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10.21873/invivo.11955

http://scihub22266oqcxt.onion/10.21873/invivo.11955
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32503823!8378030!32503823
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suck abstract from ncbi

pmid32503823      In+Vivo 2020 ; 34 (3 Suppl): 1637-1644
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  • A New Method for Testing Filtration Efficiency of Mask Materials Under Sneeze-like Pressure #MMPMID32503823
  • Xiao LI; Sakagami H; Miwa N
  • In Vivo 2020[Jun]; 34 (3 Suppl): 1637-1644 PMID32503823show ga
  • BACKGROUND: Sneezes produce many pathogen-containing micro-droplets with high velocities of 4.5-50.0 m/s. Face masks are believed to protect people from infection by blocking those droplets. However, current filtration efficiency tests can't evaluate masks under sneeze-like pressure. The goal of this study was to establish a method to evaluate the filtration efficiency of mask materials under extreme conditions. MATERIALS AND METHODS: Efficiency of surgical masks, gauze masks, gauze, cotton, silk, linen and tissue paper on blocking micro-droplet sized starch particles (average 8.2 mum) and latex microspheres (0.75 mum) with a velocity of 44.4 m/s created by centrifugation was qualitatively analyzed by using imaging-based analysis. RESULTS: The 4 layers of silk could block 93.8% of microspheres and 88.9% of starch particles, followed by the gauze mask (78.5% of microspheres and 90.4% of starch particles) and the 2 layers of cotton (74.6% of microspheres and 87.5-89.0% of particles). Other materials also blocked 53.2-66.5% of microspheres and 76.4%-87.9% of particles except the 8 layers of gauze which only blocked 36.7% of particles. The filtration efficiency was improved by the increased layers of materials. CONCLUSION: Centrifugation-based filtration efficiency test not only compensates shortcomings of current tests for masks, but also offers a simple way to explore new mask materials during pandemics. Common mask materials can potentially provide protection against respiratory droplet transmission.
  • |*Masks[MESH]
  • |*Sneezing[MESH]
  • |Centrifugation/*methods[MESH]
  • |Filtration[MESH]
  • |Humans[MESH]
  • |Hydrophobic and Hydrophilic Interactions[MESH]
  • |Infection Control/*instrumentation[MESH]
  • |Materials Testing/*methods[MESH]
  • |Microspheres[MESH]
  • |Paper[MESH]
  • |Particle Size[MESH]
  • |Particulate Matter[MESH]
  • |Pressure[MESH]
  • |Static Electricity[MESH]


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