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Scalable and Reconfigurable Green Electronic Textiles with Personalized Comfort Management
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Researchers developed scalable and reconfigurable green electronic textiles for personalized thermal comfort management, using sustainable materials and designs that minimize electronic waste generation and address the environmental concerns associated with conventional e-textile manufacturing.
Electronic textiles, inherited with the wearability of conventional clothes, are deemed fundamental for emerging wearable electronics, particularly in the Internet of Things era. However, the electronic waste produced by electronic textiles will further exacerbate the severe pollution in traditional textiles. Here, we develop a large-scale green electronic textile using renewable bio-based polylactic acid and sustainable eutectic gallium-indium alloys. The green electronic textile is extremely abrasion resistant and can degrade naturally in the environment even if abrasion produces infinitesimal amounts of microplastics. The mass loss and performance change rates of the reconstituted green electronic textiles are all below 5.4% after going through the full-cycle recycling procedure. This green electronic textile delivers high physiological comfort (including electronic comfort and thermal-moisture comfort), enables wireless power supply (without constraints by, e.g., wires and ports), has 2 orders of magnitude better air and moisture permeability than the body requires, and can lower skin temperature by 5.2 °C.
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A systematic review of the textile industry's full life cycle examined technological innovations aimed at reducing microplastic and chemical pollution, greenhouse gas emissions, and water consumption against Sustainable Development Goal benchmarks. Textiles are among the largest sources of microplastic pollution entering waterways through laundry effluent, making industry-wide technological transformation essential for reducing human and environmental exposure to synthetic fiber contamination.
Combining Flexible and Sustainable Design Principles for Evaluating Designs: Textile Recycling Application
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Researchers developed a framework combining flexible and sustainable design principles to evaluate textile recycling technologies. The study addresses the growing environmental burden of textile waste in the U.S., where over 15 million tons are discarded annually with less than 15% recycled, contributing to microplastic pollution and greenhouse gas emissions. The proposed evaluation method aims to help identify recycling approaches that are both economically viable and environmentally responsible.
Microplastics from Wearable Bioelectronic Devices: Sources, Risks, and Sustainable Solutions
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This review highlights that polymer-based wearable bioelectronic devices — such as electronic skins used in continuous health monitoring — can shed microplastics during use, and calls for sustainable polymer design strategies to address this overlooked emission source.
Employment of Waste from the Textile Industry for the Production of Nanocomposites Aiming at the Generation of Thermal Shrinkable Films and the Non-Formation of Microplastics
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Researchers used recycled textile waste to create nanocomposite materials for making heat-shrinkable films, aiming to reduce microplastic generation compared to conventional plastic films. The approach repurposes discarded clothing into functional materials, addressing both textile waste and the microplastic pollution from degrading synthetic fabrics.
A versatile self-cleaning fabric coating as a detergent-free laundry product
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Researchers developed a polyelectrolyte multilayer fabric coating that enables effective stain and microbial removal through simple water rinsing without detergent, reducing water, electricity, and time consumption by approximately 82% and eliminating microplastic-laden wastewater discharge from laundry.
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.