FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W3163848029> ?p ?o ?g. }

• W3163848029 endingPage "100066" @default.
• W3163848029 startingPage "100066" @default.
• W3163848029 abstract "Microplastics (MPs) are man-made polymer particles in the size range 1 μm to 5 mm. They have been proven to be present in all of Earth's environments through extensive global studies. Such studies regularly involve the isolation of MPs from water or other media using a filtration method. MPs are then commonly analysed for size and polymer type, either in situ on the filter or after removal from it by hand picking. These approaches provide the opportunity for the accidental loss of such particles and do nothing to protect the sample from contamination, whilst hand-picking from filter papers is also time consuming. The analysis frequently focusses solely on one technique and rarely facilitates the full characterisation of the MPs. This paper sets out a workflow that addresses these shortcomings. Tape lifting (a forensic approach to particulate recovery) is at the heart of this workflow. This technique uses self-adhesive tape to recover particles of interest and results in a tape lift in which those particles are held between the tape and a sheet of suitable material. In the proposed workflow, the tape is EasyliftⓇ and the sheet is glass. Tape lifting offers significant time saving in the field, allowing more samples to be taken. It also creates a secure environment for the particles of interest and facilitates reproducible research by preserving samples for future study. To investigate the recovery rate of MPs from filter papers using EasyliftⓇ, a simulation experiment was conducted, which tested glass fibre and cellulose fibre filter papers and ceramic and glass-frit Büchner funnels. It found that the rate of recovery of MPs from filters onto the tape had a mean of 96.4% (sn-1 = 3.5 percentage points, n = 12) with evidence that both filter type and funnel type effect that rate and that there is an interaction effect between these factors. In addition, the recovery rate from water onto the filter papers was investigated; this had a mean of 92.1% (sn-1 = 4.1 percentage points, n = 12) with no evidence that the filter type or funnel type used influenced that rate. This paper also explores EasyliftⓇ’s attributes that facilitate the proposed workflow by enabling analysis of MPs whilst they are held within the tape lift. EasyliftⓇ is compatible with a wide range of non-destructive analytical techniques including polarized light microscopy (PLM), confocal Raman spectroscopy, fluorescence microscopy, microspectrophotometry (MSP) and hyperspectral microscopy, and this compatibility is explored in this paper. The compatibility with these techniques allows samples to be fully characterised for their morphological, optical and chemical properties, providing further information about the samples that can aid future studies that investigate source identification and the detection of MP features that may affect ecotoxicological effects." @default.
• W3163848029 created "2021-05-24" @default.
• W3163848029 creator A5045550469 @default.
• W3163848029 creator A5052792851 @default.
• W3163848029 creator A5063495033 @default.
• W3163848029 date "2021-10-01" @default.
• W3163848029 modified "2023-09-30" @default.
• W3163848029 title "The application of tape lifting for microplastic pollution monitoring" @default.
• W3163848029 cites W1969562186 @default.
• W3163848029 cites W1973190230 @default.
• W3163848029 cites W1979000410 @default.
• W3163848029 cites W1982874857 @default.
• W3163848029 cites W2003022112 @default.
• W3163848029 cites W2035596232 @default.
• W3163848029 cites W2130707940 @default.
• W3163848029 cites W2286955579 @default.
• W3163848029 cites W2336039464 @default.
• W3163848029 cites W2528880514 @default.
• W3163848029 cites W2572128147 @default.
• W3163848029 cites W2737956970 @default.
• W3163848029 cites W2752665592 @default.
• W3163848029 cites W2765421460 @default.
• W3163848029 cites W2788529855 @default.
• W3163848029 cites W2801680854 @default.
• W3163848029 cites W2805849778 @default.
• W3163848029 cites W2899577242 @default.
• W3163848029 cites W2901309204 @default.
• W3163848029 cites W2905928170 @default.
• W3163848029 cites W2906202491 @default.
• W3163848029 cites W2916731373 @default.
• W3163848029 cites W2936815140 @default.
• W3163848029 cites W2952839204 @default.
• W3163848029 cites W2966967676 @default.
• W3163848029 cites W2966973695 @default.
• W3163848029 cites W2969762450 @default.
• W3163848029 cites W2981225770 @default.
• W3163848029 cites W2994100063 @default.
• W3163848029 cites W2996702059 @default.
• W3163848029 cites W2998882991 @default.
• W3163848029 cites W3011377807 @default.
• W3163848029 cites W3037405028 @default.
• W3163848029 cites W3041698232 @default.
• W3163848029 cites W3110528245 @default.
• W3163848029 cites W344380070 @default.
• W3163848029 cites W350919643 @default.
• W3163848029 cites W620844195 @default.
• W3163848029 cites W895693816 @default.
• W3163848029 doi "https://doi.org/10.1016/j.envadv.2021.100066" @default.
• W3163848029 hasPublicationYear "2021" @default.
• W3163848029 type Work @default.
• W3163848029 sameAs 3163848029 @default.
• W3163848029 citedByCount "11" @default.
• W3163848029 countsByYear W31638480292021 @default.
• W3163848029 countsByYear W31638480292022 @default.
• W3163848029 countsByYear W31638480292023 @default.
• W3163848029 crossrefType "journal-article" @default.
• W3163848029 hasAuthorship W3163848029A5045550469 @default.
• W3163848029 hasAuthorship W3163848029A5052792851 @default.
• W3163848029 hasAuthorship W3163848029A5063495033 @default.
• W3163848029 hasBestOaLocation W31638480291 @default.
• W3163848029 hasConcept C105795698 @default.
• W3163848029 hasConcept C106131492 @default.
• W3163848029 hasConcept C111368507 @default.
• W3163848029 hasConcept C127313418 @default.
• W3163848029 hasConcept C127413603 @default.
• W3163848029 hasConcept C128489963 @default.
• W3163848029 hasConcept C192562407 @default.
• W3163848029 hasConcept C21880701 @default.
• W3163848029 hasConcept C2776140076 @default.
• W3163848029 hasConcept C2780401329 @default.
• W3163848029 hasConcept C2780415423 @default.
• W3163848029 hasConcept C31972630 @default.
• W3163848029 hasConcept C33923547 @default.
• W3163848029 hasConcept C39432304 @default.
• W3163848029 hasConcept C41008148 @default.
• W3163848029 hasConcept C76155785 @default.
• W3163848029 hasConceptScore W3163848029C105795698 @default.
• W3163848029 hasConceptScore W3163848029C106131492 @default.
• W3163848029 hasConceptScore W3163848029C111368507 @default.
• W3163848029 hasConceptScore W3163848029C127313418 @default.
• W3163848029 hasConceptScore W3163848029C127413603 @default.
• W3163848029 hasConceptScore W3163848029C128489963 @default.
• W3163848029 hasConceptScore W3163848029C192562407 @default.
• W3163848029 hasConceptScore W3163848029C21880701 @default.
• W3163848029 hasConceptScore W3163848029C2776140076 @default.
• W3163848029 hasConceptScore W3163848029C2780401329 @default.
• W3163848029 hasConceptScore W3163848029C2780415423 @default.
• W3163848029 hasConceptScore W3163848029C31972630 @default.
• W3163848029 hasConceptScore W3163848029C33923547 @default.
• W3163848029 hasConceptScore W3163848029C39432304 @default.
• W3163848029 hasConceptScore W3163848029C41008148 @default.
• W3163848029 hasConceptScore W3163848029C76155785 @default.
• W3163848029 hasFunder F4320309024 @default.
• W3163848029 hasFunder F4320311705 @default.
• W3163848029 hasLocation W31638480291 @default.
• W3163848029 hasLocation W31638480292 @default.
• W3163848029 hasLocation W31638480293 @default.
• W3163848029 hasOpenAccess W3163848029 @default.

• next