Silk fabric wrinkles or creases easily during conventional domestic machine laundering due to its poor wet resilience, leading to an undesirable fabric appearance and difficulties in daily care. In this research, ultrasonic energy was used to clean silk fabrics, aiming to improve their after-wash appearance. It was found that ultrasonic laundering performed much better in removing common stains from silk fabrics and in maintaining the fabric appearance and dimensions compared to machine laundering. Ultrasonic agitation caused a little more fading effect than that caused by mechanical agitation. After 15 laundering cycles, the K/S value of the fabric laundered by ultrasonic agitation was only 2.7% lower than that laundered by washing machine, so the difference was not significant and could be acceptable. Ultrasonic laundering also resulted in less fiber damage to silk fabrics. The investigation indicated that the introduction of ultrasonic agitation in laundering could produce a significant benefit in the laundering of silk fabrics.
Van AmberRRNivenBEWilsonCA. Effects of laundering and water temperature on the properties of silk and silk-blend knitted fabrics. Textil Res J2010; 80: 1557–1568.
2.
QuaynorLNakajimaMTakahashiM. Dimensional changes in knitted silk and cotton fabrics with laundering. Textil Res J1999; 69: 285–291.
3.
QuaynorLTakahashiMNakajimaM. Effects of laundering on the surface properties and dimensional stability of plain knitted fabrics. Textil Res J2000; 70: 28–35.
4.
CaiZQiuY. Using an aqueous epoxide in Bombyx mori silk fabric finishing. Textil Res J2003; 73: 42–46.
5.
HuCJinY. Wash-and-wear finishing of silk fabrics with a water-soluble polyurethane. Textil Res J2002; 72: 1009–1012.
ReddyNWarnerKYangY. Low-temperature wet-cross-linking of silk with citric acid. Ind Eng Chem Res2011; 50: 4458–4463.
8.
MasonTJ. Practical Sonochemistry: User's guide to applications in chemistry and chemical engineering, New York: Ellis Horwood, 1991, pp. 27–34. .
9.
LamminenMOWalkerHWWeaversLK. Mechanisms and factors influencing the ultrasonic cleaning of particle-fouled ceramic membranes. J Membrane Sci2004; 237: 213–223.
10.
WangWYuBZhongC. Use of ultrasonic energy in the enzymatic desizing of cotton fabric. J Clean Prod2012; 33: 179–182.
11.
YachmenevVGBlanchardEJLambertAH. Use of ultrasonic energy for intensification of the bio-preparation of greige cotton. Ultrasonics2004; 42: 87–91.
12.
MistikSİYükseloğluSM. Hydrogen peroxide bleaching of cotton in ultrasonic energy. Ultrasonics2005; 43: 811–814.
13.
PerincekSBahtiyariIKorluA. New techniques in cotton finishing. Textil Res J2009; 79: 121–128.
14.
MahmoodiNMAramiMMazaheriF. Degradation of sericin (degumming) of Persian silk by ultrasound and enzymes as a cleaner and environmentally friendly process. J Clean Prod2010; 18: 146–151.
15.
BahtiyariMİDuranK. A study on the usability of ultrasound in scouring of raw wool. J Clean Prod2012; 41: 283–290.
16.
LiQHurrenCJYuH. Thermal and mechanical properties of ultrasonically treated wool. Textil Res J2012; 82: 195–202.
McNeilSJMcCallRA. Ultrasound for wool dyeing and finishing. Ultrason Sonochem2011; 18: 401–406.
19.
KamelMMEl-ShishtawyRMYussefBM. Ultrasonic assisted dyeing: III. Dyeing of wool with lac as a natural dye. Dyes Pigments2005; 65: 103–110.
20.
KamelMMHelmyHMMashalyHM. Ultrasonic assisted dyeing: dyeing of acrylic fabrics CI Astrazon Basic Red 5BL 200%. Ultrason Sonochem2010; 17: 92–97.
21.
YukselogluSMBolatN. The use of conventional and ultrasonic energy in dyeing of 100% wool woven fabrics. Tekstil ve Konfeksiyon2010; 20: 162–167.
22.
ParvinzadehMMemariNShaverM. Influence of ultrasonic waves on the processing of cotton with cationic softener. J Surfactants Deterg2010; 13: 135–141.
23.
RezićI. Optimization of ultrasonic extraction of 23 elements from cotton. Ultrason Sonochem2009; 16: 63–69.
24.
RezićIKrstićDBokićL. Ultrasonic extraction of resins from an historic textile. Ultrason Sonochem2008; 15: 21–24.
25.
ChenLJinHWangL. Dynamic ultrasound-assisted extraction coupled on-line with solid support derivatization and high-performance liquid chromatography for the determination of formaldehyde in textiles. J Chromatogr A2008; 1192: 89–94.
26.
CanoğluSGültekinBCYükseloğluSM. Effect of ultrasonic energy in washing of medical surgery gowns. Ultrasonics2004; 42: 113–119.
27.
GotohKHarayamaK. Application of ultrasound to textiles washing in aqueous solutions. Ultrason Sonochem2013; 20: 747–753.
28.
YouLZhangXZhouW. Effect of ultrasonic treatment on stain removal of cotton fabric. J Textil Res (China)2011; 32: 91–94.
29.
HurrenCCooksonPWangX. The effects of ultrasonic agitation in laundering on the properties of wool fabrics. Ultrason Sonochem2008; 15: 1069–1074.
JoyceEPhullSSMasonTJ. The development and evaluation of ultrasound for the treatment of bacterial suspensions. A study of frequency, power and sonication time on cultured Bacillus species. Ultrason Sonochem2003; 10: 315–318.
33.
MoholkarVSWarmoeskerkenMMCG. Acoustical characteristics of textile materials. Textil Res J2003; 73: 827–837.
34.
DatarGVBanks-LeePGradyPL. Acoustical properties of fabrics in low-intensity ultrasound. Appl Acoust1996; 47: 345–350.
35.
DatarGVBanks-LeePGradyPL. Acoustical characteristics of fabrics in high-intensity ultrasound. Appl Acoust1996; 48: 33–45.
WarmoeskerkenMVander VlistPMoholkarVS. Laundry process intensification by ultrasound. Colloid Surface Physicochem Eng Aspect2002; 210: 277–285.
38.
PlazaGRCorsiniPPérez RigueiroJ. Effect of water on Bombyx mori regenerated silk fibers and its application in modifying their mechanical properties. J Appl Polym Sci2008; 109: 1793–1801.
