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Corrosion-resistant high-strength high-modulus fiber and fabric prepared therefrom

A high-strength, high-modulus, corrosion-resistant technology, applied in fabrics, textiles, textiles, and papermaking, can solve problems such as low shear modulus, low elastic modulus, room temperature creep, etc., and achieve high shear modulus, elastic High modulus, not easy to aging effect

Active Publication Date: 2016-03-02
NANJING FIBERGLASS RES & DESIGN INST CO LTD
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

[0003] With the continuous development of shipbuilding and other industrial technologies, the domestic demand for corrosion-resistant materials has been expanding in recent years. Traditional GFRP ship material reinforcement substrates are mainly non-alkali fibers. The main problems of ordinary non-alkali glass fiber reinforced composite materials are as follows , which limits the application of GFRP in the field of ships, especially large ships
1) Ordinary alkali-free fiber-reinforced GFRP materials have low elastic modulus, lower shear modulus, and low interlaminar shear strength, which limit their application in large ships; 2) Compared with traditional steel materials, alkali-free GFRP is resistant to Corrosion performance and anti-fouling performance have been improved, but China's sea area is vast, and the marine environment is quite different from the north to the south. Ordinary alkali-free fiber GFRP has poor long-term temperature resistance and corrosion resistance, and there is aging phenomenon; 3) Ordinary alkali-free GFRP materials have room temperature creep. The deformation phenomenon has a great influence on the hull material after molding

Method used

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  • Corrosion-resistant high-strength high-modulus fiber and fabric prepared therefrom
  • Corrosion-resistant high-strength high-modulus fiber and fabric prepared therefrom
  • Corrosion-resistant high-strength high-modulus fiber and fabric prepared therefrom

Examples

Experimental program
Comparison scheme
Effect test

Embodiment 1

[0033] The raw material components of glass fiber are listed in Table 1. The fiber is drawn by a general-purpose crucible or pool kiln, and the glass fiber is drawn into a 24tex strand. 72tex warp yarn and weft yarn are produced through untwisting and twisting process, and the formula of the high-strength and high-modulus compound sizing agent used is shown in Table 2 (when using, mix each component to get final product); Synthesize the warp head; use a rapier loom to weave according to the two-up and two-down twill weaving process, and the surface weight is 220g / m 2 Corrosion-resistant high-strength high-modulus fiberglass fabric. The fabric structure is twill. Embodiment one in the accompanying drawings refers to the present embodiment 1.

[0034] Table 1

[0035] Formulation components Proportion, mass% SiO 2 63.6 Al 2 O 3 16 MgO 9 CaO 8 Li 2 O 0.5 TiO 2 2 Impurities (Na 2 O:K 2 O: Fe 2 o 3 : ZrO 2 =3:1:...

Embodiment 2

[0039] The raw material components of glass fiber are listed in Table 3. The fiber is drawn by a general-purpose crucible or pool kiln, and the glass fiber is drawn into a 24tex strand. 72tex warp yarn and weft yarn are produced through the process of untwisting and twisting, and the formula of the high-strength and high-modulus compound sizing agent used is shown in Table 4 (when using, mix the components to get final product); the warp yarn produced is warped, worn Synthesize the warp head; use a rapier loom to weave according to the two-up and two-down twill weaving process, and the surface weight is 220g / m 2 Corrosion-resistant high-strength high-modulus fiberglass fabric. The weave structure is satin.

[0040] table 3

[0041]

[0042]

[0043]Table 4

[0044]

Embodiment 3

[0046] The raw material components of the glass fiber are listed in Table 5. The fiber is drawn by a common crucible or a pool kiln, and the glass fiber is drawn into a 24tex strand. The 72tex warp and weft yarns are made in the unwinding and twisting process. The formula of the high-strength and high-modulus compound sizing agent used is shown in Table 6 (when using, mix the components to obtain); The heald is made into the warp yarn pan head; the rapier loom is used to weave the surface weight of 220g / m according to the two-up and two-down twill technique. 2 Corrosion-resistant high-strength high-modulus fiberglass fabric. The fabric structure is twill.

[0047] table 5

[0048] Formulation components Proportion, mass%

[0049] SiO 2 58 Al 2 O 3 15 MgO 14 CaO 10 Li 2 o 1 TiO 2 1.5 Impurities (Na 2 O: Fe 2 O 3 : ZrO 2 =1:3:1 (mass ratio)) 0.5 Acid resistance 10% sulfuric acid solution, 98℃, 24...

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Abstract

The invention discloses a corrosion-resistant high-strength high-modulus fiber and a fabric prepared therefrom. The corrosion-resistant high-strength high-modulus fiber is composed of the following components: SiO2: 55-65%, Al2O3: 12-18%, MgO: 8 ~14%, CaO: 5~13%, Li2O: 0.2~1%, TiO2: 1~2%, and the balance is impurities, and the stated percentages are mass percentages. The fabric obtained in the present invention has high strength, high elastic modulus, high shear modulus, long-term temperature resistance, good corrosion resistance, and is not easy to age, and there is no room temperature creep phenomenon in composite material products; high-strength and high-modulus compound sizing agent for wire drawing Directly coated with raw silk, after making high-strength and high-modulus fabric, it can be directly compounded with resin, and the fabric does not need to be post-treated; the structure of the glass fiber fabric of the present invention is preferably twill or satin, suitable for various post-processing such as hand lay-up or vacuum-assisted molding. processing technology.

Description

technical field [0001] The invention relates to a corrosion-resistant high-strength high-modulus fiber and a fabric prepared therefrom, belonging to the field of high-performance glass fiber products. Background technique [0002] In 1958, China's first polyester GFRP (fiberglass reinforced plastic composite) working boat was successfully developed in Shanghai. In the following year, Beijing successfully manufactured the first epoxy GFRP motorboat in China, which opened the prelude to GFRP shipbuilding in southern and northern China. . After more than 50 years of development, hundreds of GFRP shipyards have been formed in China, and the annual production capacity of GFRP boats has reached 7,000 to 8,000. It has been included in the national key scientific and technological research plan, which has strongly promoted the application of GFRP in the field of ships. [0003] With the continuous development of shipbuilding and other industrial technologies, the domestic demand f...

Claims

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Application Information

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Patent Type & Authority Patents(China)
IPC IPC(8): C03C13/02D03D15/00C03C25/36D03D15/242D03D15/50D03D15/513D03D15/56D03D15/573
CPCC03C3/087C03C13/00
Inventor 祖群宋伟刘颖黄松林刘劲松张焱朱斌吴中华
Owner NANJING FIBERGLASS RES & DESIGN INST CO LTD
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