodegradable, offering a sustainable substitute that avoids microplastic shedding during use and disposal.
Improving the Mechanical Strength of Bio‐Based Drinking Straws Derived From Rice Straw Through Coating With Bael Protein Isolate and Pectin for Applications in the Food and Beverage Industry
AI summary Read the abstract
Rice straw-based drinking straws coated with bael protein isolate and pectin showed 43.2% higher tensile strength and substantially reduced liquid absorption compared to uncoated versions, with all migration values safely below regulatory limits. This plant-based, microplastic-free alternative to disposable plastic straws demonstrates a viable path for replacing one of the most common single-use plastic items found in coastal and marine debris surveys.
Hierarchical Interlayer Design for Wheat Straw-Based Straws: Exceptional Mechanical Robustness and In-Situ Capture of Micro/Nano Plastics.
AI summary Read the abstract
Researchers engineered a biodegradable drinking straw from wheat straw using coatings that improved strength, water resistance, and thermal stability. In lab testing, the straw's outer coating captured up to about 36% of negatively charged microplastics and nanoplastics from water, based on turbidity measurements.
Production of Cost-Effective Biodegradable Straw
AI summary Read the abstract
Researchers developed a biodegradable drinking straw made from natural, chemical-free materials as an alternative to plastic straws. Plastic straws are a common source of single-use plastic pollution and potential microplastic generation in marine environments.
Growing Strong Polysaccharide-Derived Edible Straws with an Inherent Structural Binder via Biomanufacturing
AI summary Read the abstract
Researchers developed edible straws made from bacterial cellulose and starch using a biomanufacturing approach, as an alternative to plastic straws that contribute to microplastic pollution. The straws demonstrated strong mechanical performance, maintaining their structure in both hot and cold beverages for extended periods. The study suggests that bio-manufactured food-contact materials could help reduce reliance on conventional plastics and the associated microplastic risks.
Research digests by email
When a large batch of papers lands in the Atlas, we read through it and send a short write-up of what stood out.