Graphene laminated rubber glove and preparation method thereof

A technology of rubber gloves and graphene film, which is applied in the direction of gloves, conjugated diene coatings, clothing, etc., can solve the problems of rubber penetration (local penetration holes, rubber surface breaking, and webbing between fingers, etc., to ensure labor Protective effect, uniform, continuous and smooth rubber material, improving the effect of anti-friction

Active Publication Date: 2018-09-04
SHANDONG XINGYU GLOVES
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

Such a high-viscosity mucilage is not only difficult to add various compounding agents (even if added, the dispersion uniformity is very poor), but also a series of quality problems caused by too high viscosity, such as the extremely poor wetting ability of the mucilage, Glove embryos are difficult to dip and evenly glue. After drying, the gloves will have quality problems such as glue peeling and webbing between fingers.
To add graphene and to control the viscosity, either the amount of graphene added is controlled below 0.1%, so that the overall performance of the glove is not significantly improved; or the latex surface tension is reduced by adding synergists (such as Span, Tween, etc.) Multi-graphene dissolves into the slurry, and the addition of synergists is also easy to cause problems such as glue penetration and cracking
[0004] Tracing it to its cause, mainly lies in: (1) graphene specific surface area is very big, and only has solubility in non-polar solvent, therefore adds in the inside of l...

Method used

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  • Graphene laminated rubber glove and preparation method thereof
  • Graphene laminated rubber glove and preparation method thereof

Examples

Experimental program
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Effect test

Embodiment 1

[0039] Step S1: Prepare graphene-free glue: After mixing 100 parts by weight of pre-vulcanized nitrile latex with 2 parts of CMC (2% mass fraction), the obtained glue has a viscosity of 1800 mpa.s.

[0040] Step S2: immerse the knitted glove embryo at 50°C in 2.5% calcium nitrate methanol solution coagulant, and then immerse in the coagulant prepared in step S1, drip glue for 18 seconds, and homogenize the glue for 50 seconds.

[0041] Step S3: preparing graphene-latex dispersion: 100 parts by weight of chemically oxidized exfoliated graphene (10nm-100nm), 150 parts of presulfurized nitrile latex and 2000 parts of water were mixed to obtain graphene-latex dispersion.

[0042] Step S4: dipping the rubberized glove embryo treated in step S2 into the graphene-latex dispersion prepared in step S3, dripping glue for 20 seconds, and homogenizing glue for 50 seconds.

[0043] Step S5: vulcanization and drying, followed by low-temperature vulcanization at 80° C. for 30 minutes, and hi...

Embodiment 2

[0047] Step S1: Prepare graphene-free mortar: 120 parts by weight of pre-vulcanized nitrile latex, mixed with 1 part of potassium oleate, added and mixed with 4 parts of CMC (2% mass fraction), the obtained viscosity is 2100mpa. s foaming glue.

[0048] Step S2: Immerse the knitted glove embryo at 45°C in a 3% calcium chloride methanol solution coagulant, and then immerse it in the foaming glue prepared in step S1, drip glue for 20 seconds, and homogenize the glue for 60 seconds .

[0049] Step S3: Preparation of graphene-latex dispersion: 120 parts by weight of chemically oxidized exfoliated graphene (10nm-100nm), 300 parts of pre-sulfurized nitrile latex and 3000 parts of water were mixed to obtain a graphene-latex dispersion.

[0050] Step S4: dipping the rubberized glove embryo treated in step S2 into the graphene-latex dispersion prepared in step S3, dripping glue for 40 seconds, and homogenizing glue for 100 seconds.

[0051] Step S5: vulcanization and drying: firstly ...

Embodiment 3

[0055] Step S1: prepare graphene-free glue: mix 90 parts by weight of pre-vulcanized neoprene latex with 0.5 part of sodium ricinoleate, 1 part of silicone oil emulsion anti-adhesive agent, add and mix with 0.5 part of PVA to obtain the viscosity It is a foaming glue of 1600mpa.s.

[0056] Step S2: Immerse the knitted glove embryos at 55°C in 3% zinc chloride methanol solution coagulant, perform the dipping coagulant treatment, and then immerse in the foamed glue prepared in step S1, drip glue for 20 seconds, and homogenize the glue for 80 seconds .

[0057] Step S3: Preparation of graphene-latex dispersion: 90 parts by weight of chemically oxidized exfoliated graphene (10nm-100nm), 160 parts of presulfurized chloroprene latex and 2500 parts of water were mixed to obtain a graphene-latex dispersion.

[0058] Step S4: immerse the rubberized glove embryo treated in step S2 in the graphene-latex dispersion prepared in step S3, drip glue for 30 seconds, and glue uniformly for 90 ...

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Abstract

The invention relates to a graphene laminated rubber glove which comprises a glove blank, a rubber layer and a graphene membrane layer, wherein the rubber layer is adhered to the outer surface of theglove blank; the graphene membrane layer covers the outer surface of the rubber layer; the rubber layer is made of graphene-free foamed rubber or non-foamed rubber. A preparation method of the glove comprises the following steps: preparing graphene-free rubber slurry, and soaking a knitted glove blank into the rubber slurry; preparing a graphene-latex dispersion, and further soaking the glove blank soaked into the rubber slurry into the graphene-latex dispersion; performing vulcanization drying, thereby obtaining the graphene laminated rubber glove. Due to secondary soaking, the rubber slurryof primary soaking is cured to form a rubber body structure part of the glove, and then the quality of the main body structure can meet related standards (EN388) and ensure basic working protection functions of gloves; due to secondary soaking, a graphene laminated membrane can be formed, so that a rubber surface formed by primary soaking can be protected, and various overall properties of a gloveproduct can be improved.

Description

technical field [0001] The invention relates to a preparation method of gloves, in particular to a graphene-coated rubber glove and a preparation method thereof. Background technique [0002] As a single atomic layer material, graphene is the thinnest two-dimensional material found so far, its theoretical thickness is only 0.35nm, and graphene has a large specific surface area of ​​2600m 2 / g and elastic modulus of 1000Gpa, often used in physics, materials, electronic information, computers and other fields. The modulus of elasticity is an index to measure the difficulty of elastic deformation of the material. The larger the value, the greater the stiffness of the material. Graphene is added to rubber to increase the friction resistance, high strength, antibacterial properties of rubber products, improve the mechanical strength of rubber and many other functions. But there are not many existing technologies for applying it to rubber gloves at present, and the technology is...

Claims

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Application Information

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IPC IPC(8): D06N3/00A41D19/015C09D109/02C09D7/61
CPCA41D19/0055C09D109/02C09D7/61D06N3/0009D06N3/005D06N3/0059D06N3/0077D06N3/10D06N2209/103D06N2209/105D06N2209/1671D06N2211/103C08K3/042
Inventor 周星余孙永峰
Owner SHANDONG XINGYU GLOVES
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