CN216293082U - Graphene aerogel jacket - Google Patents

Graphene aerogel jacket Download PDF

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Publication number
CN216293082U
CN216293082U CN202120173391.2U CN202120173391U CN216293082U CN 216293082 U CN216293082 U CN 216293082U CN 202120173391 U CN202120173391 U CN 202120173391U CN 216293082 U CN216293082 U CN 216293082U
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graphene aerogel
jacket
righting
graphene
aerogel
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李继娴
令狐荣鑫
卢业虎
唐颍
张睛睛
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Suzhou University
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Suzhou University
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Abstract

The utility model discloses a graphene aerogel jacket which comprises a jacket body and a graphene aerogel interlayer, wherein the graphene aerogel interlayer comprises a heat insulation layer and a graphene aerogel non-woven fabric, the jacket body comprises a jacket front body and sleeves, the jacket front body comprises a front body outer layer and a front body inner layer, the sleeves comprise sleeve outer layers and sleeve inner layers, the graphene aerogel interlayer is arranged between the front body outer layer and the front body inner layer and between the sleeve outer layer and the sleeve inner layer, the graphene aerogel non-woven fabric is a needle-punched non-woven fabric with graphene aerogel, and the graphene aerogel interlayer is arranged on the jacket front body and the sleeves at the waist and abdomen parts and the outer sides of arms of a human body. By adopting the mode, the warm-keeping performance of the jacket is ensured while the weight and the thickness of the garment are reduced, and the attractiveness and the warm-keeping performance cannot be influenced by long-term repeated washing.

Description

Graphene aerogel jacket
Technical Field
The utility model relates to the field of clothes, in particular to a graphene aerogel jacket.
Background
In the prior art, the application of graphene to textiles is mostly realized in a mode of performing after-finishing on fabrics, the mode is relatively widely applied to the research, development and preparation of functional textiles in recent years, and the functional finishing of graphene mainly has 4 application types. One is a graphene antibacterial fabric. Graphene and graphene oxide have excellent antibacterial performance, the cytotoxicity is 0 grade, the graphene and graphene oxide can be in direct contact with human skin, and the antibacterial fabric with good washing resistance can be prepared by finishing the graphene and graphene oxide on the fabric in adsorption, crosslinking and other modes. And the other is graphene conductive fabric. Graphene is the material with the smallest resistivity at present, and the excellent antistatic or conductive fabric can be prepared by processing the graphene on the fabric in a coating mode. Graphene oxide is used as a dye, the graphene oxide dyed fabric is prepared through the traditional dyeing process, and the graphene oxide dyed fabric with excellent conductivity can be obtained after reduction. And thirdly, the graphene ultraviolet-proof fabric. The graphene nanosheets are used as ultraviolet absorption materials, and the fabric is subjected to coating finishing by adopting padding and baking methods, so that the graphene coated fabric with high ultraviolet protection performance is prepared. And fourthly, the graphene flame-retardant fabric is compounded with the aminated modified graphene oxide and the flame retardant to prepare the coating, so that the flame retardant property of the composite coating can be improved, the use amount of the flame-retardant coating in the fabric is reduced, and the cost is reduced.
In addition, a subject group of professor Zhejiang university in 2013 manufactures a super-light substance, namely graphene aerogel. The material is called as the lightest material in the world, has the density of 1/6 of air, has good heat preservation performance and adsorption performance because the internal pores are abundant and are filled with air, can be used for treating offshore crude oil leakage, and can also be an ideal catalyst carrier and high-efficiency composite material. The graphene aerogel is light in weight and low in heat conductivity, so that the traditional cotton clothes filling material can be replaced by the graphene aerogel, the heat insulation performance of clothes is improved, human body movement is facilitated, and the problem of low wearability caused by the fact that the graphene aerogel is fragile is still to be solved.
The factors influencing the warm-keeping performance of the clothes mainly comprise the following aspects: thermal insulation material, clothing covering area, clothing thickness, clothing opening position, clothing composition, wearing mode and the like. Current thermal garments are constructed of multiple layers of material, primarily to improve cold resistance by changing these factors. The warm-keeping material is the most main factor influencing the warm-keeping performance of the clothes, the outer layer material of the clothes generally has a windproof function, cotton or chemical fiber materials are adopted, the filling layer mainly comprises cotton wool, down feather, chemical fiber wadding and the like, and the warm-keeping effect is achieved mainly by increasing the thickness of the clothes. Secondly, reasonable wearing layers are formed by reasonably matching the clothes, the heat-insulating capability of the clothes is effectively adjusted, the clothes generally comprise cold-proof coats, sweaters or fleece coats, shirts or T-shirts and the like, thick clothes are not beneficial to human body movement, the moisture absorption and heat-insulating performance of the clothes is reduced after movement, and the appearance is influenced by the phenomena of cotton leakage and the like caused by repeated washing. Space navigation series clothes are promoted by the aid of the pixel surge technology, and the aerogel composite thermal insulation material 'blue-odd heat' is used, so that the clothes have good cold-proof and thermal insulation performance and are lighter and thinner than traditional down jackets.
Aerogel Technologies, Inc. in the United states developed an Aerogel thermal array useful in the footwear field based on the Aerogel available from Aspen Aerogels, which is a porous material made by impregnating a silicon Aerogel into a non-woven flexible substrate, with thermal properties 2-8 times that of conventional thermal properties.
Conventional garments are usually worn with increased garment thickness, wadding or multiple layers to achieve a warming effect, which brings with it a series of disadvantages: heavy clothing can severely limit the limb movement of a wearer, reduce the normal mobility of the wearer and influence the appearance of the wearer; the clothes are compressed in the movement process, the thickness of an air layer is reduced, and the heat insulation effect is reduced; after the clothes are sweated during sports, the fibers absorb moisture, so that the warm-keeping effect of the clothes can be greatly reduced; the conventional cotton clothes are easy to run cotton after being washed for many times, the warm-keeping effect is reduced, and the appearance is influenced. The existing aerogel has the problems of powder falling and the like, the agglomeration phenomenon of nano particles can be generated after washing, the heat retention is reduced, and the aerogel felt is relatively stiff.
Therefore, the above means can not achieve the ideal wearing effect, and the design of a garment with good warm-keeping effect, comfortable wearing, light weight and no influence on limb movement is urgently needed. In view of the above-mentioned defects, the design team actively makes research and innovation to create a jacket that overcomes the above-mentioned defects, so that the jacket has industrial utilization value.
SUMMERY OF THE UTILITY MODEL
The utility model mainly solves the technical problem of providing a jacket which can reduce the weight and thickness of clothes, facilitate movement, ensure the heat preservation performance of the jacket and avoid influence on the aesthetic property and the heat preservation performance due to long-term repeated washing.
In order to solve the technical problems, the utility model adopts a technical scheme that: provides a graphene aerogel jacket, which comprises a jacket body and a graphene aerogel interlayer, wherein the graphene aerogel interlayer comprises a heat insulation layer and a graphene aerogel non-woven fabric, the jacket body comprises a jacket front body and sleeves, the jacket front body comprises a front body outer layer and a front body inner layer, the sleeves comprise sleeve outer layers and sleeve inner layers, graphene aerogel interlayers are arranged between the body-righting outer layers and the body-righting inner layers and between the sleeve outer layers and the sleeve inner layers, the graphene aerogel non-woven fabric is a needle-punched non-woven fabric with graphene aerogel, the graphene aerogel interlayer is arranged on the front body of the jacket and the outer sides of the sleeves, positioned at the waist and abdomen part and the arms of the human body, of the jacket, the graphene aerogel interlayer is provided with laser-drilled holes at the armpit, the center of the chest and the center of the back of the sleeve, which are easy to sweat.
Further, a zipper is arranged on the front surface of the jacket body.
Further, the lower edges of the body-righting outer layer and the body-righting inner layer of the jacket body are provided with zippers for opening and closing the body-righting outer layer and the body-righting inner layer.
Further, the thickness of the graphene aerogel non-woven fabric positioned on the waist and abdomen of the human body is 1.5-2.5 cm.
Further, the thickness of the graphene aerogel non-woven fabric positioned on the outer side of the arm of the human body is 1-1.5 cm.
Further, the body-righting outer layer and the sleeve outer layer are made of windproof fabrics, and the body-righting inner layer and the sleeve inner layer are made of silver point reflecting layers.
Further, the aperture of the laser-punched hole is 0.2-0.4 mm.
Further, graphene aerogel interlayers are movably arranged between the body righting outer layer and the body righting inner layer and between the sleeve outer layer and the sleeve inner layer.
Further, the sleeves are connected with the jacket body through zippers.
Furthermore, two insert pockets are arranged in front of the jacket body.
The utility model has the beneficial effects that: according to the graphene aerogel jacket, the needled non-woven fabric with the graphene aerogel is arranged on the positions, located on the waist, abdomen and outer side of the arm, of the human body, of the thermal insulation layer, on the front body and the sleeves of the jacket, and due to the characteristic of low density of the aerogel, the jacket is light and thin in garment structure, and good flexibility can be provided under the condition of limb movement. In addition, the aerogel also has the excellent characteristic of low thermal conductivity, and the aerogel is used as a heat insulation layer, so that a good warm-keeping effect is provided for a wearer in winter. Simultaneously, this novel insulating layer with acupuncture non-woven fabrics of graphite alkene aerogel can be dismantled, convenient washing, also can enlarge the temperature range of dress of this jacket simultaneously, increases the practicality. Therefore, the utility model has the advantages of lightness, thinness, no influence on limb activities, comfortable wearing, energy saving, environmental protection, safety guarantee and the like.
Drawings
Fig. 1 is a schematic diagram of the external frontal structure of the graphene aerogel jacket of the present invention;
fig. 2 is a schematic diagram of the external frontal structure of the graphene aerogel jacket of the present invention;
fig. 3 is a schematic view of the internal front structure of the graphene aerogel jacket of the present invention;
fig. 4 is a schematic view of the internal back structure of the graphene aerogel jacket of the present invention;
FIG. 5 is a cross-sectional view of the insulation layer of the graphene aerogel jacket of the present invention;
fig. 6 is a flow chart of the process of manufacturing the needle-punched non-woven fabric with graphene aerogel of the graphene aerogel jacket according to the present invention.
1. A graphene aerogel interlayer; 2. a thermal insulation layer; 3. graphene aerogel non-woven fabric; 4. the jacket is upright; 5. sleeves; 6. laser drilling; 7. a button; 8. a TPU film.
Detailed Description
The following detailed description of the preferred embodiments of the present invention, taken in conjunction with the accompanying drawings, will make the advantages and features of the utility model easier to understand by those skilled in the art, and will thus define the scope of the utility model more clearly and clearly.
Referring to fig. 1, an embodiment of the present invention includes:
the utility model discloses a graphene aerogel jacket, which comprises a jacket body and a graphene aerogel interlayer 1, wherein the graphene aerogel interlayer 1 comprises a heat insulation layer 2 and a graphene aerogel non-woven fabric 3, the jacket body comprises a jacket body 4 and sleeves 5, the jacket body 4 comprises a body-righting outer layer and a body-righting inner layer, the sleeves 5 comprise sleeve outer layers and sleeve inner layers, the graphene aerogel interlayer 1 is arranged between the body-righting outer layer and the body-righting inner layer and between the sleeve outer layer and the sleeve inner layer, the graphene aerogel non-woven fabric 3 is a needle-punched non-woven fabric with graphene aerogel, the graphene aerogel interlayer 1 is arranged on the waist and abdomen part and the outer side of the arm of a human body at the positions of the jacket body-righting 4 and the sleeves 5, the graphene aerogel interlayer 3 is arranged on the outer side of the arm, and the graphene aerogel interlayer 1 is arranged on the armpit of the human body, which is prone to sweat at the position of the sleeves, The center of the chest and the center of the back are provided with laser-drilled holes 6 at high energy density. The aperture of the laser drilling 6 is 0.2-0.4 mm. The laser drilling 6 is favorable for ventilation and is suitable for autumn and winter at the temperature of 15-minus 5 ℃.
Further, a zipper is arranged on the front surface of the jacket body 4.
Further, the lower edges of the body-righting outer layer and the body-righting inner layer of the jacket body 4 are provided with zippers for opening and closing the body-righting outer layer and the body-righting inner layer. Conveniently take out the graphite alkene aerogel intermediate layer after the dismantlement. At least one button 7 is arranged in the middle of each of the two shoulders, so that the graphene aerogel interlayer is prevented from shifting due to friction in the movement process. Meanwhile, the graphene aerogel interlayer is conveniently detached, so that the range of the taking temperature is enlarged.
Further, the thickness of the graphene aerogel non-woven fabric 3 positioned on the waist and abdomen part of the human body is 1.5-2.5 cm.
Further, the thickness of the graphene aerogel non-woven fabric 3 positioned on the outer side of the arm of the human body is 1-1.5 cm.
Further, the body-righting outer layer and the sleeve outer layer are made of windproof fabrics, and the body-righting inner layer and the sleeve inner layer are made of silver point reflecting layers.
Further, graphene aerogel interlayers 1 are movably arranged between the body-righting outer layer and the body-righting inner layer and between the sleeve outer layer and the sleeve inner layer.
Further, the sleeves 5 are connected to the jacket body 4 by zippers. The sleeves 5 can be connected with the jacket body 4 through zippers, and can be detached to be worn as waistcoats, so that the sleeves can be detached and cleaned independently.
Further, two insert pockets are arranged in front of the jacket body 4. The two handbags are two 10cm oblique insertion bags with zippers.
For example, as shown in fig. 5 and 6, the thermal insulation layer 2 is a silk floss layer, the silk floss layer 2 and the graphene aerogel non-woven fabric 3 are overlapped for 1cm and then sewn and fixed along the central line of the overlapped part, the outer surface after sewing and fixing is coated with a TPU film 8 with the thickness of 0.01-0.1mm, and the graphene aerogel interlayer 1 is formed after coating.
Further, the thermal resistance of the graphene aerogel interlayer 1 is 0.290-0.410 (DEG C. m)2) Between/w. The manufacturing steps are as follows: firstly, cutting a needle-punched non-woven fabric into small cloth pieces, then preparing a solution with the concentration of 10mg/ml from graphene oxide powder and deionized water, and carrying out ultrasonic oscillation for 1 hour to obtain a well-dispersed graphene oxide aqueous solution. And then, respectively placing the sheared needle-punched non-woven fabrics in a prepared graphene oxide aqueous solution to be completely soaked for 24 hours, and placing the graphene oxide aqueous solution filled with the needle-punched non-woven fabrics in a hydrothermal kettle at 100 ℃ in the soaking process. And taking out the needled non-woven fabric after soaking, and placing the needled non-woven fabric in liquid nitrogen at the temperature of-196 ℃ for 1h for freeze drying to obtain the needled non-woven fabric attached with the graphene aerogel, namely the graphene aerogel interlayer.
The utility model has the beneficial effects that: according to the graphene aerogel jacket, the graphene aerogel interlayers are arranged at the positions, located on the waist, the abdomen and the outer sides of the arms, of a human body, and due to the characteristic of low density of aerogel, the jacket is light and thin in garment structure and can provide good flexibility under the condition of limb movement. In addition, the aerogel has the excellent characteristic of low thermal conductivity, and the aerogel is used as a heat insulation material to provide good warm-keeping effect for a wearer in winter. Simultaneously, this novel graphite alkene aerogel intermediate layer can be dismantled, convenient washing also can enlarge the temperature range of dress of this jacket simultaneously, increases the practicality. Therefore, the utility model has the advantages of lightness, thinness, no influence on limb activities, comfortable wearing, energy saving, environmental protection, safety guarantee and the like.
The above description is only an embodiment of the present invention, and not intended to limit the scope of the present invention, and all modifications of equivalent structures and equivalent processes performed by the present specification and drawings, or directly or indirectly applied to other related technical fields, are included in the scope of the present invention.

Claims (10)

1. A graphene aerogel jacket is characterized by comprising a jacket body and a graphene aerogel interlayer, the graphene aerogel interlayer comprises a heat insulation layer and a graphene aerogel non-woven fabric, the jacket body comprises a jacket front body and sleeves, the jacket body comprises a body-righting outer layer and a body-righting inner layer, the sleeves comprise sleeve outer layers and sleeve inner layers, graphene aerogel interlayers are respectively arranged between the body-righting outer layer and the body-righting inner layer and between the sleeve outer layer and the sleeve inner layer, the graphene aerogel non-woven fabric is a needle-punched non-woven fabric with graphene aerogel, the graphene aerogel interlayer is arranged on the front body of the jacket and the outer sides of the sleeves, positioned at the waist and abdomen part and the arms of the human body, of the jacket, the graphene aerogel interlayer is provided with laser-drilled holes at the armpit, the center of the chest and the center of the back of the sleeve, which are easy to sweat.
2. The graphene aerogel jacket according to claim 1, wherein: the front of the jacket body is provided with a zipper.
3. The graphene aerogel jacket according to claim 1, wherein: the lower edges of the body-righting outer layer and the body-righting inner layer of the jacket body are provided with zippers for opening and closing the body-righting outer layer and the body-righting inner layer.
4. The graphene aerogel jacket according to claim 1, wherein: the graphene aerogel non-woven fabric located in the waist and abdomen of the human body is 1.5-2.5 cm thick.
5. The graphene aerogel jacket according to claim 1, wherein: the graphene aerogel non-woven fabric located outside the human arm is 1-1.5 cm thick.
6. The graphene aerogel jacket according to claim 1, wherein: the body-righting outer layer and the sleeve outer layer are both made of windproof fabrics, and the body-righting inner layer and the sleeve inner layer are both silver point reflecting layers.
7. The graphene aerogel jacket according to claim 1, wherein: the aperture of the laser-drilled hole is 0.2-0.4 mm.
8. The graphene aerogel jacket according to claim 1, wherein: graphene aerogel interlayers are movably arranged between the body-righting outer layer and the body-righting inner layer and between the sleeve outer layer and the sleeve inner layer.
9. The graphene aerogel jacket according to claim 1, wherein: the sleeves are connected with the front body of the jacket through zippers.
10. The graphene aerogel jacket according to claim 1, wherein: two insert pockets are arranged in front of the jacket body.
CN202120173391.2U 2021-01-22 2021-01-22 Graphene aerogel jacket Active CN216293082U (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN202120173391.2U CN216293082U (en) 2021-01-22 2021-01-22 Graphene aerogel jacket

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Application Number Priority Date Filing Date Title
CN202120173391.2U CN216293082U (en) 2021-01-22 2021-01-22 Graphene aerogel jacket

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CN216293082U true CN216293082U (en) 2022-04-15

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Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
DE202023102117U1 (en) 2023-04-21 2024-07-23 Geim s.r.o. Graphene-based dispersions
WO2024199556A1 (en) 2023-03-31 2024-10-03 Geim s.r.o. Graphene-based dispersions and dispersion application method

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
WO2024199556A1 (en) 2023-03-31 2024-10-03 Geim s.r.o. Graphene-based dispersions and dispersion application method
DE202023102117U1 (en) 2023-04-21 2024-07-23 Geim s.r.o. Graphene-based dispersions

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