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Investigation into the Strength Properties of Plain Cotton Fabrics after Water Immersion for Upcycling Textiles


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Fig. 1.

Global rubbish distribution map [6]
Global rubbish distribution map [6]

Fig. 2.

Natural-colored stock fabric samples after water immersion, showcasing the original sample and 12 subsequent samples at different time intervals
Natural-colored stock fabric samples after water immersion, showcasing the original sample and 12 subsequent samples at different time intervals

Fig. 3.

Black-colored stock fabric samples after water immersion, showcasing the original sample and 12 subsequent samples at different time intervals
Black-colored stock fabric samples after water immersion, showcasing the original sample and 12 subsequent samples at different time intervals

Fig. 4.

Warp-breaking strength curve of natural-color stock fabric as a function of the water immersion time, along with the fitted polynomial
Warp-breaking strength curve of natural-color stock fabric as a function of the water immersion time, along with the fitted polynomial

Fig. 5.

Warp strength loss rate curve of natural-color stock fabric as a function of the water immersion time, along with the fitted polynomial
Warp strength loss rate curve of natural-color stock fabric as a function of the water immersion time, along with the fitted polynomial

Fig. 6.

Weft-breaking strength curve of natural-color stock fabric as a function of the water immersion time, along with the fitted polynomial
Weft-breaking strength curve of natural-color stock fabric as a function of the water immersion time, along with the fitted polynomial

Fig. 7.

Weft strength loss rate curve of natural-color stock fabric as a function of the water immersion time, along with the fitted polynomial
Weft strength loss rate curve of natural-color stock fabric as a function of the water immersion time, along with the fitted polynomial

Fig. 8.

Warp-breaking strength curve of black stock fabric as a function of the water immersion time, along with the fitted polynomial.
Warp-breaking strength curve of black stock fabric as a function of the water immersion time, along with the fitted polynomial.

Fig. 9.

Warp strength loss rate curve of black stock fabric as a function of the water immersion time, along with the fitted polynomial
Warp strength loss rate curve of black stock fabric as a function of the water immersion time, along with the fitted polynomial

Fig. 10.

Weft-breaking strength curve of black stock fabric as a function of the water immersion time, along with the fitted polynomial
Weft-breaking strength curve of black stock fabric as a function of the water immersion time, along with the fitted polynomial

Fig. 11.

Weft strength loss rate curve of black stock fabric as a function of the water immersion time, along with the fitted polynomial
Weft strength loss rate curve of black stock fabric as a function of the water immersion time, along with the fitted polynomial

Quick reference table of strength loss rate node parameters for cotton stock fabric after water immersion

Item Loss rate Natural color stock fabric (Time/D) Black color stock fabric (Time/D)
After water immersion After water immersion
Warp Weft Warp Weft
Time /D 5% 13 3 14 6
10% 23 4 21 10
15% 30 5 27 13
20% 35 7 32 17
25% 40 9 36 21
30% 44 13 40 25
35% 48 17 43 29
40% 52 24 46 32
45% 55 33 50 36
50% 58 45 52 40

Surface appearance of cotton stock fabric after immersion in water

Time (day) SEM (100×)
Time SEM (100×) Time SEM (100×)

Variation equation of the warp strength loss rate of black stock fabric with the water immersion time

Item Value
Equation y = a + b*x^c
a 1.13831 ± 0.77734
b 0.02858 ± 0.02007
c 1.88035 ± 0.19398
R Squared (COD) 0.9867

Variation equation of the weft-breaking strength of black stock fabric with the water immersion time

Item Value
Equation y = Intercept + B1*x^1 + B2*x^2 + B3*x^3
Intercept 237.00269 ± 1.84906
B1 -1.08479 ± 0.46365
B2 -0.12965 ± 0.03068
B3 0.00224 ± 5.59328E-4
R Squared (COD) 0.99728

Variation equation of the warp-breaking strength of black stock fabric with the water immersion time

Item Value
Equation y = Intercept + B1*x^1 + B2*x^2 + B3*x^3
Intercept 554.12959 ± 3.86116
B1 0.34807 ± 0.96818
B2 -0.15123 ± 0.06406
B3 9.20422E-4± 0.00117
R Squared (COD) 0.99342

Variation equation of theweft strength loss rate of natural-color stock fabric with the water immersion time

Item Value
Equation y = a + b*x^c
a -4761.23452 ± 240347.01947
b 4751.43356 ± 240340.24304
c 0.00329 ± 0.16514
R Squared (COD) 0.9671

Cotton stock fabric test sample specifications

Parameter Natural-color Stock Fabric Black Stock Fabric
Composition (%) Cotton 100 Cotton 100
Weave Woven Woven
Width (cm) 162cm 157cm
Weight (g/m2) 120.8 136.1
Category Plain Poplin
Warp (/10 in) 281 482
Weft (/10 in) 252 210
Sample
Sample size (mm) 250 × 50 250 × 50
SEM (100×)

Fracture appearance of cotton stock fabric after water immersion

Time (day) SEM (100×)
Time SEM (100×) Time SEM (100×)

Variation equation of the warp-breaking strength of natural-color stock fabric with the water immersion time.

Item Value
Equation y = Intercept + B1*x^1 + B2*x^2 + B3*x^3
Intercept 416.81931 ±2.30958
B1 -2.98305 ± 0.57912
B2 0.12271 ± 0.03832
B3 -0.00303 ± 6.9863E-4
R Squared (COD) 0.99213

Variation equation of the warp strength loss rate of natural-color stock fabric with the water immersion time

Item Value
Equation y = a + b*x^c
a 2.82614 ± 0.69975
b 0.01178 ± 0.01136
c 2.0436 ± 0.26749
R Squared (COD) 0.97772

Variation equation of the weft-breaking strength of natural-color stock fabric with the water immersion time

Item Value
Equation y = Intercept + B1*x^1 + B2*x^2 + B3*x^3
Intercept 361.06445 ± 5.59434
B1 -13.77009 ± 1.40277
B2 0.41888 ± 0.09282
B3 -0.00453 ± 0.00169
R Squared (COD) 0.98841

Variation equation of the weft strength loss rate of black stock fabric with the water immersion time

Item Value
Equation y = a + b*x^c
a -1.30967 ± 1.99386
b 1.02445 ± 0.4266
c 1.06488 ± 0.10863
R Squared (COD) 0.9921