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. 2024 Dec 10;10(24):e40931. doi: 10.1016/j.heliyon.2024.e40931

Table 15.

Summary of fabrication of AgNPs for different properties.

Key Properties Key Result Ref.
  • Superhydrophobicity

  • Antimicrobial reduction

  • Polydimethylsiloxane/silver phosphate nanocomposites

  • Water contact angle 152°

  • Protein adsorption reduction ∼83 %

[334]
  • Superhydrophobicity

  • Electrical conductivity

  • Octadecanoic Acid/Ag Nanoparticle-Decorated Rubber Composites

  • Water contact angle 152.6°

  • High electrical conductivity

  • Strain range of 80–120 %

[346]
  • Superhydrophobicity

  • Antimicrobial reduction

  • Electrical conductivity

  • Multifunctional conductive cotton/TA/Ag NPs/PDMS textiles

  • Water contact angle 152°

  • Excellent heating performance and deicing performance

  • High saturated temperatures (118.7 °C) under low working voltage (2 V).

  • Clear inhibition zone can be observed with an average width of 15 mm for E. coli and S. aureus

[347]
  • Superhydrophobicity

  • AgNP-grafted silicon nanocones

  • Water contact angle 151.2°

[348]
  • Superhydrophobicity

  • Self-cleaning

  • Antimicrobial reduction

  • Superhydrophobic and antibacterial stainless-steel mesh via AgNPs in polydopamine hydrochloride@ octadecylamine (PDA@ODA)

  • Antibacterial and self-cleaning superhydrophobic surface on 304 steel-stainless meshes (SS meshes)

  • Water Contact Angle 160.6° and Sliding Angle of 3°

  • Inhibition zone diameter of 11.28 ± 0.88 mm for E. coli and 12.39 ± 0.34 mm for S. aureus as extended to 1800 s

[349]
  • Superhydrophobicity

  • Self-cleaning

  • Antimicrobial reduction

  • Binary silanization and AgNPs encapsulation to create superhydrophobic cotton fabrics

  • Water contact angle of 153 ± 2°

  • Waterproof and contamination-resistant

  • Improved antimicrobial properties

[350]
  • Superhydrophobicity

  • High conductivity

  • Excellent self-cleaning

  • Acid-alkali resistant

  • Multifunctional cotton non-woven fabrics coated with AgNPs and polymers

  • Water contact angle 150°, 152°, 154°

  • High conductivity of ∼1000 S/cm

  • EMI shielding effectiveness increased up to ∼110 dB

  • Excellent self-cleaning performance and

  • Acid-alkali corrosion resistance

[344]
  • Improve color strength

  • Superhydrophobicity

  • Self-cleaning

  • Antimicrobial reduction

  • Silver-nanoparticle-colored cotton fabrics with tunable Colors

  • Water contact angle 168°

  • Sliding angle 3°

  • Effectively inhibited the growth of E. coli and B. subtilis bacteria

[351]
  • Superhydrophobicity

  • Antimicrobial reduction

  • Self-cleaning

  • Fabrication of superhydrophobic durable textile via AgNPs

  • Water contact angle >150°

  • Self-cleaning properties

  • Inhibition zone with an average width of 15 mm for E. coli and an average width of 15.2 mm for S. aureus

[352]
  • Superhydrophobicity

  • Electrical conductivity

  • Superhydrophobic conductive surface via AgNPs and Cu NPs

  • Water contact angle of 161°–162

  • Shedding angle of 7.0°–7.8

  • High-level conductivity with a surface resistivity of 25.17 ± 8.18 U Ωsq−1 and 184.38 ± 85.42 U Ωsq−1

[353]
  • Superhydrophobicity

  • Water contact angle 150º

[354]
  • High Stretchability

  • Superhydrophobicity

  • High conductivity

  • Highly Stretchable and Conductive Superhydrophobic Coating via 1-octadecanethiol-modified AgNPs (M-AgNPs) with polystyrene-b-poly(ethylene-co-butylene)-b-polystyrene (SEBS)

  • Water contact angle >160º

  • High conductivity with resistance of about 10 Ω

[345]
  • Superhydrophobicity

  • Flexible and superhydrophobic AgNPs decorated aligned Ag Nanowires Films

  • Water contact angle 155°

[355]
  • Photocatalytic activity

  • Superhydrophobicity

  • Antimicrobial reduction

  • High water-repellent properties (α∼150°)

  • Enhanced surface hardness (3H, ∼90 Hv)

  • High photo-degradation ability against dyes (D∗∼100 %)

  • Good inhibition activity against microorganism colonization

[356]
  • Self-cleaning

  • Antimicrobial reduction

  • Photocatalytic activity

  • Enhancement in self-cleaning and antibacterial performance

  • High photocatalytic activity in plasma-activated fabrics under ultraviolet and visible light

[357]
  • Superhydrophobicity

  • Stain resistant, self-cleaning

  • Photocatalytic activity

  • Water contact value was estimated as 153° with a sliding angle of 15º

  • Excellent water-repelling, stain-resistant, and self-cleaning abilities of the superhydrophobic coating

  • The inhibition zones have diameters of 13.12 mm and 14.44 mm for E. coli and S. aureus

  • Satisfying photocatalytic activity of coated fabric

[338]
  • Self-cleaning

  • Higher self-cleaning properties in Ag– TiO2 NPs loaded fabric

[358]
  • Excellent electrical conductivity

  • Good wash fastness

  • Waterproof conductive fiber with excellent electrical conductivity

  • Excellent electrical conductivity (0.11 Ω/cm)

  • Able to withstand folding deformation for 10,000 times

  • Excellent anti-wetting properties

  • Excellent operation of an LED over 4 h

[359]
  • Photocatalytic activity

  • Good tinctorial strength

  • Good color fastness

  • Antimicrobial resistant

  • Plasma-untreated and plasma-pretreated cotton samples (Cot-AgNPs-1 and Cot-AgNPs-5) demonstrated higher antimicrobial activity against C. albicans and E. coli than S. aureus.

  • High photocatalytic activity, UV blocking performance compared to blank cotton

  • Good tinctorial strength and colorfastness

[360]
  • Good infrared stealth

  • Shielding effectiveness

  • The shielding effectiveness (SE) is 26.8 dB

  • Low infrared radiation

  • Good infrared stealth performance

  • Potential military textile material for infrared camouflage outfits, such as uniforms, helmets, shoes, tents, and backpacks.

[361]
  • Antimicrobial reduction

  • Photocatalytic activity

  • The antibacterial rate of treated silk against E. coli and S. aureus was as high as 99 %, and it was above 92 % even after 20 cycles of washing under a neutral condition

  • The UV protection factor of treated silk reached 21.3, classified as “good protection.”

[343]
  • Antimicrobial reduction

  • Photocatalytic activity

  • The green synthesized Ag-NPs demonstrated a higher antibacterial activity than pathogenic bacteria (S. aureus, B. subtilis, E. coli, and P. aeruginosa). The maximum inhibition zone belonged to E. coli with 10.5 mm.

  • Biosynthesized Ag-NPs seem to contain satisfying photocatalytic activity against stable organic compounds (i.e., Methylene Blue)

[362]
  • Photocatalytic activity

  • The complete degradation of methylene blue in the presence of AgNPs occurs within 30 min.

[363]
  • Antimicrobial reduction

  • Photocatalytic activity

  • The MOS-AgNPs showed excellent antimicrobial activity against Gram-positive (Staphylococcus aureus; 14.6 mm) and Gram-negative (E. coli; 30.6 mm, Salmonella enterica typhimurium (29 mm), and Pseudomonas aeruginosa; 22.8 mm) bacteria

  • The MOS-AgNPs showed remarkable photocatalytic activity toward organic dyes (methylene blue (>81 %), orange-red (>82 %), and 4-nitrophenol (>75 %)) under sunlight irradiation

[364]
  • Photocatalytic activity

  • The synthesized AgNPs have shown 30 96.51 % photocatalytic decolorization activity by using methylene blue dye (100 ppm) within 313 h incubation time

[341]
  • Photocatalytic activity

  • Iso-AgNPs exhibited 96.5 %, 96.0 %, 92 %, and 95 % degradation rates for MB, NF, ER, and 4-CP, respectively

[342]
  • Photocatalytic activity

  • Antimicrobial reduction

  • The photocatalytic efficiency of Ag/TiO2 nanotubes was twice that of the TNTs after 150 min under sunlight conditions

  • Ag/TiO2 nanotubes at 20 ppm concentration eliminated 99.99 % of the S. aureus after 60 min under sunlight conditions

[365]