The textile sector is widely acknowledged as one of the most environmentally damaging sectors globally, primarily due to its high consumption of water and energy, utilization of chemicals, and the discharge of waste water containing a complex mixture of hazardous substances. The incorporation of nanotechnology, particularly through wet processes involving nano finishes, while enhancing textile functionality, further exacerbates these environmental concerns. Consequently, the exploration and promotion of sustainable methodologies are imperative across all wet treatments in textile processing. Among the potential solutions, sonoprocesses stand out as a promising avenue for mitigating resource consumption, and supporting environmentally friendly synthesis and application of nanomaterials to textiles. Sonoprocesses offer the advantage of carrying processes at low temperature and pressure, and the use of aqueous media instead of organic solvents. This comprehensive review delves into the multifaceted applications of sonoprocesses within the textile realm, with a specific emphasis on the synthesis and application of nanomaterials to textiles. Discussing the diverse applications of sonoprocesses, this study will pave the way for the integration of these techniques within the textile industry, ultimately aiming for widespread adoption on a commercial scale. This will help in promoting sustainable practices and reducing the ecological footprint of the textile sector.
HasanbeigiAPriceL.A technical review of emerging technologies for energy and water efficiency and pollution reduction in the textile industry. J Clean Prod2015;
95: 30–44.
2.
MadhavSAhamadASinghP, et al.
A review of textile industry: wet processing, environmental impacts, and effluent treatment methods. Environ Qual Manag2018;
27: 31–41.
3.
WangJZhaoJSunL, et al.
A review on the application of photocatalytic materials on textiles. Text Res J2015;
85: 1104–1118.
4.
Shahid-ul-IslamS-IButolaBSMohammadF.Silver nanomaterials as future colorants and potential antimicrobial agents for natural and synthetic textile materials. RSC Adv2016;
6: 44232–44247.
5.
IslamSMohdSFaqeerM.Insights into the Functional Finishing of Textile Materials Using Nanotechnology. In: Muthu, S. (eds) Textiles and Clothing Sustainability Nanotextiles and Sustainability. Springer Singapore, 2017: 97–115.
6.
KrifaMPrichardC.Nanotechnology in textile and apparel research – an overview of technologies and processes. J Text Inst2020;
111: 1778–1793.
7.
IrfanMPereroSMiolaM, et al.
Antimicrobial functionalization of cotton fabric with silver nanoclusters/silica composite coating via RF co-sputtering technique. Cellulose2017;
24: 2331–2345.
8.
WeisseMSchmidtCAbramovaA, et al.
Sonochemical coating: effect of energy input and distance on the functionalization of textiles with TiO2 and ZnO-nanoparticles. Ultrason Sonochem2020;
60: 104801.
9.
RibeiroAIShvalyaVCvelbarU, et al.
Stabilization of silver nanoparticles on polyester fabric using organo-matrices for controlled antimicrobial performance. Polymers (Basel)2022;
14: 1138.
10.
IslamSButolaBSVermaD.Facile synthesis of chitosan-silver nanoparticles onto linen for antibacterial activity and free-radical scavenging textiles. Int J Biol Macromol2019;
133: 1134–1141.
PalSMondalSPalP, et al.
Fabrication of AgNPs/silane coated mechanical and washing durable hydrophobic cotton textile for self-cleaning and oil-water separation application. J Ind Chem Soc2022;
99: 100283.
13.
ShahMAPirzadaBMPriceG, et al.
Applications of nanotechnology in smart textile industry: a critical review. J Adv Res2022;
38: 55–75.
14.
WangJWangZZhaoD, et al.
Preparation, structural and photocatalytic activity of Sn/Fe co-doped TiO2 nanoparticles by sol-gel method. Ceram Int2022;
48: 8297–8305.
15.
LiangYJiangLXuS, et al.
Synthesis and characterization of Fe3O4 nanoparticles prepared by solvothermal method. J Mater Eng Perform. Epub ahead of print 22 June 2023. DOI: 10.1007/s11665-023-08431-1
16.
ZonarsagharAMousavi-KamazaniMZinatloo-AjabshirS.Retracted article: Co-precipitation synthesis of CeVO4 nanoparticles for electrochemical hydrogen storage. J Mater Sci: Mater Electron2022;
33: 6549–6554.
17.
FadillahGHidayatRSalehTA.Hydrothermal assisted synthesis of titanium dioxide nanoparticles modified graphene with enhanced photocatalytic performance. J Ind Eng Chem2022;
113: 411–418.
18.
KaurNSinghAAhmadW.Microwave assisted green synthesis of silver nanoparticles and its application: a review. J Inorg Organomet Polym Mater2023;
33: 663–672.
19.
TranMTDuNVTuN, et al.
High-quality optically defect-free 1D ZnS nanostructures by a modified thermal evaporation method. Opt Mater (Amst)2022;
124: 111963.
20.
AlheshibriMElsayedKHaladuS, et al.
Synthesis of Ag nanoparticles-decorated on CNTs/TiO2 nanocomposite as efficient photocatalysts via nanosecond pulsed laser ablation. Opt Laser Technol2022;
155: 108443.
21.
VermaMSinghKPKumarA.Reactive magnetron sputtering based synthesis of WO3 nanoparticles and their use for the photocatalytic degradation of dyes. Solid State Sci2020;
99: 105847.
22.
WaiwijitUChananonnawathornCEimchaiP, et al.
Fabrication of Au-Ag nanorod SERS substrates by co-sputtering technique and dealloying with selective chemical etching. Appl Surf Sci2020;
530: 147171.
23.
BaigNKammakakamIFalathW.Nanomaterials: a review of synthesis methods, properties, recent progress, and challenges. Mater Adv2021;
2: 1821–1871.
24.
QiKCuiNZhangM, et al.
Ionic liquid-assisted synthesis of porous boron-doped graphitic carbon nitride for photocatalytic hydrogen production. Chemosphere2021;
272: 129953.
25.
QiKXingXZadaA, et al.
Transition metal doped ZnO nanoparticles with enhanced photocatalytic and antibacterial performances: experimental and DFT studies. Ceram Int2020;
46: 1494–1502.
26.
YangYTanHChengB, et al.
Near-infrared-responsive photocatalysts. Small Methods2021;
5: 2001042.
27.
ZhangYLiYYuH, et al.
Interfacial defective Ti3+ on Ti/TiO2 as visible-light responsive sites with promoted charge transfer and photocatalytic performance. J Mater Sci Technol2022;
106: 139–146.
28.
WangJWangGChengB, et al.
Sulfur-doped g-C3N4/TiO2 S-scheme heterojunction photocatalyst for Congo Red photodegradation. Chin J Catal2021;
42: 56–68.
29.
WangLTanHZhangL, et al.
In-situ growth of few-layer graphene on ZnO with intimate interfacial contact for enhanced photocatalytic CO2 reduction activity. Chem Eng J2021;
411: 128501.
30.
WangLChengBZhangL, et al.
In situ irradiated XPS investigation on S-scheme TiO2 @ZnIn2 S4 photocatalyst for efficient photocatalytic CO2 reduction. Small2021;
17: 2103447.
31.
IrfanMPolonskyiOHinzA, et al.
Antibacterial, highly hydrophobic and semi transparent Ag/plasma polymer nanocomposite coating on cotton fabric obtained by plasma based co-deposition. Cellulose2019;
26: 8877–8894.
32.
RumeauPTiercePCostesS.Ultrasounds: an industrial solution to optimise costs, environmental requests and quality for textile finishing q. 2004;
11: 33–38.
33.
Saber BraimFNoor Ashikin Nik Ab RazakNAbdul AzizA, et al.
Ultrasound assisted chitosan coated iron oxide nanoparticles: influence of ultrasonic irradiation on the crystallinity, stability, toxicity and magnetization of the functionalized nanoparticles. Ultrason Sonochem2022;
88: 106072.
34.
KamaliMCostaME V.Otero-IruruetaG, et al.
Ultrasonic irradiation as a green production route for coupling crystallinity and high specific surface area in iron nanomaterials. J Clean Prod2019;
211: 185–197.
35.
PokhrelNVabbinaPKPalaN.Sonochemistry: science and engineering. Ultrason Sonochem2016;
29: 104–128.
36.
SlimaniYHannachiE. Synthesis of ferrite nanoparticles using sonochemical methods. In: Ferrite Nanostructured Magnetic Materials. Elsevier, 2023, pp. 121–147.
37.
Savun-HekimoğluB.A review on sonochemistry and its environmental applications. Acoustics2020;
2: 766–775.
38.
XuHZeigerBWSuslickKS.Sonochemical synthesis of nanomaterials. Chem Soc Rev2013;
42: 2555–2567.
39.
DineshGKPramodMChakmaS.Sonochemical synthesis of amphoteric CuO-nanoparticles using Hibiscus rosa-sinensis extract and their applications for degradation of 5-fluorouracil and lovastatin drugs. J Hazard Mater2020;
399: 123035.
40.
ThompsonLHDoraiswamyLK.Sonochemistry: science and engineering. Ind Eng Chem Res1999;
38: 1215–1249.
41.
AdewuyiYG.Sonochemistry: environmental science and engineering applications. Ind Eng Chem Res2001;
40: 4681–4715.
42.
VaitsisCSourkouniGArgirusisC. Sonochemical synthesis of MOFs. In: Metal-Organic Frameworks for Biomedical Applications. Elsevier, 2020, pp. 223–244.
43.
AshokkumarM.Applications of ultrasound in food and bioprocessing. Ultrason Sonochem2015;
25: 17–23.
44.
KumarRRaizadaPKhanAAP, et al.
Recent progress in emerging BiPO4-based photocatalysts: synthesis, properties, modification strategies, and photocatalytic applications. J Mater Sci Technol2022;
108: 208–225.
45.
QiKZhuangCZhangM, et al.
Sonochemical synthesis of photocatalysts and their applications. J Mater Sci Technol2022;
123: 243–256.
46.
KamaliMDewilRAppelsL, et al.
Nanostructured materials via green sonochemical routes – sustainability aspects. Chemosphere2021;
276: 130146.
47.
KumarRVDiamantYGedankenA.Sonochemical synthesis and characterization of nanometer-size transition metal oxides from metal acetates. Chem Mater2000;
12: 2301–2305.
48.
LiZDongJWangL, et al.
A power-triggered preparation strategy of nano-structured inorganics: sonosynthesis. Nanoscale Adv2021;
3: 2423–2447.
49.
PilliSBhuniaPYanS, et al.
Ultrasonic pretreatment of sludge: a review. Ultrason Sonochem2011;
18: 1–18.
50.
PirsahebMMoradiN.Sonochemical degradation of pesticides in aqueous solution: investigation on the influence of operating parameters and degradation pathway – a systematic review. RSC Adv2020;
10: 7396–7423.
51.
QiKZhuangCZhangM, et al.
Sonochemical synthesis of photocatalysts and their applications. J Mater Sci Technol2022;
123: 243–256.
HassanMMSaifullahK.Ultrasound-assisted sustainable and energy efficient pre-treatments, dyeing, and finishing of textiles – a comprehensive review. Sustain Chem Pharm2023;
33: 101109.
54.
JajpuraLNayakR.Ultrasound applications in textiles and apparels. In: Sustainable Technologies for Fashion and Textiles.
Elsevier, 2020, pp. 143–161.
55.
VajnhandlSMajcen Le MarechalA.Ultrasound in textile dyeing and the decolouration/mineralization of textile dyes. Dyes Pigments2005;
65: 89–101.
56.
BishtDYadavSRoseNMGroverARukhayaS.Sustainable textile finishes: a boon for reducing toxic disposal to the environment. Pharma Innov J2021;
10: 861–867.
57.
ThakoreKAAbateB.Application of ultrasound in the preparation of cotton fabric. Cellulose Chem Technol2017;
51: 983–992.
58.
Abou-OkeilAEl-ShafieAEl ZawahryMM.Ecofriendly laccase–hydrogen peroxide/ultrasound-assisted bleaching of linen fabrics and its influence on dyeing efficiency. Ultrason Sonochem2010;
17: 383–390.
59.
HaoLWangRFangK, et al.
Ultrasonic effect on the desizing efficiency of α-amylase on starch-sized cotton fabrics. Carbohydr Polym2013;
96: 474–480.
60.
CzaplickiZMatyjas-ZgondekEStrzeleckiS.Scouring of sheep wool using an acoustic ultrasound wave. Fibres Text East Eur2021;
29: 44–48.
61.
BahtiyariMİDuranK.A study on the usability of ultrasound in scouring of raw wool. J Clean Prod2013;
41: 283–290.
62.
LiQHurrenCJWangLJ, et al.
Frequency dependence of ultrasonic wool scouring. J Text Inst2011;
102: 505–513.
63.
LiQDingCYuH, et al.
Adapting ultrasonic assisted wool scouring for industrial application. Text Res J2014;
84: 1183–1190.
64.
PanYWangWGongK, et al.
Ultrasonic scouring as a pretreatment of wool and its application in low-temperature dyeing. Text Res J2019;
89: 1975–1982.
65.
McNeilSJMcCallRA.Ultrasound for wool dyeing and finishing. Ultrason Sonochem2011;
18: 401–406.
66.
HurrenCCooksonPWangX.The effects of ultrasonic agitation in laundering on the properties of wool fabrics. Ultrason Sonochem2008;
15: 1069–1074.
67.
EassonMCondonBVillalpandoA, et al.
The application of ultrasound and enzymes in textile processing of greige cotton. Ultrasonics2018;
84: 223–233.
68.
MahmoodiNMAramiMMazaheriF, et al.
Degradation of sericin (degumming) of Persian silk by ultrasound and enzymes as a cleaner and environmentally friendly process. J Clean Prod2010;
18: 146–151.
69.
FakinDGolobVKleinschekKS, et al.
Sorption properties of flax fibers depending on pretreatment processes and their environmental impact. Text Res J2006;
76: 448–454.
70.
HassanMMSaifullahK.Ultrasound-assisted pre-treatment and dyeing of jute fabrics with reactive and basic dyes. Ultrason Sonochem2018;
40: 488–496.
71.
PatilHMudaliarSAthalyeA.Ultrasound-assisted enzymatic scouring of jute optimised by response surface methodology and its natural dyeing. Colorat Technol2023;
139: 97–108.
72.
WangWPanYGongK, et al.
A comparative study of ultrasonic degumming of silk sericin using citric acid, sodium carbonate and papain. Colorat Technol2019;
135: 195–201.
73.
SuDXiaoTGuD, et al.
Ultrasonic bleaching of rapeseed oil: Effects of bleaching conditions and underlying mechanisms. J Food Eng2013;
117: 8–13.
74.
KörlüABahtiyariMİ. Ultrasound‐Based Wet Processes in Textile Industry. In: Innovative and Emerging Technologies for Textile Dyeing and Finishing. Wiley, 2021, pp. 265–299.
75.
MistikSİYükseloğluSM.Hydrogen peroxide bleaching of cotton in ultrasonic energy. Ultrasonics2005;
43: 811–814.
76.
MosesJ.Bleaching of cotton using hydrogen peroxide in ultrasonic energy and dyeing. Colourage1996;
43: 19–24.
77.
DavulcuAErenHAAvincO, et al.
Ultrasound assisted biobleaching of cotton. Cellulose2014;
21: 2973–2981.
78.
Mohd FauziMSHChe PaTDNF.Bleaching of xylanase-treated bamboo fibre with eco-enzyme assisted power ultrasonic. Peat2022;
3: 28–36.
79.
BastoCTzanovTCavaco-PauloA.Combined ultrasound-laccase assisted bleaching of cotton. Ultrason Sonochem2007;
14: 350–354.
80.
ZolriasateinAA.The use of ultrasound in bio-treatment of jute yarn with laccase enzyme. Rec Innov Chem Eng (formerly Rec Patents Chem Eng)2019;
12: 275–286.
81.
GonçalvesIMartinsMLoureiroA, et al.
Sonochemical and hydrodynamic cavitation reactors for laccase/hydrogen peroxide cotton bleaching. Ultrason Sonochem2014;
21: 774–781.
82.
ErenHAAvincOErişmişB, et al.
Ultrasound-assisted ozone bleaching of cotton. Cellulose2014;
21: 4643–4658.
83.
HassanMMBhagvandasM.Sustainable low liquor ratio dyeing of wool with acid dyes: effect of auxiliaries on agglomeration of dye molecules in a dyebath and dyeing uniformity. J Clean Prod2017;
152: 464–473.
84.
AhmedNSEEl‐ShishtawyRMKamelMM.Ultrasound assisted pre‐treatment and dyeing of linen fibres with reactive dyes. Pigment Resin Technol2007;
36: 363–372.
85.
MaXWeiYWangS, et al.
Sustainable ultrasound-assisted ultralow liquor ratio dyeing of cotton fabric with natural turmeric dye. Text Res J2020;
90: 685–694.
86.
KhatriMAhmedFJatoiAW, et al.
Ultrasonic dyeing of cellulose nanofibers. Ultrason Sonochem2016;
31: 350–354.
87.
JatoiAWAhmedFKhatriM, et al.
Ultrasonic-assisted dyeing of Nylon-6 nanofibers. Ultrason Sonochem2017;
39: 34–38.
88.
KamelMMEl-ShishtawyRMYoussefBM, et al.
Ultrasonic assisted dyeing. IV. Dyeing of cationised cotton with lac natural dye. Dyes Pigments2007;
73: 279–284.
89.
GuesmiALadhariNSakliF.Ultrasonic preparation of cationic cotton and its application in ultrasonic natural dyeing. Ultrason Sonochem2013;
20: 571–579.
90.
TisseraNDWijesenaRNde SilvaKMN.Ultrasound energy to accelerate dye uptake and dye–fiber interaction of reactive dye on knitted cotton fabric at low temperatures. Ultrason Sonochem2016;
29: 270–278.
91.
DongFCSunTTChenLZ, et al.
Influence of ultrasonic on the dying properties of cotton fabric by using turmeric as dye. Adv Mater Res2014;
1048: 94–97.
92.
BaigUKhatriAAliS, et al.
Ultrasound-assisted dyeing of cotton fabric with natural dye extracted from Marigold flower. J Text Inst2021;
112: 801–808.
93.
Ben TichaMHaddarWMeksiN, et al.
Improving dyeability of modified cotton fabrics by the natural aqueous extract from red cabbage using ultrasonic energy. Carbohydr Polym2016;
154: 287–295.
94.
GuesmiALadhariNHamadiN Ben, et al.
First application of chlorophyll-a as biomordant: sonicator dyeing of wool with betanin dye. J Clean Prod2013;
39: 97–104.
95.
YinYJiaJWangT, et al.
Optimization of natural anthocyanin efficient extracting from purple sweet potato for silk fabric dyeing. J Clean Prod2017;
149: 673–679.
96.
HaddarWBaakaNMeksiN, et al.
Use of ultrasonic energy for enhancing the dyeing performances of polyamide fibers with olive vegetable water. Fibers Polym2015;
16: 1506–1511.
97.
AltayP徺canGTekçinM, et al.
Comparison of conventional and ultrasonic method for dyeing of spunbond polyester nonwoven fabric. Ultrason Sonochem2018;
42: 768–775.
98.
BurkinshawSMJeongDS.The dyeing of poly(lactic acid) fibres with disperse dyes using ultrasound: Part 1 – Initial studies. Dyes Pigments2012;
92: 1025–1030.
99.
Al-EtaibiAMEl-ApaseryMA.Facile synthesis of novel disperse dyes for dyeing polyester fabrics: demonstrating their potential biological activities. Polymers (Basel)2022;
14: 3966.
100.
JatoiAWGianchandaniPKKimIS, et al.
Sonication induced effective approach for coloration of compact polyacrylonitrile (PAN) nanofibers. Ultrason Sonochem2019;
51: 399–405.
101.
HarifiTMontazerM.A review on textile sonoprocessing: a special focus on sonosynthesis of nanomaterials on textile substrates. Ultrason Sonochem2015;
23: 1–10.
102.
KhatriZMemonMHKhatriA, et al.
Cold pad-batch dyeing method for cotton fabric dyeing with reactive dyes using ultrasonic energy. Ultrason Sonochem2011;
18: 1301–1307.
103.
LarikSAKhatriAAliS, et al.
Batchwise dyeing of bamboo cellulose fabric with reactive dye using ultrasonic energy. Ultrason Sonochem2015;
24: 178–183.
104.
BabarAABughioNPeerzadaMH, et al.
Exhaust reactive dyeing of lyocell fabric with ultrasonic energy. Ultrason Sonochem2019;
58: 104611.
105.
AbdelghaffarFAbdelghaffarRAArafaAA, et al.
Functional antibacterial finishing of woolen fabrics using ultrasound technology. Fibers Polym2018;
19: 2103–2111.
106.
MerdanNAkalinMKocakD, et al.
Effects of ultrasonic energy on dyeing of polyamide (microfibre)/Lycra blends. Ultrasonics2004;
42: 165–168.
107.
AmesimekuJFanLJakpaW, et al.
Dyeing properties of meta-aramid fabric dyed with basic dye using ultrasonic-microwave irradiation. J Clean Prod2021;
285: 124844.
108.
WangKMengYLuoQ, et al.
An ultrasound-assisted nitrogen protection system for sustainable indigo dyeing of cotton fabrics. Text Res J2023;
93: 3355–3367.
109.
PerelshteinIPerkasNGedankenA. The sonochemical functionalization of textiles. In: The Impact and Prospects of Green Chemistry for Textile Technology. Elsevier, 2019, pp. 161–198.
110.
MoraisDGuedesRLopesM.antimicrobial approaches for textiles: from research to market. Materials2016;
9: 498.
111.
PetkovaPFranceskoAFernandesMM, et al.
Sonochemical coating of textiles with hybrid ZnO/chitosan antimicrobial nanoparticles. ACS Appl Mater Interfaces2014;
6: 1164–1172.
112.
ShenJ-MTangW-JZhangX-L, et al.
A novel carboxymethyl chitosan-based folate/Fe3O4/CdTe nanoparticle for targeted drug delivery and cell imaging. Carbohydr Polym2012;
88: 239–249.
113.
PerelshteinIApplerotGPerkasN, et al.
CuO–cotton nanocomposite: formation, morphology, and antibacterial activity. Surf Coat Technol2009;
204: 54–57.
114.
JamkhandePGGhuleNWBamerAH, et al.
Metal nanoparticles synthesis: an overview on methods of preparation, advantages and disadvantages, and applications. J Drug Deliv Sci Technol2019;
53: 101174.
115.
PatilABBhanageBM. Sonochemistry: A Greener Protocol for Nanoparticles Synthesis. In: Handbook of Nanoparticles. Cham: Springer International Publishing, 2016, pp. 143–166.
116.
ChallagullaNVRohatgiVSharmaD, et al.
Recent developments of nanomaterial applications in additive manufacturing: a brief review. Curr Opin Chem Eng2020;
28: 75–82.
117.
SallehANaomiRUtamiND, et al.
The potential of silver nanoparticles for antiviral and antibacterial applications: a mechanism of action. Nanomaterials2020;
10: 1566.
118.
NagataYWatananabeYFujitaS, et al.
Formation of colloidal silver in water by ultrasonic irradiation. J Chem Soc Chem Commun1992; 1620.
119.
IbrahimHMM.Green synthesis and characterization of silver nanoparticles using banana peel extract and their antimicrobial activity against representative microorganisms. J Radiat Res Appl Sci2015;
8: 265–275.
120.
ChaloupkaKMalamYSeifalianAM.Nanosilver as a new generation of nanoproduct in biomedical applications. Trends Biotechnol2010;
28: 580–588.
121.
JadounSVermaAArifR.Modification of Textiles via Nanomaterials and Their Applications. In: Frontiers of Textile Materials.
Wiley, 2020, pp. 135–152.
122.
SangaonkarGMPawarKD.Garcinia indica mediated biogenic synthesis of silver nanoparticles with antibacterial and antioxidant activities. Colloids Surf B Biointerfaces2018;
164: 210–217.
123.
SalunkeBKSawantSSKimBS.Potential of Kalopanax septemlobus leaf extract in synthesis of silver nanoparticles for selective inhibition of specific bacterial strain in mixed culture. Appl Biochem Biotechnol2014;
174: 587–601.
124.
LogaranjanKRaizaAJGopinathSCB, et al.
Shape- and size-controlled synthesis of silver nanoparticles using aloe vera plant extract and their antimicrobial activity. Nanoscale Res Lett2016;
11: 520.
125.
Karim MdNAndersonSRSinghS, et al.
Nanostructured silver fabric as a free-standing NanoZyme for colorimetric detection of glucose in urine. Biosens Bioelectron2018;
110: 8–15.
126.
RajSChand MaliSTrivediR.Green synthesis and characterization of silver nanoparticles using Enicostemma axillare (Lam.) leaf extract. Biochem Biophys Res Commun2018;
503: 2814–2819.
127.
SanaSSDogiparthiLK.Green synthesis of silver nanoparticles using Givotia moluccana leaf extract and evaluation of their antimicrobial activity. Mater Lett2018;
226: 47–51.
128.
SudhaAJeyakanthanJSrinivasanP.Green synthesis of silver nanoparticles using Lippia nodiflora aerial extract and evaluation of their antioxidant, antibacterial and cytotoxic effects. Resourc-Effic Technol2017;
3: 506–515.
129.
GottesmanRShuklaSPerkasN, et al.
Sonochemical coating of paper by microbiocidal silver nanoparticles. Langmuir2011;
27: 720–726.
130.
AgnihotriSMukherjiSMukherjiS.Size-controlled silver nanoparticles synthesized over the range 5–100 nm using the same protocol and their antibacterial efficacy. RSC Adv2014;
4: 3974–3983.
131.
HeCLiuLFangZ, et al.
Formation and characterization of silver nanoparticles in aqueous solution via ultrasonic irradiation. Ultrason Sonochem2014;
21: 542–548.
132.
AbazariMBadelehSMKhaleghiF, et al.
Fabrication of silver nanoparticles-deposited fabrics as a potential candidate for the development of reusable facemasks and evaluation of their performance. Sci Rep2023;
13: 1593.
133.
NoralianZGashtiMPMoghaddamMR, et al.
Ultrasonically developed silver/iota-carrageenan/cotton bionanocomposite as an efficient material for biomedical applications. Int J Biol Macromol2021;
180: 439–457.
134.
BalamuruganMSaravananSSogaT.Coating of green-synthesized silver nanoparticles on cotton fabric. J Coat Technol Res2017;
14: 735–745.
135.
PatilAHJadhavSAMoreVB, et al.
Novel one step sonosynthesis and deposition technique to prepare silver nanoparticles coated cotton textile with antibacterial properties. Colloid J2019;
81: 720–727.
136.
PatilAHJadhavSAGuravKD, et al.
Single step green process for the preparation of antimicrobial nanotextiles by wet chemical and sonochemical methods. J Text Inst2020;
111: 1380–1388.
137.
BabaahmadiVAbuzadeRAMontazerM.Enhanced ultraviolet <scp>‐protective</scp> textiles based on reduced graphene oxide‐silver nanocomposites on polyethylene terephthalate using <scp>ultrasonic‐assisted in‐situ</scp> thermal synthesis. J Appl Polym Sci2022;
139: 52196.
138.
HadadLPerkasNGoferY, et al.
Sonochemical deposition of silver nanoparticles on wool fibers. J Appl Polym Sci2007;
104: 1732–1737.
139.
PerelshteinIApplerotGPerkasN, et al.
Sonochemical coating of silver nanoparticles on textile fabrics (nylon, polyester and cotton) and their antibacterial activity. Nanotechnology2008;
19: 245705.
140.
AbbasiARKalantaryHYousefiM, et al.
Synthesis and characterization of Ag nanoparticles@polyethylene fibers under ultrasound irradiation. Ultrason Sonochem2012;
19: 853–857.
141.
AzadbakhtAAbbasiAR.Synthesis and characterization of acrylic fibers with antibacterial silver nanoparticles. Fibers Polym2012;
13: 264–268.
142.
AnwarMShukrullahSHaqIU, et al.
Ultrasonic bioconversion of silver ions into nanoparticles with Azadirachta indica extract and coating over plasma-functionalized cotton fabric. Chem Select2021;
6: 1920–1928.
143.
PerkasNAmirianGDubinskyS, et al.
Ultrasound-assisted coating of nylon 6,6 with silver nanoparticles and its antibacterial activity. J Appl Polym Sci2007;
104: 1423–1430.
144.
Karadirek Ş and OkkayH.Ultrasound assisted green synthesis of silver nanoparticle attached activated carbon for levofloxacin adsorption. J Taiwan Inst Chem Eng2019;
105: 39–49.
145.
HuQZhaoCZhangZ, et al.
Sonochemical synthesis of silver nanoparticles coated copper wire for low-temperature solid state bonding on silicon substrate. Chin Chem Letters2019;
30: 1455–1459.
146.
TzounisLBangeasPIExadaktylosA, et al.
Three-dimensional printed polylactic acid (PLA) surgical retractors with sonochemically immobilized silver nanoparticles: the next generation of low-cost antimicrobial surgery equipment. Nanomaterials2020;
10: 985.
147.
EbrahimiRRezanejade BardajeeG.Sonochemical synthesis and swelling behavior of Fe3O4 nanocomposite based on poly(acrylamide-co-acrylic acid) hydrogel for drug delivery application. J Polym Res2021;
28: 35.
148.
MonsefRSoofivandFAbbas AlshamsiH, et al.
Sonochemical synthesis and characterization of PrVO4/CdO nanocomposite and their application as photocatalysts for removal of organic dyes in water. J Mol Liq2021;
336: 116339.
149.
WattanawikkamCPecharapaW.Structural studies and photocatalytic properties of Mn and Zn co-doping on TiO2 prepared by single step sonochemical method. Radiat Phys Chem2020;
171: 108714.
150.
FujishimaAHondaK.Electrochemical photolysis of water at a semiconductor electrode. Nature1972;
238: 37–38.
151.
YangLWangYLiuR, et al.
In-situ synthesis of nanocrystalline TiC powders, nanorods, and nanosheets in molten salt by disproportionation reaction of Ti(II) species. J Mater Sci Technol2020;
37: 173–180.
152.
SadrAFMontazerM.In situ sonosynthesis of nano TiO2 on cotton fabric. Ultrason Sonochem2014;
21: 681–691.
153.
BehzadniaAMontazerMRashidiA, et al.
Sonosynthesis of nano TiO2 on wool using titanium isopropoxide or butoxide in acidic media producing multifunctional fabric. Ultrason Sonochem2014;
21: 1815–1826.
154.
NomanMTPetruMAmorN, et al.
Thermophysiological comfort of sonochemically synthesized nano TiO2 coated woven fabrics. Sci Rep2020;
10: 17204.
155.
PerelshteinIApplerotGPerkasN, et al.
A one-step process for the antimicrobial finishing of textiles with crystalline TiO2 nanoparticles. Chemistry – A Eur J2012;
18: 4575–4582.
156.
HarifiTMontazerM.Application of sonochemical technique for sustainable surface modification of polyester fibers resulting in durable nano-sonofinishing. Ultrason Sonochem2017;
37: 158–168.
157.
JunlabhutPWattanawikkamCMekprasartW, et al.
Effect of metal (Mn, Co, Zn, Ni) doping on structural, optical and photocatalytic properties of TiO2 nanoparticles prepared by sonochemical method. J Nanosci Nanotechnol2018;
18: 7302–7309.
158.
ChenT-WChinnapaiyanSChenS-M, et al.
Facile sonochemical synthesis of rutile-type titanium dioxide microspheres decorated graphene oxide composite for efficient electrochemical sensor. Ultrason Sonochem2020;
62: 104872.
159.
JoshiMBhattacharyyaAAgarwalN, et al.
Nanostructured coatings for super hydrophobic textiles. Bull Mater Sci2012;
35: 933–938.
160.
ShaheenThIEl-NaggarMEAbdelgawadAM, et al.
Durable antibacterial and UV protections of in situ synthesized zinc oxide nanoparticles onto cotton fabrics. Int J Biol Macromol2016;
83: 426–432.
161.
PetkovaPFranceskoAPerelshteinI, et al.
Simultaneous sonochemical-enzymatic coating of medical textiles with antibacterial ZnO nanoparticles. Ultrason Sonochem2016;
29: 244–250.
162.
PatilAHJadhavSAMoreVB, et al.
A new method for single step sonosynthesis and incorporation of ZnO nanoparticles in cotton fabrics for imparting antimicrobial property. Chem Papers2021;
75: 1247–1257.
163.
MajumderSRanjan DahiyaUYadavS, et al.
zinc oxide nanoparticles functionalized on hydrogel grafted silk fibroin fabrics as efficient composite dressing. Biomolecules2020;
10: 710.
164.
AminlooESMontazerM.Clean sono-synthesis of ZnO on cotton/nylon fabric using dopamine: photocatalytic, hydrophilic, antibacterial features. Fibers Polym2021;
22: 97–108.
165.
NomanMTPetrůM.Functional properties of sonochemically synthesized zinc oxide nanoparticles and cotton composites. Nanomaterials2020;
10: 1661.
166.
El-NahhalIMElmanamaAAEl AshgarNM, et al.
Stabilization of nano-structured ZnO particles onto the surface of cotton fibers using different surfactants and their antimicrobial activity. Ultrason Sonochem2017;
38: 478–487.
167.
KhataeeASaadiSVahidB, et al.
Sonocatalytic degradation of Acid Blue 92 using sonochemically prepared samarium doped zinc oxide nanostructures. Ultrason Sonochem2016;
29: 27–38.
168.
ZhangWYangYZiemannE, et al.
One-step sonochemical synthesis of a reduced graphene oxide–ZnO nanocomposite with antibacterial and antibiofouling properties. Environ Sci Nano2019;
6: 3080–3090.
169.
AraújoIMSSilvaRRPachecoG, et al.
Hydrothermal synthesis of bacterial cellulose–copper oxide nanocomposites and evaluation of their antimicrobial activity. Carbohydr Polym2018;
179: 341–349.
170.
AhmadHVenugopalKBhatAH, et al.
enhanced biosynthesis synthesis of copper oxide nanoparticles (CuO-NPs) for their antifungal activity toxicity against major phyto-pathogens of apple orchards. Pharm Res2020;
37: 246.
171.
Gounder ThangamaniJKhadheer PashaSK.Hydrothermal synthesis of copper ( ) oxide-nanoparticles with highly enhanced BTEX gas sensing performance using chemiresistive sensor. Chemosphere2021;
277: 130237.
172.
PerelshteinIPerkasNGedankenA.The sonochemical functionalization of textiles. In: The Impact and Prospects of Green Chemistry for Textile Technology.
Elsevier, 2019, pp. 161–198.
173.
ManteccaPKasemetsKDeokarA, et al.
Airborne nanoparticle release and toxicological risk from metal-oxide-coated textiles: toward a multiscale safe-by-design approach. Environ Sci Technol2017;
51: 9305–9317.
174.
HussainFSMemonNKhatriZ.Facile process for the development of antiviral cotton fabrics with nano-embossed copper oxide. ACS Omega2023;
8: 18617–18625.
175.
ChastellainMPetriAGuptaA, et al.
Superparamagnetic silica-iron oxide nanocomposites for application in hyperthermia. Adv Eng Mater2004;
6: 235–241.
176.
LaurentSForgeDPortM, et al.
Magnetic iron oxide nanoparticles: synthesis, stabilization, vectorization, physicochemical characterizations, and biological applications. Chem Rev2008;
108: 2064–2110.
177.
Rocha-SantosTAP.Sensors and biosensors based on magnetic nanoparticles. TrAC Trends Analyt Chem2014;
62: 28–36.
178.
ChauhanSUpadhyayLSB.An efficient protocol to use iron oxide nanoparticles in microfluidic paper device for arsenic detection. MethodsX2018;
5: 1528–1533.
179.
AbbasMTakahashiMKimC.Facile sonochemical synthesis of high-moment magnetite (Fe3O4) nanocube. Journal of Nanoparticle Research2013;
15: 1354.
180.
RastgooMMontazerMMalekRMA, et al.
Ultrasound mediation for one-pot sonosynthesis and deposition of magnetite nanoparticles on cotton/polyester fabric as a novel magnetic, photocatalytic, sonocatalytic, antibacterial and antifungal textile. Ultrason Sonochem2016;
31: 257–266.
181.
HarifiTMontazerM.A robust super-paramagnetic TiO2:Fe3O4:Ag nanocomposite with enhanced photo and bio activities on polyester fabric via one step sonosynthesis. Ultrason Sonochem2015;
27: 543–551.
182.
RavindranAChandranPKhanSS.Biofunctionalized silver nanoparticles: advances and prospects. Colloids Surf B Biointerfaces2013;
105: 342–352.
SathyaKSaravanathamizhanRBaskarG.Ultrasound assisted phytosynthesis of iron oxide nanoparticle. Ultrason Sonochem2017;
39: 446–451.
185.
DeshmukhARGuptaAKimBS.Ultrasound assisted green synthesis of silver and iron oxide nanoparticles using fenugreek seed extract and their enhanced antibacterial and antioxidant activities. Biomed Res Int2019;
2019: 1–14.
186.
RezaeiPRezaeiMMeshkaniF.Ultrasound-assisted hydrothermal method for the preparation of the M-Fe2O3-CuO (M: Mn, Ag, Co) mixed oxides nanocatalysts for low-temperature CO oxidation. Ultrason Sonochem2019;
57: 212–222.
ChatelG.How sonochemistry contributes to green chemistry?Ultrason Sonochem2018;
40: 117–122.
189.
SafapourSSadeghi-KiakhaniMEshaghloo-GalugahiS.Extraction, dyeing, and antibacterial properties of Crataegus elbursensis fruit natural dye on wool yarn. Fibers Polym2018;
19: 1428–1434.
190.
Sadeghi-KiakhaniMTehrani-BaghaARSafapourS, et al.
Ultrasound-assisted extraction of natural dyes from hawthorn fruits for dyeing polyamide fabric and study its fastness, antimicrobial, and antioxidant properties. Environ Dev Sustain2021;
23: 9163–9180.
191.
QadariyahLMahfudMSulistiawatiE, et al.
Natural dye extraction from teak leaves (Tectona Grandis) using ultrasound assisted extraction method for dyeing on cotton fabric. MATEC Web Conf2018;
156: 05004.
192.
ÖzdemirCÖdenMKŞahinkayaS, et al.
The sonochemical decolorisation of textile azo dye CI Reactive Orange 127. Colorat Technol2011;
127: 268–273.
193.
CetinkayaSGMorcaliMHAkarsuS, et al.
Comparison of classic Fenton with ultrasound Fenton processes on industrial textile wastewater. Sustain Environ Res2018;
28: 165–170.
194.
JohinJNidheeshP V.SivasankarT.Sono-electro-chemical treatment of Reactive Black 5 dye and real textile effluent using MnSO4/Na2S2O8 electrolytes. Arab J Sci Eng2019;
44: 9987–9996.
195.
IslamMTFarhanMdSMahmudMdH. Green extraction of dyes and pigments from natural resources. In: Renewable Dyes and Pigments. Elsevier, 2024, pp. 19–36.
196.
DasSRoy MaulikS.Recent Approaches and Advancements in Natural Dyes. In: Muthu, S.S. (eds) Natural Dyes and Sustainability. Sustainable Textiles: Production, Processing, Manufacturing & Chemistry. Springer, Cham, 2023; pp. 63–78.
197.
PizzicatoBPacificoSCayuelaD, et al.
Advancements in sustainable natural dyes for textile applications: a review. Molecules2023;
28: 5954.
198.
YangNJunB-MChoiJS, et al.
Ultrasonic treatment of dye chemicals in wastewater: a review. Chemosphere2024;
354: 141676.
199.
WangAXuHChenC, et al.
Critical review on advances and perspectives of ultrasound assisted membrane technologies for water purification. Chem Eng J2024;
482: 148873.
200.
KallawarGABhanvaseBA.A review on existing and emerging approaches for textile wastewater treatments: challenges and future perspectives. Environ Sci Pollut Res2023;
31: 1748–1789.
