Literature DB >> 29788211

Particle Concentrations in Occupational Settings Measured with a Nanoparticle Respiratory Deposition (NRD) Sampler.

Larissa V Stebounova1, Natalia I Gonzalez-Pech2, Jae Hong Park3, T Renee Anthony1, Vicki H Grassian2,4, Thomas M Peters1.   

Abstract

There is an increasing need to evaluate concentrations of nanoparticles in occupational settings due to their potential negative health effects. The Nanoparticle Respiratory Deposition (NRD) personal sampler was developed to collect nanoparticles separately from larger particles in the breathing zone of workers, while simultaneously providing a measure of respirable mass concentration. This study compared concentrations measured with the NRD sampler to those measured with a nano Micro Orifice Uniform-Deposit Impactor (nanoMOUDI) and respirable samplers in three workplaces. The NRD sampler performed well at two out of three locations, where over 90% of metal particles by mass were submicrometer particle size (a heavy vehicle machining and assembly facility and a shooting range). At the heavy vehicle facility, the mean metal mass concentration of particles collected on the diffusion stage of the NRD was 42.5 ± 10.0 µg/m3, within 5% of the nanoMOUDI concentration of 44.4 ± 7.4 µg/m3. At the shooting range, the mass concentration for the diffusion stage of the NRD was 5.9 µg/m3, 28% above the nanoMOUDI concentration of 4.6 µg/m3. In contrast, less favorable results were obtained at an iron foundry, where 95% of metal particles by mass were larger than 1 µm. The accuracy of nanoparticle collection by NRD diffusion stage may have been compromised by high concentrations of coarse particles at the iron foundry, where the NRD collected almost 5-fold more nanoparticle mass compared to the nanoMOUDI on one sampling day and was more than 40% different on other sampling days. The respirable concentrations measured by NRD samplers agreed well with concentrations measured by respirable samplers at all sampling locations. Overall, the NRD sampler accurately measured concentrations of nanoparticles in industrial environments when concentrations of large, coarse mode, particles were low.

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Year:  2018        PMID: 29788211      PMCID: PMC6775226          DOI: 10.1093/annweh/wxy033

Source DB:  PubMed          Journal:  Ann Work Expo Health        ISSN: 2398-7308            Impact factor:   2.179


  16 in total

1.  Workplace exposure to submicron particle mass and number concentrations from manual arc welding of carbon steel.

Authors:  Dale Stephenson; Gauri Seshadri; John M Veranth
Journal:  AIHA J (Fairfax, Va)       Date:  2003 Jul-Aug

2.  A Granular Bed for Use in a Nanoparticle Respiratory Deposition Sampler.

Authors:  Jae Hong Park; Imali A Mudunkotuwa; Levi W D Mines; T Renée Anthony; Vicki H Grassian; Thomas M Peters
Journal:  Aerosol Sci Technol       Date:  2015-02-03       Impact factor: 2.908

3.  A personal nanoparticle respiratory deposition (NRD) sampler.

Authors:  Lorenzo G Cena; T Renée Anthony; Thomas M Peters
Journal:  Environ Sci Technol       Date:  2011-07-13       Impact factor: 9.028

Review 4.  Review of measurement techniques and methods for assessing personal exposure to airborne nanomaterials in workplaces.

Authors:  Christof Asbach; Carla Alexander; Simon Clavaguera; Dirk Dahmann; Hélène Dozol; Bertrand Faure; Martin Fierz; Luca Fontana; Ivo Iavicoli; Heinz Kaminski; Laura MacCalman; Asmus Meyer-Plath; Barbara Simonow; Martie van Tongeren; Ana Maria Todea
Journal:  Sci Total Environ       Date:  2017-04-18       Impact factor: 7.963

5.  Performance of prototype high-flow inhalable dust sampler in a livestock production facility.

Authors:  T Renée Anthony; Changjie Cai; John Mehaffy; Darrah Sleeth; John Volckens
Journal:  J Occup Environ Hyg       Date:  2017-05       Impact factor: 2.155

Review 6.  Occupational and environmental aerosol exposure assessment: a scientific journey from the past, through the present and into the future.

Authors:  James H Vincent
Journal:  J Environ Monit       Date:  2011-11-23

Review 7.  New Methods for Personal Exposure Monitoring for Airborne Particles.

Authors:  Kirsten A Koehler; Thomas M Peters
Journal:  Curr Environ Health Rep       Date:  2015-12

8.  Physicochemical Characterization of Simulated Welding Fume from a Spark Discharge System.

Authors:  Jae Hong Park; Imali A Mudunkotuwa; Jong Sung Kim; Aditya Stanam; Peter S Thorne; Vicki H Grassian; Thomas M Peters
Journal:  Aerosol Sci Technol       Date:  2014-07-01       Impact factor: 2.908

9.  A novel method for assessing respiratory deposition of welding fume nanoparticles.

Authors:  L G Cena; M J Keane; W P Chisholm; S Stone; M Harper; B T Chen
Journal:  J Occup Environ Hyg       Date:  2014       Impact factor: 2.155

Review 10.  Risks from accidental exposures to engineered nanoparticles and neurological health effects: a critical review.

Authors:  Myrtill Simkó; Mats-Olof Mattsson
Journal:  Part Fibre Toxicol       Date:  2010-12-21       Impact factor: 9.400

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  2 in total

1.  Size, composition, morphology, and health implications of airborne incidental metal-containing nanoparticles.

Authors:  Natalia I Gonzalez-Pech; Larissa V Stebounova; Irem B Ustunol; Jae Hong Park; T Renee Anthony; Thomas M Peters; Vicki H Grassian
Journal:  J Occup Environ Hyg       Date:  2019-03-14       Impact factor: 2.155

Review 2.  Recent Advances in Occupational Exposure Assessment of Aerosols.

Authors:  Martin Harper
Journal:  Int J Environ Res Public Health       Date:  2020-09-18       Impact factor: 3.390

  2 in total

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