A Review of Contemporary Techniques for Measuring Ergonomic Wear Comfort of Protective and Sport Clothing

• Autorzy: Teyeme, Yetanawork , Malengier, Benny , Tesfaye, Tamrat , Ciesielska-Wrobel, Izabela , Haji, Musa Atiyyah Binti , Van, Langenhove Lieva
• Języki publikacji: EN

Abstrakty

EN

Protective and sport clothing is governed by protection requirements, performance, and comfort of the user. The comfort and impact performance of protective and sport clothing are typically subjectively measured, and this is a multifactorial and dynamic process. The aim of this review paper is to review the contemporary methodologies and approaches for measuring ergonomic wear comfort, including objective and subjective techniques. Special emphasis is given to the discussion of different methods, such as objective techniques, subjective techniques, and a combination of techniques, as well as a new biomechanical approach called modeling of skin. Literature indicates that there are four main techniques to measure wear comfort: subjective evaluation, objective measurements, a combination of subjective and objective techniques, and computer modeling of human–textile interaction. In objective measurement methods, the repeatability of results is excellent, and quantified results are obtained, but in some cases, such quantified results are quite different from the real perception of human comfort. Studies indicate that subjective analysis of comfort is less reliable than objective analysis because human subjects vary among themselves. Therefore, it can be concluded that a combination of objective and subjective measuring techniques could be the valid approach to model the comfort of textile materials.

Słowa kluczowe

PL

ergonomia; komfort noszenia; odzież ochronna; odzież sportowa; ruch ludzkiego ciała; metody oceny

EN

ergonomic wear comfort; protective clothing; sportswear; human body movement; evaluation methods

• Czasopismo: Autex Research Journal
• Rocznik: 2021
• Tom: Vol. 21, no. 1
• Strony: 32--44
• Opis fizyczny: Bibliogr. 138 poz.

Twórcy

autor

Teyeme, Yetanawork

• Ghent University, Faculty of Engineering and Architecture, Department of Materials, Textiles and Chemical Engineering, Technologiepark 907, 9052 Zwijnaarde, Belgium,
• Bahir Dar University, Ethiopian Institute of Textile and Fashion Technology, Bahir Dar, Ethiopia

autor

Malengier, Benny

• Ghent University, Faculty of Engineering and Architecture, Department of Materials, Textiles and Chemical Engineering, Technologiepark 907, 9052 Zwijnaarde, Belgium

autor

Tesfaye, Tamrat

• Bahir Dar University, Ethiopian Institute of Textile and Fashion Technology, Bahir Dar, Ethiopia

autor

Ciesielska-Wrobel, Izabela

• Ghent University, Faculty of Engineering and Architecture, Department of Materials, Textiles and Chemical Engineering, Technologiepark 907, 9052 Zwijnaarde, Belgium

autor

Haji, Musa Atiyyah Binti

• Ghent University, Faculty of Engineering and Architecture, Department of Materials, Textiles and Chemical Engineering, Technologiepark 907, 9052 Zwijnaarde, Belgium

autor

Van, Langenhove Lieva

• Ghent University, Faculty of Engineering and Architecture, Department of Materials, Textiles and Chemical Engineering, Technologiepark 907, 9052 Zwijnaarde, Belgium

Bibliografia

• [1] Li, Y. (2001). The science of clothing comfort. Textile Progress, 31(1–2), 1–135.
• [2] Das, A., Alagirusamy, R. (2010). Science in clothing comfort. Woodhead Publishing Limited (Cambridge).
• [3] Liu, R., Lao, T. T., Xiao Wang, S. (2013). Technical knitting and ergonomical design of 3D seamless compression hosiery and pressure performances in vivo and in vitro. Fibers and Polymers, 14(8), 1391–1399.
• [4] Velani, N., Wilson, O., Halkon, B. J., Harland, A. R. (2012). Measuring the risk of sustaining injury in sport a novel approach to aid the re-design of personal protective equipment. Applied Ergonomics, 43(5), 883–890.
• [5] Song, G. (2011). Improving comfort in clothing, (1st ed.). Woodhead Publishing Limited (Cambridge).
• [6] Bhatia, D., Malhotra, U. (2016). Thermophysiological wear comfort of clothing: an overview. Journal of Textile Science and Engineering, 6(2), 250.
• [7] Junyan, H.U. (2006). Characterization of sensory comfort of apparel product. Hong Kong Polytechnic University.
• [8] Bartels, V. T. (2006). Physiological comfort of biofunctional textiles. Current Problem in Dermatology, 33, 51–66.
• [9] Senthil Kumar, R. (2012). Textiles in sports and leisure. Asian Textile Journal, 21(9), 44–49.
• [10] Kothari, V. K. (2006). Thermo-physiological comfort characteristics and blended yarn woven fabrics. Indian Journal of Fibre and Textile Research, 31(March), 177–186.
• [11] Pamuk, O. (2008). Clothing comfort properties in textile industry. New World Sciences Academy, 3(1), 1–6.
• [12] Kilinc-Balci, F. S. (2011). Testing, analyzing and predicting the comfort properties of textiles. In: Song, G. (Ed.). Improving comfort in clothing. (1st ed.). Woodhead Publishing Limited (Cambridge), pp. 138–162.
• [13] Gupta, D. (2011). Design and engineering of functional clothing. Indian Journal of Fibre and Textile Research, 36(4), 327–335.
• [14] Goonetilleke, R., Karwowski, W. (2016). Advances in physical ergonomics and human factors. In: International Conference on Physical Ergonomics and Human Factors, Florida, USA, July 27–31, 2016, p. 489.
• [15] Li, Y. I., Wong, A. S. W. (2006). Clothing biosensory engineering. (1st ed.). Woodhead Publishing Limited (Cambridge, England).
• [16] Wang, J., Agarwal, T.-K., Liu, K., Kamalha, E. (2016). Optimization design of cycling clothes’ patterns based on digital clothing pressures. Fibers and Polymers, 17(9), 1522–1529.
• [17] Gupta, D., Zakaria, N. (2014). Anthropometry, apparel sizing and design. (1st ed.). Woodhead Publishing Limited (Cambridge, England).
• [18] Patricia Dolez, V. I., Olivier, V. (2018). Advanced characterization and testing of textiles. Elsevier Ltd. (Cambridge).
• [19] Duffield, R., Cannon, J., King, M. (2010). The effects of compression garments on recovery of muscle performance following high-intensity sprint and plyometric exercise. Journal of Science and Medicine in Sport, 13(1), 136–140.
• [20] Colovic, G. (2014). Ergonomics in the garment industry. (1st ed.). Woodhead Publishing Limited (Cambridge).
• [21] Scataglini, S. (2017). Ergonomics of gesture: effect of body posture and load on human performance.
• [22] Mital, S. K. A., Kilbom, A. (2000). Ergonomics guidelines and problem solving. (1st ed., vol. 1). Elsevier Science Ltd.
• [23] Reilly, T. (2010). Ergonomics in sport and physical activity: enhancing performance and improving safety, no. 9.
• [24] Jin, Z., Chen, D., Yang, Y. (2015). Research of effect of ergonomics on athletic shoes and costume design project. In: International Conference on Education Technology, Management and Humanities Science, 2015, Etmhs, pp. 147–150.
• [25] Moritz, E. F., Haake, S. (2006). The role of engineering in fatigue reduction. The Engineering of Sport 6, 3(January), 1–440.
• [26] Pan, N., Sun, G. (2011). Functional textiles for improved performance, protection and health. Woodhead Publishing Limited (Cambridge, England).
• [27] Kumar, S. (2005). Perspectives in rehabilitation ergonomics. Taylor & Francis (London).
• [28] Vianna, C., Quaresma, M. (2015). Ergonomic issues related to clothing and body changes of the new elderly women. Procedia Manufacturing, 3(Ahfe), 5755–5760.
• [29] Venkatraman, P., Tyler, D. (2016). Applications of compression sportswear. In: Hayes S. G., Venkatraman, P. (Eds.). Materials and technology for sportswear and performance apparel. (1st ed.). Taylor & Francis Group (New York), pp. 171–200.
• [30] Jin, H. (2010). Assessment of men’s tennis clothing: movement and aesthetic analysis. Washington State University.
• [31] Chunyan, Q., Yue, H. U. (2015). Design of outdoor sports monitoring function cycling Jerseys. European Journal of Business and Social Sciences, 4(2), 180–189.
• [32] De Raeve, A., Vasile, S. (2016). Adapted performance sportswear. In: Proceedings of the 7th International Conference on 3D Body Scanning Technol. Lugano, Switzerland, 30 Nov.–1 Dec. 2016, pp. 9–15.
• [33] Hassan, M., Qashqary, K., Hassan, H. A., Shady, E., Alansary, M. (2012). Influence of sportswear fabric properties on the health and performance of athletes. Fibres and Textiles in Eastern Europe, 4(93), 82–88.
• [34] Bringard, A., Perrey, S., Belluye, N. (2006). Aerobic energy cost and sensation responses during submaximal running exercise - Positive effects of wearing compression tights. International Journal of Sports Medicine, 27(5), 373–378.
• [35] Hu, J. (2016). Active coatings for smart textiles. Elsevier Ltd (Cambridge).
• [36] Shishoo, R. (2005). Textiles in sport. Elsevier Ltd (Cambridge, England).
• [37] Wang, P., McLaren, J., Leong, K. F., and Des Ouches, P. J. (2013). A pilot study: Evaluations of compression garment performance via muscle activation tests. Procedia Engineering, 60(65), 361–366.
• [38] Holschuh, B., Obropta, E., Buechley, L., Newman, D. (2012). Materials and Textile architecture analyses for mechanical counter-pressure space suits using active materials. In: AIAA Space 2012 Conference & Exposition, p. 18.
• [39] Peiyuan, Z. (2013). Biofunctional engineering of seamless sportswear. The Hong Kong Polytechnic University.
• [40] Geršak, J. (2014). Wearing comfort using body motion analysis. Woodhead Publishing Limited.
• [41] Ashdown, S. P. (2011). Improving body movement comfort in apparel. In: Song, G. (Ed.). Improving comfort in clothing. (1st ed.). Woodhead Publishing Limited (Cambridge), pp. 278–302.
• [42] Bishop, P. A. (2014). Ergonomics and comfort in protective and sport clothing: a brief review. Journal of Ergonomics, S2(2).
• [43] Chung, G. S., Lee, D. H. (2005). A study on comfort of protective clothing for firefighters. Environmental Ergonomics, 3, 375–378.
• [44] Konarska, M., Sołtynski, K., Sudoł-Szopińska, I., Chojnacka, A. (2007). Comparative evaluation of clothing thermal insulation measured in a thermal manikin and on volunteers. Fibres and Textiles in Eastern Europe, 15(2), 73–79.
• [45] Madeleine, P. (2010). On functional motor adaptations: From the quantification of motor strategies to the prevention of musculoskeletal disorders in the neck-shoulder region. Acta Physiologica, 199(Suppl. 679), 1–46.
• [46] Williams, W. J., Roberge, R. J., Kim, J.-H., Coca, A. (2011). Subjective perceptions and ergonomics evaluation of a liquid cooled garment worn under protective ensemble during an intermittent treadmill exercise. Ergonomics, 54(7), 626–635.
• [47] Mattila, H. R. (2006). Intelligent textiles and clothing. Woodhead Publishing Limited & & CRC Press LLC (Cambridge, England).
• [48] Madeleine, P., Samani, A., de Zee, M., Kersting, U. (2011). Biomechanical assessments in sports and ergonomics. Theoretical Biomechanics.
• [49] O’Brien, C., Blanchard, L. A., Cadarette, B. S., Endrusick, T. L., Xu, X, et al. (2011). Methods of evaluating protective clothing relative to heat and cold stress: Thermal manikin, biomedical modeling, and human testing. Journal of Occupational and Environmental Hygiene, 8(10), 588–599.
• [50] Havenith, G., Holmér, I., Parsons, K. (2002). Personal factors in thermal comfort assessment: Clothing properties and metabolic heat production. Energy Building, 34(6), 581–591.
• [51] Wang, F. (2014). Clothing evaporative resistance : its measurements and application in prediction of heat strain. Department of Design Sciences, Lund University (Sweden).
• [52] Bartels, V. T. (2011). Improving comfort in sports and leisure wear, no. 2007. Elsevier Masson SAS.
• [53] Korff, R. (2002). Ergonomic garments.
• [54] Ozdil, N., Anand, S. (2014). Recent developments in textile materials and products used for activewear and sportwear. Electronic Journal of Textile Technology, 8(3), 68–83.
• [55] Lovell, D. G., Mason, D. I., Delphinus, E. M., Mclellan, A. C. P. (2011). Do compression garments enhance the active recovery process after high-intensity running? The Journal of Strength and Conditioning Research, 25(12), 3264–3268.
• [56] Dorman, L. E., Havenith, G. (2007). Examining the impact of protective clothing on range of movement. Loughborough University (Loughborough).
• [57] Dorman, L., Havenith, G. (2007). The effects of protective clothing and its properties on energy consumption during different activities - literature review. European Journal of Applied Physiology, 105, 463–470.
• [58] Liu, R., Little, T. (2009). The 5Ps model to optimize compression athletic wear comfort in sports. Journal of Fiber Bioengineering Informatics, 2(1), 41–52.
• [59] Hes, L. (2008). Non-destructive determination of comfort parameters during marketing of functional garments and clothing. Indian Journal of Fibre and Textile Research, 33(3), 239–245.
• [60] Ibrahim, F., Usman, J., Yazed, M., Norhamizan, A. (2018). 2nd International Conference for Innovation in Biomedical Engineering and Life Sciences. In: 2nd International Conference for Innovation in Biomedical Engineering and Life Sciences, 2018, vol. 67, pp. 10–13.
• [61] Wang, Y., Wu, D., Zhao, M., Li, J. (2014). Evaluation on an ergonomic design of functional clothing for wheelchair users. Applied Ergonomics, 45(3), 550–555.
• [62] Black, S., Kapsali, V., Bougourd, J., Geesin, F. (2005). Fashion and function - factors affecting the design and use of protective clothing. Textiles for Protection, Woodhead Publishing (Cambridge), pp. 60–89.
• [63] Nasir, S., Troynikov, O., Quintero Rodriguez, C. (2018). Body mapping as a method for design and engineering of functional clothing. In: Textile Bioengineering and Informatics Symposium Proceedings, 2018, pp. 364–369.
• [64] Arpinar-Avsar, P., Birlik, G., Sezgin, Ö. C., Soylu, A. R. (2013). The effects of surface-induced loads on forearm muscle activity during steering a bicycle. Journal of Sports Science and Medicine, 12, 512–520.
• [65] Belbasis, A., Fuss, F. K. (2015). Development of next-generation compression apparel. Procedia Technology, 20(July), 85–90.
• [66] Slater, K. (1977). Comfort properties of textiles. Textile Progress, 9(4), 1–71.
• [67] Cao, M., Li, Y., Guo, Y., Yao, L., Pan, Z. (2016). Customized Body mapping to facilitate the ergonomic design of sportswear. IEEE Computer Graphics and Applications, 36(6), 70–77.
• [68] Bassett, R. J., Postle, R., Pan, N. (1999). Experimental methods for measuring fabric mechanical properties: a review and analysis. Textile Research Journal, 69(11), 866–875.
• [69] Dadi, H. H. (2010). Literature over view of smart textiles. University of Borås (Sweden).
• [70] Bedek, G., Salaün, F., Martinkovska, Z., Devaux, E., Dupont, D. (2011). Evaluation of thermal and moisture management properties on knitted fabrics and comparison with a physiological model in warm conditions. Applied Ergonomics, 42(6), 792–800.
• [71] Onofrei, E., Rocha, A. M., Catarino, A. (2012). Investigating the effect of moisture on the thermal comfort properties of functional elastic fabrics. Journal of Industrial Textiles, 42(1), 34–51.
• [72] Huck, J., Maganga, O., Kim, Y. (2007). Protective overalls: evaluation garment design and fit. International Journal of Clothing Science and Technology, 9(1), 45–61.
• [73] Bye, E., Labat, K. (2005). An analysis of apparel industry fit sessions. Journal of Textile and Apparel, Technology and Management, 4(3), 1–5.
• [74] Harrison, D., Fan, Y., Larionov, E., Pai, D. K. (2018). Fitting close-to-body garments with 3D soft body avatars VitalFit. In: 9th International Conference and Exhibition on 3D Body Scanning and Processing Technologies, 2018, pp. 184–189.
• [75] Sadat, A., Sayem, M., Bednall, A. (2017). A novel approach to fit analysis of virtual fashion clothing. In: 19th edition of the International Foundation of Fashion Technology Institutes Conference (IFFTI 2017), 28 March 2017 – 30 March 2017, The Amsterdam Fashion Institute (AMFI), Amsterdam, pp. 1–28.
• [76] Fecht, B., Bennett, D. (1992). Robotic mannequin technology for enhanced product testing. In: McBriarty, J., Henry, N. (Eds.). Performance of protective clothing: Fourth Volume, ASTM International (West Conshohocken, PA), 1992, pp. 734–741.
• [77] Adams, P. S., Keyserling, W. M. (1993). Three methods for measuring range of motion while wearing protective clothing: A comparative study. International Journal of Industrial Ergonomics, 12(3), 177–191.
• [78] Fan, J., Chan, A. P. (2005). Prediction of girdle’s pressure on human body from the pressure measurement on a dummy. International Journal of Clothing Science and Technology, 17(1), 6–12.
• [79] Mattmann, C. (2008). Body posture detection using strain sensitive clothing.
• [80] Eston, R., Reilly, T. (2009). Kinanthropometry and exercise physiology lab manual volume one : anthropometry. Taylor & Francis (London).
• [81] Sadeghi, R., Mosallanezhad, Z., Nodehi-Moghadam, A., Nourbakhsh, M. R., Biglarian, A., et al. (2015). The reliability of bubble inclinometer and tape measure in determining lumbar spine range of motion in healthy individuals and patients. Physical Treatment Journal, 5(3), 137–144.
• [82] Barker, R. I., Deaton, A.S., Liston, G. (2009). Human factors performance of a prototype firefighter suit with deployable features. In: Presented at 13th international conference on environmental ergonomics, Boston, MA August 2–7.
• [83] Ciesielska-wróbel, I., Denhartog, E., and Barker, R. (2017). Measuring the effects of structural turnout suits on firefighter range of motion and comfort. Ergonomics, 60(7), 997–1007.
• [84] Lockhart, J. M., Bensel, C. K. (1977). The effects of layers of cold weather clothing and type of liner on the psychomotor performance of men. Technical Report NATICK/TR-77/018. US Army Natick Research and Development Command (Natick, MA).
• [85] Huck, J. (1988). Protective clothing systems: a technique for evaluating restriction. Applied Ergonomics, 19(3), 185–190.
• [86] Li, Y. (2011). Computer aided clothing ergonomic design for thermal comfort. Sigurnost, 53(1), 29–41.
• [87] Gidik, H., Ducept, S., Marolleau, A., Salaün, F., Dupont, D. (2017). Influence of textile physical properties and thermohydric behaviour on comfort. Journal of Ergonomics, 7(6), 2–9.
• [88] Taylor, P., Holmér, I., Elnäs, S. (2007). Physiological evaluation of the resistance to evaporative heat transfer by clothing. no. February 2015, pp. 37–41.
• [89] Taylor, P., Havenith, G., Heus, R., Lotens, W. A. (2007). Resultant clothing insulation : a function of body movement, posture, wind, clothing fit and ensemble thickness. no. December 2014, pp. 37–41.
• [90] Taylor, P., Bernard, T., Ashley, C., Trentacosta, J., Kapur, V., et al. (2010). Critical heat stress evaluation of clothing ensembles with different levels of porosity. Ergonomics, 53(8), 1048–1058.
• [91] Mohamad, G. A. (2015). The role of tests and manikin in defining fabrics thermal characteristics. International Des. Journal, 5(3), 995–1001.
• [92] Fonseca, G. F. (2015). Dry heat transfer properties of clothing in wind. Textile Research Journal, 45(1), 30–34.
• [93] Holmér, I. (2004). Thermal manikin history and applications. European Journal of Applied Physiology, 92(6), 614–618.
• [94] Holmér, I. (2000). Thermal manikins in research and standards. National Institute for Working Life (Sweden).
• [95] Fan, J., Chen, Y. S., Zhang, W. (2005). Clothing thermal insulation when sweating and when non-sweating. Elsevier Ergonomics Book Series, 3(C), 437–443.
• [96] McCullough, E. A. (2005). The use of thermal manikins to evaluate clothing and environmental factors. Elsevier Ergonomics Book Series, 3(C), 403–407.
• [97] Yarborough, P., Nelson, C. (2005). Performance of protective clothing: global needs and emerging markets: 8th symposium. ASTM International.
• [98] Jie, Y., Wenguo, W., Ming, F. U. (2014). Coupling of a thermal sweating manikin and a thermal model for simulating human thermal response. Procedia Engineering, 84, 893–897.
• [99] Fukazawa, T., Lee, Æ. G., and Matsuoka, Æ. T. (2004). Heat and water vapour transfer of protective clothing systems in a cold environment, measured with a newly developed sweating thermal manikin. European Journal of Applied Physiology, 92(6), 645–648.
• [100] Nayak, R., Padhye, R. (2017). Manikins for textile evaluation. Elsevier Ltd (Cambridge).
• [101] Oliveira, A. V. M., Gaspar, A. R., Quintela, D. A. (2011). Dynamic clothing insulation. Measurements with a thermal manikin operating under the thermal comfort regulation mode. Applied Ergonomics, 42(6), 890–899.
• [102] Kaplan, S., Okur, A. (2009). Subjective evaluation methods and physiological measurements used to determine clothing thermal comfort. In: 2009 14th National Biomedical Engineering Meeting, Balcova, Izmir, Turkey, 20–22 May 2009, pp. 1–5.
• [103] Li, Y. (2011). The science of clothing comfort. Textile Progress, 31(1–2), 1–35.
• [104] Wang, F., Del Ferraro, S., Molinaro, V., Morrissey, M., Rossi, R. (2014). Assessment of body mapping sportswear using a manikin operated in constant temperature mode and thermoregulatory model control mode. International Journal of Biometeorology, 58(7), 1673–1682.
• [105] Kaplan, S., Okur, A. (2012). Thermal comfort performance of sports garments with objective and subjective measurements. Indian Journal of Fibre and Textile Research, 37(1), 46–54.
• [106] Karlsson, I. C. M., Rosenblad, E. F. S. (1998). Evaluating functional clothing in climatic chamber tests versus field tests: A comparison of quantitative and qualitative methods in product development. Ergonomics, 41(10), 1399–1420.
• [107] Kaplan, S., Okur, A. (2007). The meaning and importance of clothing comfort. Journal of Sensory Studies, 23(232), 688–706.
• [108] Li, M., Li, D. P., Zhang, W. Y., Tang, X. Z. (2009). A multiple regression model for predicting comfort sensation of knitted fabric in sports condition based on objective properties. In: 2009 2nd International Conference on Information and Computing Science ICIC 2009, vol. 3, pp. 372–375.
• [109] Wu, H. Y., Li, J., Zhang, W. Y. (2009). Study on improving the thermal-wet comfort of clothing during exercise with an assembly of fabrics. Fibres and Textiles in Eastern Europe, 17(4), 46–51.
• [110] Ho, S. S., Yu, W., Lao, T. T., Chow, D. H. K., Chung, J. W., et al. (2008). Comfort evaluation of maternity support garments in a wear trial. Ergonomics, 51(9), 1376–1393.
• [111] Wang, Y., Cui, Y., Zhang, P., Feng, X., Shen, J., et al. (2011). A smart mannequin system for the pressure performance evaluation of compression garments. Textile Research Journal, 81(11), 1113–1123.
• [112] Gill, S. (2016). Body scanning and its influence on garment development. In: Hayes. S. G., Venkatraman, P. (Eds.). Materials & technology for sportswear and performance apparel. Taylor & Francis Group (New York). pp. 325–340.
• [113] Al Khaburi, J., Dehghani-sanij, A. A., Nelson, E. A., Hutchinson, J. (2014). Measurement of interface pressure applied by medical compression bandages. August 2011.
• [114] Harlock, S. C., Ng, S. P., Yu, W., Fan, J. (2006). Innovation and technology of women’s intimate apparel. Woodhead Publishing Limited (Cambridge, England).
• [115] Anttonen, H., Niskanen, J., Meinander, H., Bartels, V., Kuklane, K., et al., (2004). Thermal manikin measurements -- exact or not? International Journal of Occupational Safety and Ergonomics, 10(3), 291–300.
• [116] Sardjono, C. T., et al., Review on the value of graduated elastic compression stockings after deep vein thrombosis. Thrombosis and Haemostasis, 96(6), 756–766.
• [117] Rothmaier, M., Clemens, F. (2008). Textile pressure sensor made of flexible plastic optical fibers. EMPA Act., no. 2008–2009, p. 55.
• [118] Wang, Y., Zhang, P., Feng, X., Yao, Y. (2010). New method for investigating the dynamic pressure behavior of compression garment. International Journal of Clothing Science and Technology, 22(5), 374–383.
• [119] Nakahashi, M., Morooka, H., Nakamura, N., Yamamoto, C., Morooka, H. (2005). An analysis of waist-nipper factors that affect subjective feeling and physiological response-for the design of comfortable women’s foundation garments. Fiber, 61(1), 6–12.
• [120] Allsop, C. A. (2012). An evaluation of base layer compression garments for sportswear. Manchester Metropolitan University.
• [121] Falcão, T. A. C. (2017). Advances in human factors in wearable technologies and game design. In: International Conference on Advances in Human Factors and Wearable Technologies, 2017, p. 276.
• [122] Khodasevych, I., Troynikov, O., Parmar, S. (2017). Evaluation of flexible force sensors for pressure monitoring in treatment of chronic venous disorders. Photonic Sensors, 1(17), 1–18.
• [123] Tekscan. (2003). Tekscan Pressure Measurement System. South Boston.
• [124] Venkatraman, P. D., Tyler, D. J. (2013). Performance of compression garments for cyclists. In: The textile institute’s international conference on advances in functional textiles, 2013, pp. 1–32.
• [125] Electronica, M. (2014). PicoPress Technical manual Rev. 6. Italy, 2014, pp. 1–11.
• [126] Sioson, E., Alexander, J. J., Mentari, A., Heitz, R., Mion, L. (1992). Effect of elastic compression stockings on venous hemodynamics in hemiplegic patients. Journal of Stroke and Cerebrovascular Diseases, 2(4), 196–201.
• [127] Duffield, R., Portus, M. (2007). Comparison of three types of full-body compression garments on throwing and repeat-sprint performance in cricket players. British Journal of Sports Medicine, 41(7), 409–414.
• [128] Yeung, K. W., Li, Y., Zhang, X. (2004). A 3D biomechanical human model for numerical simulation of garment-body dynamic mechanical interactions during wear. Journal of the Textile Institute Part 1 Fibre Science and Textile Technology, 95(1–6), 59–79.
• [129] Nilsson, H. O., Holmer, I. (2003). Comfort climate evaluation with thermal manikin methods and computer simulation models. Indoor Air, 13(1), 28–37.
• [130] Tang, K. P. M., Kan, C. W., Fan, J. T. (2014). Evaluation of water absorption and transport property of fabrics. Textile Progress, 46(1), 1–132.
• [131] Rossi, M., Niedermann, R. (2012). Objective and subjective evaluation of the human thermal sensation of wet fabrics. Textile Research Journal, 82(4), 374–384.
• [132] Yu, W. (2004). Objective evaluation of clothing fit. In: Fan, J., Yu, W. W.-M., Yu, W., Hunter, L. (Eds.), Clothing appearance and fit: science and technology, Woodhead Publishing Limited (Cambridge), pp. 72–88.
• [133] Konstantinos, S. (2015). Assessment methods for comfort of consumer products at early stages of the development process. DTU Management Engineering.
• [134] Li, Y., Dai, X.-Q. (2006). Textile biomechanical engineering. In: Li, Y., Dai, X. Q. (Eds.). Biomechanical engineering of textiles and clothing. (1st ed.). Woodhead Publishing Limited & CRC Press LLC (Cambridge, England), pp. 1–16.
• [135] Kanakaraj, P., Ramachandran, R. (2015). Active knit fabrics - functional needs of sportswear application. Journal of Textile and Apparel, Technology and Management, 9(2), 1–11.
• [136] Schmidt, A., Paul, R., Classen, E., Morlock, S., Beringer, J. (2016). Comfort testing and fit analysis of military textiles. In: Wang, L. (Ed.). Performance Testing of Textiles: Methods, Technology and Applications. (1st ed.). Elsevier Ltd (Cambridge), pp. 25–37.
• [137] Lim, J., Choi, H., Roh, E. K., Yoo, H., Kim, E. (2015). Assessment of airflow and microclimate for the running wear jacket with slits using CFD simulation. Fashion and Textiles, 2(1), 1–13.
• [138] Naumann, A., Roetting, M. (2007). Digital human modeling for design and evaluation of human-machine systems. MMI-Interaktiv, 12, pp. 27–35.

Uwagi

Opracowanie rekordu ze środków MNiSW, umowa Nr 461252 w ramach programu "Społeczna odpowiedzialność nauki" - moduł: Popularyzacja nauki i promocja sportu (2021).

Identyfikatory

DOI

10.2478/aut-2019-0076