We can't find the internet
Attempting to reconnect
Something went wrong!
Hang in there while we get back on track
Boreal Resin–microbe Synergy for Microplastic Remediation
AI summary Read the abstract
Researchers proposed a conceptual bioremediation system pairing Finnish boreal pine resin with plastic-degrading bacteria, using molecular docking simulations to predict that abietic acid binds PET monomers with favorable thermodynamics, hypothesizing that resin-coated biofilters could achieve up to 90% microplastic removal with spent biomass converted to biomethane—pending experimental validation.
ABSTRACT The pervasive infiltration of microplastics (MPs) into Nordic aquatic ecosystems necessitates innovative remediation strategies beyond conventional mechanical filtration. This study presents a conceptual proposal for a biotechnological approach utilizing Finnish boreal resins (Pinus sylvestris) in synergy with a specialized microbial consortium (Ideonella sakaiensis and Pseudomonas putida). In silico molecular docking simulations (AutoDock Vina) were conducted to evaluate the thermodynamic plausibility of the sequestration phase. A computationally predicted peak binding affinity of –4.178 kcal/mol (mean –3.73 ± 0.23 kcal/mol across 20 simulated ligand–receptor pairs, Table 4) was obtained between abietic acid and a PET monomer, indicating a potentially spontaneous and thermodynamically favorable interaction under neutral pH and ambient temperature conditions. This interaction is hypothesized to be driven by hydrophobic π–π stacking and van der Waals forces, potentially enabling stable entrapment under dynamic flow conditions. Subsequent enzymatic mineralization within an isothermal bio-reactor (28.5 °C) is conceptually modeled to achieve accelerated degradation, hypothetically facilitated by the pre-concentration of MPs on a resin-coated bio-matrix. The framework further integrates a circular economy model, where saturated bio-filters could be converted into biomethane (CH₄), offering a theoretical energy recovery potential of 0.35–0.45 m³/kg under modeled conditions. Based on the binding affinity predictions and Michaelis-Menten kinetics adapted for heterogeneous surfaces, the projected lab-scale removal efficiency, pending experimental validation, is estimated to potentially reach 88–90% under simulated conditions (model uncertainty ±5%). All computational predictions require empirical verification through controlled laboratory studies. This conceptual proposal outlines a potentially scalable, carbon‑neutral roadmap for MP remediation, aligning with the EU “Zero Pollution” mandate.
More Papers Like This
Boreal Resin–microbe Synergy for Microplastic Remediation
AI summary Read the abstract
Researchers proposed a conceptual biotechnological framework pairing Finnish boreal pine resin with Ideonella sakaiensis and Pseudomonas putida for microplastic remediation, using in silico molecular docking to predict thermodynamically favorable binding of abietic acid to PET monomers and modeling projected lab-scale removal efficiencies of 88–90%, pending experimental validation.
Boreal Resin-microbe Synergy: a Universal Bio-technological Framework for Microplastic Remediation Across Salinity Gradients
AI summary Read the abstract
This paper proposes a theoretical framework for removing microplastics from water using pine resin from Finnish boreal forests as a natural adhesive to capture plastic particles, followed by microbial digestion to break them down — with the byproduct being biomethane for energy. The concept claims over 94% removal efficiency for PET plastics and positions the approach as carbon-neutral and aligned with EU environmental policy. While the framework is promising in concept, it appears to present a design proposal rather than empirical experimental results.
In silico binding affinity analysis of microplastic compounds on PET hydrolase enzyme target of Ideonella sakaiensis
AI summary Read the abstract
Researchers used computer simulations to test whether a bacterial enzyme (PET hydrolase from Ideonella sakaiensis) could break down six types of plastic, finding it most effective against polycarbonate and polyethylene terephthalate (PET) and least effective against PVC, informing which plastics this microbe might help degrade in the environment.
Combined experimental and molecular dynamics removal processes of contaminant phenol from simulated wastewater by polyethylene terephthalate microplastics
AI summary Read the abstract
Researchers examined how polyethylene terephthalate (PET) microplastics adsorb phenol from wastewater, finding that aged PET had the best removal efficiency while modified PET had the highest maximum adsorption capacity, with molecular dynamics simulations confirming the mechanisms involved.
Boreal Resin-microbe Synergy: a Universal Bio-technological Framework for Microplastic Remediation Across Salinity Gradients
AI summary Read the abstract
This paper is a duplicate of ID 386, presenting the same proposed framework for using Finnish boreal pine resin combined with microbial consortia to capture and biodegrade microplastics in water, with biomethane as an energy byproduct. The concept aims to provide a scalable, carbon-neutral remediation approach validated against industrial and natural Finnish water systems. Both entries describe the same proposal.
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.