Literature DB >> 22455389

Localised boundary air layer and clothing evaporative resistances for individual body segments.

Faming Wang1, Simona del Ferraro, Li-Yen Lin, Tiago Sotto Mayor, Vincenzo Molinaro, Miguel Ribeiro, Chuansi Gao, Kalev Kuklane, Ingvar Holmér.   

Abstract

Evaporative resistance is an important parameter to characterise clothing thermal comfort. However, previous work has focused mainly on either total static or dynamic evaporative resistance. There is a lack of investigation of localised clothing evaporative resistance. The objective of this study was to study localised evaporative resistance using sweating thermal manikins. The individual and interaction effects of air and body movements on localised resultant evaporative resistance were examined in a strict protocol. The boundary air layer's localised evaporative resistance was investigated on nude sweating manikins at three different air velocity levels (0.18, 0.48 and 0.78 m/s) and three different walking speeds (0, 0.96 and 1.17 m/s). Similarly, localised clothing evaporative resistance was measured on sweating manikins at three different air velocities (0.13, 0.48 and 0.70 m/s) and three walking speeds (0, 0.96 and 1.17 m/s). Results showed that the wind speed has distinct effects on local body segments. In contrast, walking speed brought much more effect on the limbs, such as thigh and forearm, than on body torso, such as back and waist. In addition, the combined effect of body and air movement on localised evaporative resistance demonstrated that the walking effect has more influence on the extremities than on the torso. Therefore, localised evaporative resistance values should be provided when reporting test results in order to clearly describe clothing local moisture transfer characteristics. PRACTITIONER
SUMMARY: Localised boundary air layer and clothing evaporative resistances are essential data for clothing design and assessment of thermal comfort. A comprehensive understanding of the effects of air and body movement on localised evaporative resistance is also necessary by both textile and apparel researchers and industry.

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Year:  2012        PMID: 22455389     DOI: 10.1080/00140139.2012.668948

Source DB:  PubMed          Journal:  Ergonomics        ISSN: 0014-0139            Impact factor:   2.778


  9 in total

1.  Reply to comments on papers by Lu et al.

Authors:  Faming Wang; Yehu Lu
Journal:  Int J Biometeorol       Date:  2015-11-06       Impact factor: 3.787

2.  Effect of two sweating simulation methods on clothing evaporative resistance in a so-called isothermal condition.

Authors:  Yehu Lu; Faming Wang; Hui Peng
Journal:  Int J Biometeorol       Date:  2015-11-05       Impact factor: 3.787

3.  Assessment of body mapping sportswear using a manikin operated in constant temperature mode and thermoregulatory model control mode.

Authors:  Faming Wang; Simona Del Ferraro; Vincenzo Molinaro; Matthew Morrissey; René Rossi
Journal:  Int J Biometeorol       Date:  2013-12-20       Impact factor: 3.787

4.  Advanced modelling of the transport phenomena across horizontal clothing microclimates with natural convection.

Authors:  T S Mayor; S Couto; A Psikuta; R M Rossi
Journal:  Int J Biometeorol       Date:  2015-05-21       Impact factor: 3.787

5.  Clothing resultant thermal insulation determined on a movable thermal manikin. Part II: effects of wind and body movement on local insulation.

Authors:  Yehu Lu; Faming Wang; Xianfu Wan; Guowen Song; Chengjiao Zhang; Wen Shi
Journal:  Int J Biometeorol       Date:  2015-01-21       Impact factor: 3.787

6.  Garment size effect of thermal protective clothing on global and local evaporative cooling of walking manikin in a hot environment.

Authors:  Manhao Guan; Jun Li
Journal:  Int J Biometeorol       Date:  2020-02-03       Impact factor: 3.787

7.  Heat Safety in the Workplace: Modified Delphi Consensus to Establish Strategies and Resources to Protect the US Workers.

Authors:  Margaret C Morrissey; Douglas J Casa; Gabrielle J Brewer; William M Adams; Yuri Hosokawa; Courteney L Benjamin; Andrew J Grundstein; David Hostler; Brendon P McDermott; Meredith L McQuerry; Rebecca L Stearns; Erica M Filep; David W DeGroot; Juley Fulcher; Andreas D Flouris; Robert A Huggins; Brenda L Jacklitsch; John F Jardine; Rebecca M Lopez; Ronda B McCarthy; Yannis Pitisladis; Riana R Pryor; Zachary J Schlader; Caroline J Smith; Denise L Smith; June T Spector; Jennifer K Vanos; W Jon Williams; Nicole T Vargas; Susan W Yeargin
Journal:  Geohealth       Date:  2021-08-01

Review 8.  Measurements of clothing evaporative resistance using a sweating thermal manikin: an overview.

Authors:  Faming Wang
Journal:  Ind Health       Date:  2017-06-01       Impact factor: 2.179

9.  Comparison of correction factor for both dynamic total thermal insulation and evaporative resistance between ISO 7933 and ISO 9920.

Authors:  Satoru Ueno
Journal:  J Physiol Anthropol       Date:  2020-08-24       Impact factor: 2.867

  9 in total

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