We can't find the internet
Attempting to reconnect
Something went wrong!
Hang in there while we get back on track
Sustainable Management of Industrial Wastewater in Türkiye: Pilot-Scale Gravity-Driven Dynamic Membranes for Water Reuse
AI summary Read the abstract
Scientists in Turkey developed a new, low-energy water cleaning system that removes harmful particles like microplastics from industrial wastewater, making it clean enough to reuse in factories. This gravity-powered system uses 20-30 times less energy than traditional methods and helps protect our environment from industrial pollution that can harm human health. The technology offers a cheaper, more sustainable way for industries to clean and reuse their wastewater instead of dumping it into rivers and lakes.
There is an urgent need to transition toward a circular economy in Türkiye by improving effluent quality for industrial water reuse. This study evaluates the management and performance of a sustainable, pilot-scale (170 L) gravity-driven dynamic membrane (GD-DM) system designed for low-energy wastewater reclamation. Unlike conventional high-pressure membrane systems that suffer from high energy demands and chemical cleaning requirements, this GD-DM system integrate a 150 µm stainless steel support material to obtain a very low turbidity water. To align with waste-to-resource principles, the dynamic membrane layer was formed using waste activated sludge from the return line of an organized industrial wastewater treatment plant, eliminating the need for synthetic filtration media. Operating with automated sensors for real-time turbidity and flow monitoring, the system achieved an average flux of 353 L/m².h. High-quality reclaimed water (turbidity < 5 NTU) was consistently produced within 3 minutes, with levels dropping below 1 NTU for over 84% of the operational cycle. Because the conductivity of the permeate is very high (above 4,301 µS/cm), it cannot be reused for agricultural purposes. This approach provides a microfiltration-level effluent quality while maintaining a flux 20–30 times higher than traditional polymeric membranes. The treated water is virtually suspended-solids-free, making it suitable for industrial reuse. By drastically reducing energy consumption and operational complexity, the GD-DM system offers a scalable and environmentally sustainable solution for managing industrial wastewater and protecting receiving environments from pollutants like microplastics.
More Papers Like This
When Technology Meets Sustainability: Microplastic Removal from Industrial Wastewater, Including Impact Analysis and Life Cycle Assessment
AI summary Read the abstract
Researchers assessed a novel pilot plant that removes microplastics from industrial wastewater using organosilane-based agglomeration followed by belt filtration, and conducted a life cycle assessment. The system achieved 98% MP removal by mass and 99.9987% by particle count while reducing chemical oxygen demand by 96%, with the life cycle assessment confirming the environmental feasibility of the approach.
Innovative pilot-scale mechanical assembly for efficient removal of microplastics from wastewater: a sustainable solution
AI summary Read the abstract
Researchers tested a pilot-scale water treatment system combining aeration, sedimentation, sand filtration, and reverse osmosis and found it removed up to 93% of microplastics from canal water, though efficiency dropped to 66% in drainage wastewater, demonstrating potential as a scalable microplastic mitigation solution.
Treatment of microplastics in tannery wastewater using a Hybrid Fenton–Electrocoagulation–Electroflocculation process
AI summary Read the abstract
Scientists developed a new water treatment method that combines two cleaning techniques—one using chemicals, one using electricity—to strip tiny plastic particles (microplastics) out of wastewater from leather tanneries. In tests, the process removed over 95% of microplastics from real factory wastewater while using relatively little energy, offering a practical way to keep these plastic particles out of rivers and water supplies where they could eventually make their way into the food we eat and water we drink.
A Novel Application of Filtration for the Collection of Microplastics in Waterways
AI summary Read the abstract
Researchers developed a novel filtration system for collecting microplastics from waterways, demonstrating its effectiveness as a scalable and practical tool for environmental monitoring and plastic pollution assessment.
Development and evaluation of a water treatment system for the removal of microplastics in an aqueous medium.
AI summary Read the abstract
Researchers developed and evaluated a water treatment system for removing microplastics from aqueous media, addressing the urgent environmental concern of microplastic contamination in rivers, seas, and oceans and assessing the system's effectiveness as a promising water purification technology.
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.