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Progress and prospects in polymer science addressing plastic pollution in marine environments, including the deep-sea floor
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Marine Plastic Pollution: Chemical Aspects and Possible Solutions
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Reviewed plastic chemistry and how UV breaks C-C bonds into persistent microplastic particles. - 61463 — Biofouling changes microplastic sinking behavior, spreading them deeper into aquatic environments than density alone predicts. - 61430 — Heavy metals and microplastics co-detected in India's Hooghly River, highest near urban sewage outlets. - 61294 — Patent and bibliometric analysis of microplastic detection/remediation technologies across marine, freshwater, and soil environments. - 59338 — Microorganisms (bacteria/fungi) can break down plastic polymers via bioremediation. - 59296 — Even remote polar regions show microplastic contamination via atmospheric and ocean transport. - 59515 — Review of microplastic sampling methods; lack of standardization hinders cross-study comparison. - 59419 — Brazil's agricultural land degradation increases vulnerability to plastic and chemical pollution. - 59563 — Technical challenges in nano/microplastic chemical characterization; no standardized methods yet. - 59534 — Algae (phycoremediation) can capture microplastics from water as a low-cost treatment option. - 60977 — Wastewater treatment plants are a major microplastic source to waterways; current filtration is inadequate. - 55504 — Pullulan biopolymer as a biodegradable alternative to microplastic-generating synthetic packaging. - 68805 — Up to 14 million tonnes of microplastics estimated on the seafloor — 35x more than ocean surface. - 70753 — Oral microplastic beads accumulate in mouse liver, spleen, kidneys, and GI tract. - 74007 — Correction to atmospheric microplastic transport study; wind carries plastics to remote mountain areas. - 56736 — Microplastics absorb DDT strongly but have weak affinity for most current-use herbicides; PVC absorbs glyphosate. - 75099 — Freshwater microplastic contamination disrupts food webs and poses direct drinking water risk. - 27198 — AI/machine learning proposed to speed microplastic identification vs. slow manual methods. - 57768 — ML model predicts microplastic polymer aging rates, improving understanding of environmental breakdown. - 16750 — Comprehensive reference book on microplastic pollution sources, behavior, and environmental fate. - 58867 — Microplastics (up to 360/kg, mostly PVC) found in peat sediments in Vietnam's Long An province. - 77752 — German water research overview including microplastics as an emerging freshwater threat.
Navigating solutions: a comprehensive review on plastic pollution in marine ecosystems and the vital role of biodegradable polymers
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Researchers reviewed plastic accumulation in marine and coastal ecosystems, examining microplastic impacts on marine organisms and human health, and assessed biodegradable polymer alternatives including PLA, PBAT, and PHA as potential substitutes for conventional plastics, while identifying remaining challenges in degradation efficiency, cost, and regulatory frameworks.
Analysis of Marine Microplastics in the Water Column Sampled up to 300 M Depth
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Researchers sampled ocean water down to 300 meters depth and detected microplastics throughout the water column, demonstrating that plastic pollution extends well below the surface and is not limited to the shallow or coastal zones most commonly studied.
Plastics and Microplastics: Impacts in the Marine Environment
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Plastics and microplastics have achieved near-universal distribution in marine environments from surface waters to deep-sea sediments, persisting for decades while fragmenting into increasingly smaller and more biologically available particles. The growing concentration of microplastics in oceans represents a long-term threat to marine biodiversity and the food safety of seafood consumed globally.
Fate of Plastics in the Ocean Environment: The Plastic Odyssey
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This work traces the full lifecycle of plastic debris in marine environments — from land-based and ocean-based entry points through fragmentation, UV degradation, biofouling, and deep-sea accumulation — synthesizing the physical and chemical processes that govern plastic fate in the ocean. Understanding these transport and degradation pathways is critical for predicting where microplastics concentrate in marine food webs and designing effective interventions to prevent their accumulation in seafood and ocean ecosystems.
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