We can't find the internet
Attempting to reconnect
Something went wrong!
Hang in there while we get back on track
Transport and Clogging of Microplastic Particles in Porous Media: Microscale Experiments and Statistical Analysis
No summary available — this paper's abstract is not included in the open metadata provided by the publisher. Learn why →
More Papers Like This
Microplastic migration in porous media at various scales: a review
AI summary Read the abstract
Researchers reviewed how microplastics move through porous media like soil and sediment across multiple spatial scales, finding that particle surface properties and environmental conditions both influence migration but remain poorly understood. Better understanding of this process is critical for assessing how microplastics spread through terrestrial and groundwater environments.
Transport Modeling of Microplastic Particles in Fractured Porous Media
AI summary Read the abstract
Researchers modeled the transport behavior of microplastic particles through fractured porous media such as soil and rock, addressing how poor plastic waste management accelerates microplastic contamination of groundwater and subsurface environments with serious implications for both ecosystems and human health.
Transport of Colloidal Microplastics Through Porous Media
AI summary Read the abstract
Researchers conducted column experiments to study how polystyrene microbeads move through quartz sand media, finding that microplastics are retarded by solid-phase sorption and hypothesizing that transport is most efficient through coarse-grained, well-sorted soils, with implications for predicting microplastic fate in terrestrial environments.
Microplastic and Silica Colloid Transport in a Saturated Porous Medium Under Various Flow Directions: the Effect of Gravity
AI summary Read the abstract
Lab column experiments showed that gravity and flow direction significantly affect how microplastic and silica microspheres are transported and retained in saturated sandy media, with upward flow causing roughly twice the particle deposition compared to downward flow. Understanding these transport dynamics is essential for predicting how microplastics spread through groundwater systems and ultimately reach drinking water sources.
Relevance of Iron Oxyhydroxide and Pore Water Chemistry on the Mobility of Nanoplastic Particles in Water-Saturated Porous Media Environments
AI summary Read the abstract
Laboratory column experiments showed that iron oxyhydroxide surface charge in porous media is a primary control on nanoplastic mobility, with positively charged surfaces trapping negatively charged polystyrene nanoparticles and negatively charged surfaces allowing free transport. Understanding these transport mechanisms in aquifers and sediments is essential for predicting how long nanoplastics persist and where they accumulate in groundwater environments.
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.