A new review introduces innovative biotic and abiotic methods for recycling and upcycling polyethylene terephthalate (PET) plastic. These methods utilize microbial and chemical catalysis to depolymerize PET into basic monomers, which can be repurposed or converted into high-value products.
Researchers have developed cold sintering to recycle materials repeatedly without a decrease in quality. This process combines powder-based materials into dense forms at low temperatures and allows for recycling multiple times.
The new method uses femtosecond lasers to form glass-to-glass welds, eliminating the need for plastic polymer sheets that hinder recycling. The recycled materials can be easily reused, extending the life of solar modules.
A comprehensive analysis of over 200 scientific articles reveals the fundamental importance of scavengers and carrion in wetlands, benefiting soil, plants, birds, and mammals. The study highlights five different functions performed by scavengers during carrion consumption, including nutrient recycling and pathogen control.
Researchers at the University of Washington developed a new PCB that performs on par with traditional materials and can be recycled repeatedly. The process uses a solvent to transform a type of vitrimer into a jelly-like substance, allowing solid components to be plucked out for reuse or recycling.
Researchers at KIST have developed a recycling technology that can recycle more than 99% of CFRP materials within tens of minutes. The technology uses supercritical water to selectively remove epoxy impregnated in the CFRP, resulting in high-purity recycled carbon fiber.
Researchers developed a simple, efficient chemical leaching strategy to extract active lithium from retired batteries. The method optimizes solvent and process parameters for high recovery rates and minimal environmental pollution.
Researchers at UniTrento will develop a recycling process for used tyres to create new non-polluting tyres, reducing greenhouse gas emissions by 30% and purchasing costs by 25%. The project aims to produce tyres for heavy-duty vehicles first, but the goal is to create sustainable tyre solutions.
A new study from the University of Illinois explores the effects of curbside compost collection programs in New South Wales, Australia. On average households redirected 4.2 kilograms of waste to composting, representing 25% of the waste that previously went to landfills.
Researchers at the University of Illinois have developed a novel electrochemical process to extract precious metals, including gold and platinum group metals, from discarded electronics and low-grade ores. This method uses less energy and fewer chemical materials than current methods, producing high-purity metals with minimal waste.
Chalmers University researchers create a sustainable method for extracting pure gold from scrap using biodiesel and malonamide. This process replaces toxic chemicals and fossil solvents, offering benefits for the metal industry and reducing greenhouse gas emissions.
Researchers found that RNA molecules can recycle water, allowing for efficient copying and replication under low saline conditions with high pH levels. This process enabled the emergence of simple metabolic processes, paving the way for complex life.
Researchers analyze solutions implemented in four Brazilian cities, proposing a national carbon credit fund to reduce greenhouse gas emissions and increase revenue through the circular economy. The study finds that efficient waste management can produce fertilizer, biogas, and generate significant economic benefits.
In nerve cells, insulin facilitates the elimination of defective mitochondria when energy is available. However, during energy scarcity or disrupted insulin signaling, mitochondrial recycling is reduced, allowing potentially damaged power plants to continue operating. This process affects ageing processes and neurological diseases.
Researchers studied the dolphin-kick swimming motion and found that water flow velocity increases with speed, generating a strong vortex during kicking. Recycling of flow is also observed during transitions between kicks, becoming more pronounced as speed increases.
Cells use autophagy as a recycling system to transport and break down damaged organelles, including mitochondria. A recent study reveals the molecular details of how an enzyme called TBK1 participates in mitophagy, a disease-relevant process linked to Parkinson's disease.
Researchers discovered rapid calcium influx into mitochondria upon autophagy induction, coinciding with fluctuations in ER membrane calcium concentrations. Mitochondrial calcium transport may regulate mitophagy velocity, shedding light on disease mechanisms and potential therapeutic avenues for Parkinson's disease.
Researchers have developed a low-tech method to collect rare-earth metals from spent fluorescent bulbs, mimicking lamp components with magnetic field-controlled chromatography. The process recovered 93% of the rare-earth phosphors, paving the way for practical recycling applications and sustainable technologies.
Rice University researchers have developed a new, energy-efficient process to upcycle glass fiber-reinforced plastic (GFRP) into silicon carbide, widely used in semiconductors and sandpaper. The method involves heating the mixture of GFRP and carbon to extremely high temperatures, transforming it into conductive silicon carbide.
A team of researchers has discovered the role of an enzyme in recycling ribosomes at the endoplasmic reticulum. The enzyme, a special E3 ligase, joins a small protein modification called UFM1 to the large ribosomal subunit, ensuring its detachment from the ER membrane.
UConn researchers have developed a method to sustainably recover chitin, the second most abundant biological polymer on Earth, from seafood waste using natural chemicals. The process creates a viscous solution called ternary deep eutectic solvents (TDESs) that selectively extracts chitin, leaving behind unwanted components.
Researchers have developed a novel biohybrid catalyst that uses an anchor peptide to oxidize polystyrene microparticles, making them degradable. The catalyst accelerates the formation of polar OH groups through reaction with Oxone, allowing for efficient breakdown and degradation of polystyrene.
A recent study by Professor Joseph Michalski and his team has revealed a vast number of diverse volcanoes in Mars' ancient crust, including lava domes, stratovolcanoes, calderas, and large shields of ash. These findings suggest that intense volcanism occurred on ancient Mars, causing the crust to collapse into the mantle.
A new study from Norway shows that only a third of fishing ropes can be recycled in a sustainable way. The researchers analyzed 15 types of rope and ranked them according to ease of recycling, highlighting the need for better waste management practices.
Researchers at the University of Liège have developed a hybrid approach to produce glycerol carbonate from glycerol and CO2 in under 30 seconds, significantly surpassing current production processes. This breakthrough could lead to increased industrialization and utilization of biomass-derived molecules.
The ShAPE technology developed at PNNL can transform 100% post-consumer scrap aluminum into usable extrusions meeting ASTM standards for strength and flexibility. This process conserves nearly all the energy required to manufacture new aluminum products, reducing dependency on imported primary aluminum and greenhouse gas emissions.
The study proposes technical, legal, and economic interventions to transition the global plastics system to net zero emissions by 2050. The authors emphasize the need for concerted action across four target areas: smart materials design, waste management, recycling, and reducing future demand.
Research by Utrecht University reveals that a significant portion of European plastic sent to Vietnam is not recyclable and ends up in nature. The study highlights the need for a systemic approach to tackle human and environmental harm throughout the value chain.
Scientists have developed a technology to recycle used clothes by separating different fibers, which could significantly increase textile recycling rates. The method uses heat and chemicals to break down elastane fibers in mixed fabrics, allowing for the processing of materials that were previously impossible to recycle.
Researchers at Shinshu University propose a new chemical process to depolymerize cyclic α-substituted styrene-based vinyl polymers, resulting in the recovery of monomer precursors. This efficient recycling system can facilitate effective resource circulation and development of new plastic recycling technologies.
A team of researchers at The Hospital for Sick Children discovered a way to potentially reduce toxic cellular waste in patients with Zellweger Spectrum Disorder. By increasing the autophagic limit, they observed improved clearance of cellular waste, offering new pathways for treatment.
Researchers found that aging urinary tracts experience cellular level changes favoring UTI establishment and recurrence. D-mannose supplementation restores autophagy and mitigates ROS, suggesting a potential treatment for age-related UTI dysfunction.
A study by researchers from the University of Münster found that China will be able to meet its demand for primary lithium for electric vehicles through recycling as early as 2059, while Europe and the US will not achieve this until after 2070. Recycling is also expected to ensure China's need for cobalt by 2045 and nickel by 2046.
Researchers have uncovered the intricate molecular mechanism used by parasitic phytoplasma bacteria to manipulate plants. The discovery sheds light on a peculiar phenomenon in nature, where plants exhibit 'zombie-like' effects due to bacterial infection.
A recent study by Goethe University Frankfurt has identified a mechanism that could be a suitable starting point for developing novel drugs against leukemia cells. The researchers discovered that the mutated NPM1 gene variant drives pro-autophagic activity, enabling cancer cells to recycle their structures and meet their needs.
Researchers at Johns Hopkins Medicine discovered a promising experimental drug combination that reduces the size of peripheral nerve sheath tumors in mice and increases survival rates. The combination blocks glutamine metabolism and purine recycling, producing a better anti-tumor response with less toxicity.
Researchers at Oak Ridge National Laboratory have developed a new, efficient, and environmentally-friendly solution for lithium-ion battery recycling using organic citric acid. This approach recovers critical metals like cobalt and lithium, reduces pollution and reliance on foreign sources, and eliminates the need for hazardous chemicals.
Researchers at Kaunas University of Technology develop method to treat cigarette butts using pyrolysis, producing oil, char, and gas with real applications in fertilizers, wastewater treatment, energy storage, and biofuels. The process reduces biodiesel production costs by adding triacetin-rich oil as an additive.
Researchers establish new standards for laboratory experiments to improve PET recycling efficiency. Four engineered enzymes were tested, with LCC-ICCG outperforming the others in terms of depolymerisation rate and enzyme requirement. The study aims to accelerate the development of industrial-scale solutions for PET waste management.
Researchers from ICIQ describe a circular process to recycle biobased polycarbonates, which can contribute to a more sustainable circular economy. The study uses a multi-task catalyst to promote depolymerization and repolymerization of the polymer.
Scientists at Lawrence Berkeley National Laboratory and JBEI developed a simple
Tau protein forms nano-biomolecular condensates that dynamically cluster recycling synaptic vesicles, influencing synaptic function. This study highlights the importance of protein mapping in understanding neural transmission and synaptic plasticity.
A new polyurethane production technique using CO2 creates easily recyclable plastics with a thermoset structure, but can be reshaped by exchanges of chemical bonds. These plastics offer multiple ways of recycling materials at their end-of-life, eliminating additives.
Researchers developed a water-based emulsion adhesive that can be separated by acidic or alkaline water, making it ideal for recycling. The glue's reversible nature enables efficient detachment of labels from bottles, reducing waste sent to landfill.
A recent study published in ScienceDirect found hundreds of toxic chemicals in recycled plastic pellets from 13 countries. The findings highlight the risks associated with recycling plastics and the need to phase out harmful chemicals. The researchers urge policymakers to take action to limit hazardous chemicals in plastics.
Researchers emphasize the need for a holistic approach to tackle plastic pollution, prioritizing 'upstream' issues such as reducing production and consumption of plastics. The treaty should prioritize early interventions, focusing on ecosystems and chemical simplification.
Researchers at Auburn University have discovered a specific pathway regulating how older proteins are transported to the cell body for recycling. This process is essential for maintaining effective neural communication and ensuring optimal cognitive function.
A recent study published in the Journal of Cell Biology has made significant progress in understanding autophagy and lipid recycling. Researchers used yeast as a model organism to identify key players in the process, including Atg15, Pep4, and Prb1, and demonstrated that Pep4 and Prb1 activate Atg15 to break down phospholipid bilayers.
Researchers at Chalmers University of Technology have developed a new method for recycling metals from spent electric car batteries using oxalic acid. The method allows for the recovery of 100% of aluminum and 98% of lithium, minimizing waste and utilizing an environmentally friendly ingredient.
Producing new plastic via advanced recycling of post-use plastic reduces GHG emissions by 18-23% and fossil energy use by 65-70%. The study analyzed 2017-2021 data from eight companies and found a further 40-50% reduction when factoring in current end-of-life practices.
A recent study emphasizes the need to reduce plastic use in agriculture to mitigate pollution and prevent toxic chemicals from entering the soil and food chain. Innovative recycling methods are crucial to protecting the environment and human health. The researchers suggest adopting a strategic approach, including responsible usage, red...
Researchers developed a machine learning system to predict polymer miscibility with organic solvents, allowing for efficient recycling of plastics. The model can calculate χ parameters up to 40 times faster than conventional quantum chemistry calculations and has proven accurate in predicting suitable blends.
Researchers found that genetic recycling enabled the emergence and adaptation of 500 cichlid species in Lake Victoria over just 16,000 years. The study identified unique ancient genes and hybridisation as key drivers of this unprecedented biodiversity explosion.
Researchers at Rice University have developed a high-yield, low-cost method for reclaiming metals directly from mixed battery waste. The new process uses the 'flash' technique to separate critical metals, reducing energy and acid consumption by up to 100-fold and lowering carbon dioxide emissions.
Researchers investigated Japan's market for incorporating greener plastics to achieve carbon neutrality. They found that bioplastics have the lowest global warming potential, while recycled plastics are cheaper but with lower quality and recyclability. A robust recycling system is crucial to ensure quality assurance.
Researchers at Tokyo University of Science have uncovered a novel mechanism for sorting endocytic cargo, revealing a specific compartment within the trans-Golgi network that determines the fate of cargo. This discovery has implications for understanding basic life processes and diseases caused by disruptions in endocytosis.
A study by Oak Ridge National Laboratory found that 3D-printed molds are economically beneficial for precast concrete production compared to traditional wood molds. The analysis also showed that optimized mold designs can reduce energy demand and carbon emissions.
Scientists at Oak Ridge National Laboratory have developed a technology that converts unrecyclable plastic waste into useful chemicals, reducing energy consumption and greenhouse gas emissions. This new approach presents a promising strategy for establishing closed-loop circularity of plastics and fighting global plastic waste.
A UH research team is developing innovative chemical processes to transform plastic waste into useful materials, aiming to create new ways to reuse and recycle polyolefins. The project seeks to produce durable thermoset materials that can be recycled multiple times, reducing environmental impact and promoting a circular plastics economy.
Researchers create process to recycle polypropylene, polyethylene and polystyrene plastics into chemical ingredients useful for energy storage. The new method uses LEDs and a catalyst, reducing greenhouse emissions compared to traditional recycling processes.