All-fiber fabric generator, functional textile and intelligent wearing clothes

Abstract

The utility model relates to the field of power generation, and discloses an all-fiber fabric generator, a functional textile and intelligent wearing clothes. The all-fiber fabric generator comprises at least two friction layers and at least one group of conductive fibers, the conductive fibers are single fibers, and the conductive fibers are connected with the at least one friction layer to collect charges generated by mutual friction between the friction layers. The all-fiber generator can efficiently collect mechanical energy on the premise of not sacrificing the wearing comfort of clothes, and has multiple functions of purifying air, inhibiting bacteria and the like. The functional textile can be applied to various industries, such as fire fighting, extreme outdoor and the like; the all-fiber fabric generator can provide a micro power supply for intelligent equipment.

Description

TECHNICAL FIELD

[0001] The utility model relates to the field of power generation, in particular to full-fiber fabric generator, functional textile and intelligent wear clothing. BACKGROUND

[0002] With the progress of science and technology and the increasing demand of consumers for intelligent products, wearable technology and smart clothing industry gradually rise. It can realize body parameter monitoring, environment perception, data acquisition and processing, communication interaction and other functions by integrating electronic technology and sensors, greatly convenient people's lifestyle. However, the energy supply of numerous electronic devices is an important problem. Compared with the traditional battery energy supply mode, the full-fiber fabric generator integrated into the clothes becomes the first choice of the energy supply mode of intelligent clothing due to its simple structure, rich material selection and green environmental protection and other advantages.

[0003] In order to realize the function of energy collection, the main structure of the full-fiber fabric generator at present is composed of multiple layers of plane combination, generally including surface layer (for waterproof and antifouling), functional layer (for power generation), surface electrode layer (output end) and bottom layer (breathable and moisture permeable). Part of the work can also be realized by the above functions through the multi-layer core sheath structure of single fiber. However, they have the following problems: 1, the manufacturing process is complicated and complex, usually relying on electrospinning or coating process multi-step synthesis, following the "line-surface-body" construction process; 2, wearing discomfort, the multi-layer plane structure will weaken the air permeability and moisture permeability of the clothes, and the structural stability will also decrease after multiple uses; 3, only with the single function of collecting energy. In addition, the problem of metal content and metal toxicity also needs to be considered in the preparation process of the surface electrode.

[0004] Therefore, it is of great significance to develop a multifunctional full-fiber fabric generator with simple structure and without affecting the wearing comfort for intelligent clothing and wearable technology. INVENTION CONTENTS

[0005] The utility model aims at overcoming the problems of the prior art that the full-fiber fabric generator has complex structure, insufficient wearing comfort and single function, and provides a full-fiber fabric generator, functional textile and intelligent wear clothing, which has the advantages of high-efficiency collection of mechanical energy without sacrificing the wearing comfort of clothes, multiple functions such as air purification and antibacterial, and application in functional textile and intelligent wear clothing.

[0006] In order to achieve the above-mentioned purpose, the utility model provides a full-fiber fabric generator in one aspect, which comprises a friction layer and a conductive fiber, the conductive fiber is a single fiber, the friction layer is at least two layers, the conductive fiber is at least one group, and the conductive fiber is connected with at least one layer of friction layer to collect the electric charge generated by the mutual friction between the friction layers.

[0007] The full-fiber fabric generator has simple structure, and can collect the generated triboelectric charges under the condition that at least one conductive fiber and at least two friction layers have relative movement.

[0008] Preferably, the friction layer comprises a first friction layer and a second friction layer, and the first friction layer and the second friction layer have different electron gain and loss abilities, so that the first friction layer and the second friction layer generate electrons with opposite charges after friction.

[0009] Under the condition that the electron gain and loss abilities of the friction layers are different and have a large gap, because the electron gain and loss abilities are different, equal and opposite triboelectric charges are generated on the surfaces of the first friction layer and the second friction layer. In addition, when the two kinds of fabrics as the friction layers have relative movement, the interface between the fabric of the first friction layer and the fabric of the second friction layer has electrostatic breakdown due to the existence of a high static field, resulting in a change in the charge distribution state, and finally forming opposite net charge distributions and opposite potential regions at the two ends of the second friction layer, so that the conductive fiber is cyclically in different potential regions, thereby outputting alternating current.

[0010] Preferably, the conductive fiber is embedded in the friction layer by weaving or knitting.

[0011] The weaving or knitting mode can make the conductive fiber fully contact with the friction layer to collect the charges generated after the friction of the friction layers.

[0012] Preferably, the conductive fiber is connected with the first friction layer and / or the second friction layer.

[0013] The connection of the conductive fiber and the friction layer has various modes, the conductive fiber can be woven into the first friction layer and the second friction layer respectively, or the conductive fiber can be woven into one of the single-layer friction layers such as the first friction layer or the second friction layer, and the selection can be made according to actual needs, thereby providing various choices for the application of the full-fiber fabric generator.

[0014] The second aspect of the utility provides a functional textile comprising the full-fiber fabric generator and the electronic device, and the full-fiber fabric generator and the electronic device are connected with a rectifier.

[0015] The functional textile is provided with the full-fiber fabric generator, and the electronic device required can be connected externally, the alternating current collected by the full-fiber fabric generator can be converted into direct current by the rectifier, and the electronic device is provided with a micro power supply. The functional textile can be applied to various industries such as fire fighting and extreme outdoor activities, and the electronic device can be selected according to the functional requirements.

[0016] The third aspect of the utility model provides a kind of intelligent wear clothing, including the all-fiber fabric generator of preceding.

[0017] The all-fiber fabric generator can provide micro power supply for intelligent devices, and a rectifier needs to be connected between the all-fiber fabric generator and the terminal electronic device.

[0018] Preferably, the friction layer is located at different parts of the garment.

[0019] Providing the friction layer at different parts of the garment is one embodiment of the friction layer. This design drives the garment fabric to move and rub at different parts of the human body, and the all-fiber fabric generator can efficiently collect the electric charge generated by the mechanical energy of the human body.

[0020] Preferably, the friction layer is located at the same part of the garment, and the friction layers are connected to the same part of the garment.

[0021] Providing the friction layer at the same part of the garment is another embodiment of the friction layer. In the case of natural movement of the human body, the overlapping multiple friction layers are driven to rub against each other to generate electric charge.

[0022] Preferably, the first sleeve part of the upper garment is provided with a first friction layer, the second sleeve part is provided with a second friction layer, and the first friction layer and / or the second friction layer is provided with conductive fibers.

[0023] In the embodiment of providing the friction layer at different parts of the intelligent wear garment, providing the friction layer on the two sleeve parts of the garment is one way of arranging the friction layer. After wearing the garment on the body, the all-fiber fabric generator can collect mechanical energy through the mutual friction of the two arms.

[0024] Preferably, the first sleeve part of the upper garment is provided with a first friction layer, the second sleeve part is provided with a second friction layer, and the first friction layer and / or the second friction layer is provided with conductive fibers.

[0025] In the embodiment of providing the friction layer at different parts of the intelligent wear garment, providing the friction layer on the two sleeve parts of the garment and the two leg parts of the trousers is another way of arranging the friction layer. After wearing the garment on the body, the all-fiber fabric generator can collect mechanical energy through the mutual friction of any arm and any leg.

[0026] Through the above technical solution, the all-fiber fabric generator of the utility model has a simple structure, and can collect the mechanical energy of human movement through only a single flexible conductive fiber without affecting the comfort of wearing clothes. BRIEF DESCRIPTION OF DRAWINGS

[0027] Figure 1 is a structural schematic diagram of the all-fiber fabric generator;

[0028] Figure 2 is the working principle diagram of the all-fiber fabric generator;

[0029] Figure 3 is the air permeability comparison diagram of the all-fiber fabric generator;

[0030] Figure 4 is the moisture permeability comparison diagram of the all-fiber fabric generator;

[0031] Figure 5 is the tensile property comparison diagram of the all-fiber fabric generator;

[0032] Figure 6 is the compression property comparison diagram of the all-fiber fabric generator;

[0033] Figure 7 is the washing resistance performance diagram of the all-fiber fabric generator;

[0034] Figure 8 is the abrasion resistance performance diagram of the all-fiber fabric generator;

[0035] Figure 9 is the basic electrical output performance diagram of the all-fiber fabric generator;

[0036] Figure 10 is the charge output diagram of the all-fiber fabric generator when moving and sweating;

[0037] Figure 11 is the output performance diagram of the all-fiber fabric generator with different weaving structures;

[0038] Figure 12 is the output performance diagram of the all-fiber fabric generator with different wire materials;

[0039] Figure 13 is the output performance diagram of the all-fiber fabric generator with different wire diameters;

[0040] Figure 14 is the output performance diagram of the all-fiber fabric generator with different wire positions;

[0041] Figure 15 is the concentration change diagram of PM2.5 particles in the air;

[0042] Figure 16 is the bacteriostatic rate diagram of E. coli.

[0043] Explanation of reference signs

[0044] 1, rubbing layer; 11, first rubbing layer; 12, second rubbing layer; 2, conductive fiber; 3, electrostatic breakdown; 4, moving direction of the second rubbing layer; 5, first electron flow direction; 6, second electron flow direction. DETAILED DESCRIPTION

[0045] The specific embodiments of the present application will be described in detail below with reference to the accompanying drawings. It should be understood that the specific embodiments described herein are merely intended to illustrate and explain the present application, and are not intended to limit the present application.

[0046] In the present application, the orientation words such as "up, down, left, right, inner, outer, far, near, front" used without contrary description generally refer to the orientation or position relationship shown in the drawings, and are only for the convenience of describing the present application and simplifying the description, and therefore cannot be understood as a limitation on the present application.

[0047] As shown in Figure 1 A full-fiber fabric generator is shown, which comprises a friction layer 1 and a conductive fiber 2, the conductive fiber 2 is a single fiber, the friction layer 1 is at least two layers, the conductive fiber 2 is at least one group, and the conductive fiber 2 is connected with at least one layer of the friction layer 1 to collect the electric charge generated by the mutual friction between the friction layers 1.

[0048] The full-fiber fabric generator of the present application has a simple structure, which comprises a friction layer 1 and a conductive fiber 2, wherein the friction layer 1 is at least two layers, and the two layers of the friction layer 1 generate electric charge by friction under the condition of relative movement. The full-fiber fabric generator comprises at least one group of conductive fibers 2, that is, at least one layer of the friction layer 1 is connected with the conductive fiber 2. It should be noted that only one layer of the friction layer 1 in the multiple layers of the friction layer 1 is connected with one group of the conductive fiber 2; each layer of the friction layer 1 can be connected with one group of the conductive fiber 2; or a single layer of the friction layer 1 can be connected with multiple groups of the conductive fiber 2, which can be determined according to the conductive requirement of the terminal electronic equipment.

[0049] Further, the friction layer 1 comprises a first friction layer 11 and a second friction layer 12, and the electron gain and loss abilities of the first friction layer 11 and the second friction layer 12 are different, so that the first friction layer 11 and the second friction layer 12 generate electrons with opposite charges after friction.

[0050] As shown in Figure 2 In the embodiment shown, the full-fiber fabric generator mainly comprises two parts: the conductive fiber 2 as a collection electrode and the first friction layer 11 and the second friction layer 12 as the friction layer 1. Preferably, two kinds of cloth materials with a large difference in electron gain and loss ability are selected as the materials of the friction layer 1 (electron gain cloth: cotton, polyester, nylon and leather, etc.; electron loss cloth: polytetrafluoroethylene cloth, oxford cloth, canvas, etc.), such as the first friction layer 11 selecting electron gain cloth and the second friction layer 12 selecting electron loss cloth. The mutual friction of the two kinds of cloth can generate opposite friction charges; the flexible conductive fiber 2 is selected as the collection electrode to collect the static electricity generated in the friction process of the relative movement of the friction layer 1.

[0051] The working principle of the all-fabric generator is based on the coupling of triboelectricity, electrostatic breakdown and electrostatic induction effect, and a schematic diagram is shown in FIG. Figure 2 In the initial state, two different cloth materials with different electron gain and loss abilities are in contact as the first friction layer 11 and the second friction layer 12. Figure 2 As shown in the embodiment, the upper cloth is set as the second friction layer 12, and the lower cloth is set as the first friction layer 11. Figure 2 When the two cloth materials move relative to each other, a high static electric field is generated between the interface of the cloth of the first friction layer 11 and the cloth of the second friction layer 12. Figure 2 Due to the existence of the high static electric field, electrostatic breakdown occurs, which changes the charge distribution state, and finally forms opposite net charge distribution and opposite potential regions at the two ends of the second friction layer 12. Since the potential of the conductive fiber 2 as the collection electrode is fixed and is zero, the conductive fiber 2 as the collection electrode will be in different potential regions in turn during the movement of the second friction layer 12.

[0052] Under the driving force of the potential difference, the conductive fiber 2 as the collection electrode will output alternating current based on the electrostatic induction effect. As shown in FIG.

[0053] The first electron flow direction 5 is the electron flow mode when the conductive fiber 2 is in the negative potential region, and the second electron flow direction 6 is the electron flow mode when the conductive fiber 2 is in the positive potential region.

[0054] Further, the conductive fiber 2 is embedded in the friction layer 1 by weaving or knitting.

[0055] The connection between the conductive fiber 2 and the friction layer 1 can be achieved by hand weaving or embedding during fabric weaving, or by weaving into the fabric as the friction layer 1 by knitting, so that the conductive fiber 2 is in full contact with the friction layer 1 to collect the charges generated after friction.

[0056] The all-fabric generator provided by the utility model can collect human motion mechanical energy through only a single flexible conductive fiber 2 without affecting the wearing comfort (air permeability, moisture permeability, stretching performance and compression performance) of clothes, and solves a series of problems such as comfort, washing and mechanical stability caused by traditional planar electrodes.

[0057] Specifically, in practical applications, the commercial conductive fiber 2 can be sewn into the clothing fabric to efficiently collect static electricity through the triple coupling effect of triboelectricity, electrostatic breakdown 3 and electrostatic induction. Taking commercial cotton and Teflon cloth as the material of the friction layer 1 as an example, an average power density of 320 mWm -2 Hz -1 is obtained, which is 2 times higher than the previous full-fiber fabric generator based on electrostatic charging and triboelectric volt working principle. After 20 and 10000 washing cycles in the washing machine, the fabric structure and initial charge amount can still remain stable, and the mechanical stability and electrical stability are excellent. At the same time, under the condition of human body movement and sweating, the full-fiber fabric generator can still maintain 100% of the initial electric quantity, and has very good practical application prospect. In addition, the full-fiber fabric generator can release microplasma while collecting energy, has the functions of purifying air and inhibiting bacteria, and promotes human health.

[0058] The full-fiber fabric generator of the utility model mainly consists of two parts: a friction layer 1 and a conductive fiber 2 as a collection electrode, and the basic structure diagram is as shown in Figure 1 The embodiment of the full-fiber fabric generator as shown in Figure 1 The friction layer 1 can be a commercial fabric for generating triboelectric charge; the collection electrode adopts a single conductive fiber 2 which is sewn or embedded into the fabric for collecting static electricity. The material of the friction layer 1 can be any material of commercial fabric, such as cotton and its blended fabric, linen and its blended fabric, silk and its blended fabric, wool fabric, woolen fabric, synthetic fiber, artificial fiber and leather, etc., which can be made by any preparation process, such as weaving, knitting and weaving process, etc. The material of the conductive fiber 2 of the collection electrode is a material with conductive property, such as metal fiber and its alloy fiber, etc., and the flexibility and diameter thereof can be adjusted according to actual needs.

[0059] The results of testing various performances of the full-fiber fabric generator embodiment (embedding the conductive fiber 2 into the commercial cotton cloth as an example) as shown in Figure 1 are as follows:

[0060] First, the wearing comfort of the full-fiber fabric generator:

[0061] Thanks to the simple structure of the full-fiber fabric generator, the wearing comfort of the commercial cotton cloth embedded with the conductive fiber 2 as the collection electrode is basically the same as that of the commercial cotton cloth without the embedded conductive fiber 2. The test results of air permeability and moisture permeability are as shown in Figure 3 and Figure 4The results show that the stretch and compression properties of the fabric are not affected by the embedded conductive fiber 2. The stretch property is compared as shown in Figure 5 The compression property is compared as shown in Figure 6 The compression property is compared as shown in

[0062] Second, the wash resistance and wear resistance of the all-fabric generator:

[0063] The embedding of a flexible conductive fiber 2 in commercial fabric does not destroy the original fabric structure and does not affect its inherent properties. The all-fabric generator has not been damaged after 20 standard washing machine washes, and has good mechanical stability. In addition, the electrical output performance before and after washing is tested, and the charge amount does not decrease significantly. The test data of the number of washes and the charge amount are shown in Figure 7 The output performance has not decreased after 10000 cycles, and the test data of the number of cycles and the charge amount are shown in Figure 8 The output performance has not decreased after 10000 cycles, and the test data of the number of cycles and the charge amount are shown in

[0064] Third, the energy harvesting function of the all-fabric generator:

[0065] A single flexible conductive fiber 2 is sewn into the waist of the garment to collect the mechanical energy of the human body motion of the arm swinging back and forth. A 24 square centimeter all-fabric generator outputs 120 nanocoulombs of electricity, 2 microamperes of current, and 6 kilovolts of safe voltage in one swing cycle, as shown in Figure 9 The output performance of the generator remains unchanged in the actual motion of running for half an hour and sweating, as shown in Figure 10 The output performance of the generator remains unchanged in the actual motion of running for half an hour and sweating, as shown in

[0066] The following tests are conducted on all-fabric generators with different textile processes, different parameters, and different functional effects:

[0067] First, all-fabric generators with different weaving structures:

[0068] Taking cotton fabric as an example, three different weaving processes, plain weave, twill weave, and satin weave, are used to prepare all-fabric generators, and their output performance is tested. Silver-plated nylon fiber is used as conductive fiber 2 and is woven into the cotton fabric during the weaving process. The results show that the weaving structure has little effect on the output performance, as shown in Figure 11 At the same time, the output performance of the all-fabric generator is tested by embedding conductive fiber 2 in 64 different commercial garments, all of which have good output performance. Therefore, the combination of conductive fiber 2 and any commercial fabric can realize energy harvesting and other functions, and is not limited by material and preparation process, and has excellent universality, providing more options for the industrial production of smart clothing.

[0069] Second, full-fabric generator with different specifications of conductive fiber 2:

[0070] In terms of conductive fiber 2 material, the full-fabric generator respectively uses rigid copper wire, stainless steel wire and flexible silver-plated nylon fiber (all with a diameter of 0.1 millimeter) as conductive fiber 2, and tests the difference in output performance. Because the flexible conductive fiber 2 is more flat in combination with the cloth, it has better triboelectric performance and higher output performance than the rigid conductive fiber 2, as shown in Figure 12 . At the same time, the full-fabric generator with different diameters of conductive fiber 2 is tested, and the results show that even if the diameter of the conductive fiber 2 is as small as 30 microns, the full-fabric generator still has good output, as shown in Figure 13 . In addition, the full-fabric generator with conductive fiber 2 in different positions of the cloth is tested for output performance, and the results show that the output performance of the full-fabric generator with conductive fiber 2 on the surface of the fabric is higher than that in the interior of the fabric, as shown in Figure 14 . Therefore, in actual application, the full-fabric generator preferably uses flexible conductive fiber 2 and sews it on the surface of the fabric.

[0071] Third, multifunctional full-fabric generator with air purification:

[0072] Under any structural and material parameters, the full-fabric generator can collect energy at the same time, and the presence of high static voltage can cause electrostatic breakdown 3, releasing a large amount of microplasma. Based on the principle of electrostatic adsorption, these microplasmas can adsorb dust particles such as PM2.5 in the air, and the particles can agglomerate and settle, achieving the purpose of purifying the air. In the case of working frequency 1 hertz and working for 6 minutes, the PM2.5 concentration in the air decreases from 1000 micrograms per cubic meter to 5 micrograms per cubic meter, and the relationship between PM2.5 concentration and time data is shown in Figure 15 .

[0073] Fourth, multifunctional full-fabric generator with antibacterial function:

[0074] In addition to energy collection and air purification, the full-fabric generator can also have an antibacterial effect because the microplasma contains a variety of chemically active substances that can react with the surface substances of microbial cell membranes, causing physical and chemical changes. Taking E. coli as an example, the full-fabric generator with an area of 24 square centimeters was used for 4 groups of E. coli antibacterial experiments with different concentrations at a working frequency of 1 hertz and a working time of 1 hour, and the average antibacterial rate was 45%, as shown in Figure 16 .

[0075] The utility model further provides a functional textile, including aforementioned all fibre fabric generator and electronic equipment, all fibre fabric generator and electronic equipment between connection have rectifier.

[0076] Functional textile is provided with all fibre fabric generator, can external connect required electronic equipment, through all fibre fabric generator collection obtained alternating current can be converted into direct current through rectifier, provides micro power supply for electronic equipment. Functional textile can be applied to various industries, such as fire control, extreme outdoor etc., and electronic equipment can be selected according to functional demand.

[0077] A kind of intelligent wear clothing, including aforementioned all fibre fabric generator.

[0078] The utility model further provides a kind of intelligent wear clothing, and all fibre fabric generator provides micro power supply for intelligent equipment, and rectifier is needed to be connected between all fibre fabric generator and terminal electronic equipment to guarantee stable energy supply.

[0079] Further, the friction layer 1 is located at different parts of the garment.

[0080] In the design of intelligent wear clothing, the friction layer 1 is set at different parts of the garment, which is one embodiment of the friction layer 1. This design drives the garment fabric to move and rub at different parts of the human body, and the all-fiber fabric motor can efficiently collect the electric charge generated by the mechanical energy of the human body.

[0081] Further, the friction layer 1 is located at the same part of the garment, and the friction layer 1 is connected to the same part of the garment.

[0082] In the design of intelligent wear clothing, the friction layer 1 is set at the same part of the garment, which is another embodiment of the friction layer 1. This design requires two or more layers of friction layer 1 to be connected to each other, and is located at the body part with more human body movements, such as waist. Under the condition of natural human body movement such as running, the overlapping multiple layers of friction layer 1 rub against each other to generate electric charge, and the all-fiber fabric motor can efficiently collect the electric charge generated by the mechanical energy of the human body.

[0083] Further, the first sleeve part of the upper garment is provided with a first friction layer 11, the second sleeve part is provided with a second friction layer 12, and the first friction layer 11 and / or the second friction layer 12 is provided with conductive fibers 2.

[0084] In the embodiment of setting the friction layer 1 on different parts of the smart wear clothes, the friction layer 1 is set on two groups of sleeves of the clothes, which is one setting mode of the friction layer 1, that is, the first friction layer 11 is set on the first sleeve part of the upper garment, and the second friction layer 12 is set on the second sleeve part. The conductive fiber 2 is embedded in the single-layer friction layer 1 or the conductive fiber 2 is embedded in each layer of the friction layer 1. After the clothes are worn on the body, the energy can be collected by the full-fiber fabric generator through the mutual friction of the two arms.

[0085] Further, the first friction layer 11 is set on two groups of sleeve parts of the upper garment, the second friction layer 12 is set on two groups of leg parts of the trousers, and the conductive fiber 2 is arranged in the first friction layer 11 and / or the second friction layer 12.

[0086] In the embodiment of setting the friction layer 1 on different parts of the smart wear clothes, the friction layer 1 is set on two groups of sleeves and two groups of leg parts of the clothes, which is another setting mode of the friction layer 1. The fabric of the friction layer 1 on the two groups of sleeves can be set as the fabric with the same electron loss and gain ability, and the fabric of the friction layer 1 on the two groups of leg parts can be set as the fabric with the opposite electron loss and gain ability to that of the sleeves. The conductive fiber 2 is embedded in the single-layer friction layer 1 or the conductive fiber 2 is embedded in each layer of the friction layer 1. After the clothes are worn on the body, the energy can be collected by the full-fiber fabric generator through the mutual friction of any arm and any leg.

[0087] It should be noted that each specific technical feature described in the above specific embodiments can be combined in any appropriate manner without contradiction, and to avoid unnecessary repetition, the various possible combinations are not described again in the utility model.

[0088] In addition, various different embodiments of the utility model can also be combined in any manner, as long as they do not deviate from the idea of the utility model, and they should also be considered as disclosed by the utility model.

Claims

1. A full-fiber textile electrical generator characterized in that, The friction layer (1) comprises at least two layers, and the conductive fiber (2) is at least one group, and the conductive fiber (2) is connected with at least one layer of the friction layer (1) to collect the charges generated by the mutual friction between the friction layers (1).

2. The all-fabric generator of claim 1, wherein, The friction layer (1) comprises a first friction layer (11) and a second friction layer (12), and the first friction layer (11) and the second friction layer (12) have different electron loss and gain capabilities, so that the first friction layer (11) and the second friction layer (12) generate electrons with opposite charges after friction.

3. The all-fabric generator of claim 2, wherein, The conductive fiber (2) is embedded in the friction layer (1) by weaving or knitting.

4. The all-fabric generator of claim 3, wherein, The conductive fiber (2) is connected with the first friction layer (11) and / or the second friction layer (12).

5. A functional textile, characterized in that, The full-fiber fabric generator and the electronic device are connected with a rectifier.

6. An intelligent wear garment, characterized by, The full-fiber fabric generator comprises the friction layer (1) and the conductive fiber (2).

7. The smart wear garment of claim 6, wherein, The friction layer (1) is located at different parts of the garment.

8. The smart wear garment of claim 6, wherein, The friction layer (1) is located at the same part of the garment, and the friction layer (1) is connected to the same part of the garment in an overlapping manner.

9. The smart wear garment of claim 7, wherein, The first sleeve part of the upper garment is provided with the first friction layer (11), and the second sleeve part is provided with the second friction layer (12), and the first friction layer (11) and / or the second friction layer (12) are provided with the conductive fiber (2).

10. The smart wear garment of claim 7, wherein, Two groups of sleeve parts of the upper garment are provided with the first friction layer (11), and two groups of leg parts of the trousers are provided with the second friction layer (12), and the first friction layer (11) and / or the second friction layer (12) are provided with the conductive fiber (2).

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