TWM458941U - Three-dimensional electrically conductive fabric structure - Google Patents

Description

Three-dimensional conductive fabric structure

The present invention relates to a three-dimensional conductive fabric structure, in particular to a three-dimensional conductive fabric structure having both elastic and conductive effects.

As shown in FIG. 1 , the detecting element 1 for physiological detection includes a base layer 10 and a conductive layer 11 disposed on the base layer. When used, the conductive layer is applied to the human skin to detect the human body. However, the conductive layer 11 of the detecting element 1 has poor elasticity and poor electrical conductivity with human skin, so that it is impossible to detect the signal emitted by the human body and is uncomfortable to wear, as shown in Fig. 2. The edge is improved by adding an elastic layer 12 between the conductive layer 11 and the base layer 10, and the elastic layer 12 is used to improve the adhesion between the conductive layer 11 and the human skin, and at the same time is made of a moisturizing material. It has a moisturizing effect at the same time, so as to improve the conductive effect of the conductive layer 11, however, since the elastic layer 12 and the conductive layer 11 are separated by two layers, when the elastic layer 12 is intended to absorb the external moisture, it is required to pass through the conductive layer 11, The water absorbing effect is affected. When the elastic layer 12 releases moisture between the conductive layer 11 and the human skin, it is also blocked by the conductive layer 11 to affect its moisture release. Further, since the elastic layer 12 and the conductive layer 11 are borrowed Combined by external force (such as bonding) , So long separated readily under the influence of high humidity elastic layer 12, detection element 1 will also lose their effectiveness.

In view of this, the creator is devoted to research and design, and can provide a structure with elasticity, conductivity and moisturizing effect to achieve the purpose of improving conductive quality and product life. , for the creative motives of the creative research.

The main purpose of the present invention is to provide a three-dimensional conductive fabric structure which is integrally formed and has elasticity and electrical conductivity.

The secondary purpose of this creation is to provide a three-dimensional conductive fabric structure with moisturizing effect.

In order to achieve the above object, the three-dimensional conductive fabric structure of the present invention comprises an elastic conductive structure, which is formed by interlacing a plurality of first structural yarns, a plurality of first elastic yarns and a plurality of conductive yarns, wherein a first structure The yarn is woven with the first elastic yarn in the same strand and is woven with a conductive yarn; a base structure is formed by interlacing a plurality of second structural yarns and a second elastic yarn, and a second structural yarn and a strip. The second elastic yarn is woven in the same strand; and a supporting structure is composed of a plurality of first supporting yarns and a plurality of second supporting yarns, and is connected between the elastic conductive tissue and the base tissue, wherein each a support yarn is woven with a first structural yarn and a first elastic yarn in the same strand, and then extended to the base structure and a second structural yarn and a second elastic yarn are woven together, each second support yarn step and A conductive yarn is woven in the same strand, and then extended to the base structure to be woven by a second structural yarn and a second elastic yarn which are spaced apart from the first support yarn weave.

The three-dimensional conductive fabric structure, wherein the first structural yarns and the second structural yarns are polyester yarn, porous fiber yarn, sodium alginate fiber yarn, carboxymethyl cellulose fiber yarn, and One of the fiber yarns.

The three-dimensional conductive fabric structure is described, wherein the conductive yarns are one of metal fiber yarns, carbon nanotube fibers, and carbon fiber yarns.

In the three-dimensional conductive fabric structure, the first elastic yarns and the second elastic yarns are polyurethane elastic yarns.

The three-dimensional conductive fabric structure is described, wherein the first support yarns and the second support yarns are one of a polyester yarn and a nylon yarn.

The three-dimensional conductive fabric structure is described, wherein the first structural yarns, the first elastic yarns, and the conductive yarns are interwoven by the knitting method into the elastic conductive tissue.

The three-dimensional conductive fabric structure is described, wherein the second structural yarns and the second elastic yarns are interwoven by the knitting method into the base layer organizer.

The three-dimensional conductive fabric structure as described above is integrally woven into the three-dimensional conductive fabric structure by the elastic conductive structure, the base layer structure and the supporting tissue structure to have both elastic and conductive effects in the same planar body fabric, and The structure yarn which has a moisturizing effect by blending has the effect of moisturizing at the same time.

In order to further understand the features, features and technical contents of the present invention, please refer to the following detailed description of the present invention and the accompanying drawings, which are only for reference and description, and are not intended to limit the present invention.

<知知>

1‧‧‧Detecting components

10‧‧‧ grassroots

11‧‧‧ Conductive layer

12‧‧‧Elastic layer

<this creation>

20‧‧‧Elastic conductive organization

30‧‧‧Support organization

40‧‧‧ grassroots organizations

200‧‧‧First structural yarn

201‧‧‧First elastic yarn

202‧‧‧Conductor yarn

300‧‧‧First support yarn

301‧‧‧second support yarn

400‧‧‧Second structural yarn

401‧‧‧Second elastic yarn

Figure 1 is a side view of a conventional detection element for physiological detection.

Figure 2 is a side view of a conventional detection element for physiological detection.

Fig. 3 is a schematic view showing the structure of the three-dimensional conductive fabric.

Fig. 4 is a partially enlarged perspective view showing the structure of the three-dimensional conductive fabric.

Figure 5 is a partially enlarged side cross-sectional view showing the structure of the three-dimensional conductive fabric.

Please refer to FIG. 3, which is a perspective view of the three-dimensional conductive fabric structure. As shown in the figure, in the present embodiment, the three-dimensional conductive fabric structure of the present invention comprises an elastic conductive structure 20, a supporting structure 30 and a base layer. The tissue 40 is integrally formed into the three-dimensional conductive fabric structure, and the support structure 30 is located between the elastic conductive structure 20 and the base tissue 40 and connects the two.

Please refer to FIG. 4, which is a partially enlarged perspective view of the three-dimensional conductive fabric structure of the present invention; as shown, the elastic conductive structure 20 is composed of a plurality of first structural yarns 200, a plurality of first elastic yarns 201 and a plurality of strips. The conductive yarns 202 are interlaced, wherein a first structural yarn 200 is knitted in the same strand as the first elastic yarn 201, and is woven with a conductive yarn 202. In addition, the first structural yarns 200, the first An elastic yarn 201 and the conductive yarns 202 are interlaced into the elastic conductive structure 20 by knitting; the base structure 40 is interlaced by a plurality of second structural yarns 400 and a second elastic yarn 401, and A second structural yarn 400 and a second elastic yarn 401 are knitted in the same strand; the supporting structure 30 is composed of a plurality of first supporting yarns 300 and a plurality of second supporting yarns 301, and is connected to the elastic conductive structure 20 And the base structure 40, wherein each of the first support yarns 300 is woven with a first structural yarn 200 and a first elastic yarn 201 in the same strand, and then extended to the base structure 40 and a second structural yarn 400. And a second bomb The yarns 401 are woven with the same strands, and each of the second support yarns 301 is knitted with the same one of the conductive yarns 202, and then extended to the base structure 40 and the first support yarn weaving portion is separated by a second structural yarn 400 and a first The two elastic yarns 401 are woven in the same strand, and the first supporting yarns 300 and the second supporting yarns 301 are alternately configured to make the three-dimensional conductive fabric structure of the present invention more elastic, and the wearer can be more comfortable when used as a wearing object. In addition, the first support yarns 300 and the second ones The micro-chamber formed by the support yarn 301 also has a moisturizing effect, which contributes to an improvement in the electric conduction effect.

Please refer to FIG. 5 , which is a partially enlarged side sectional view of the three-dimensional conductive fabric structure of the present invention; as shown, the elastic conductive structure 20 is composed of a plurality of first structural yarns 200 , a plurality of first elastic yarns 201 , and A plurality of conductive yarns 202 are interlaced, and a first structural yarn 200 is woven in the same strand as a first elastic yarn 201, and is woven with a conductive yarn 202. Therefore, when the entire three-dimensional conductive fabric structure is woven, the yarn is completed. The pulling force on the line disappears, at which time the first elastic yarn 201 is tightened and the conductive yarn 202 is pressed outward, so that the conductive yarn 202 protrudes more than the surface of the entire elastic conductive structure 20, which ensures that when the fabric is in contact with the human body, The conductive yarn 202 is first brought into contact with the human body, so that the three-dimensional conductive fabric structure of the present invention has a better detection effect.

The first structural yarns 200 and the second structural yarns 400 are polyester yarns, porous fiber yarns, alginate fiber yarns, and carboxymethyl cellulose fibers. One of carboxymethyl cellulose fiber yarn and rayon fiber yarn, in which porous fiber yarn, sodium alginate fiber yarn, carboxymethyl cellulose fiber yarn, and crepe fiber yarn have a moisturizing effect. Therefore, when the first structural yarn 200 and the second structural yarn 400 are selected from the four materials, the three-dimensional conductive fabric structure of the present invention can simultaneously have the functions of elasticity, moisturizing and electric conduction.

The first elastic yarns 201 and the second elastic yarns 401 are polyurethane elastic yarns, and the conductive yarns 202 are metal fiber yarns and carbon nanotubes. The first support yarn 300 and the second support yarns 301 are one of a polyester yarn and a nylon yarn.

The above description is only a preferred and feasible embodiment of the present invention, and thus is not limited to the original The scope of the patents, the equivalent structural changes made by the use of this creation manual and the contents of the drawings are all included in the scope of this creation and are combined with Chen Ming.

20‧‧‧Elastic conductive organization

30‧‧‧Support organization

40‧‧‧ grassroots organizations

200‧‧‧First structural yarn

201‧‧‧First elastic yarn

202‧‧‧Conductor yarn

300‧‧‧First support yarn

301‧‧‧second support yarn

400‧‧‧Second structural yarn

401‧‧‧Second elastic yarn

Claims (8)

A three-dimensional conductive fabric structure comprises: an elastic conductive structure, which is formed by interlacing a plurality of first structural yarns, a plurality of first elastic yarns and a plurality of conductive yarns, wherein a first structural yarn and a first elastic yarn The yarn is woven with the same strand and woven with a conductive yarn; a base structure is formed by interlacing a plurality of second structural yarns and a plurality of second elastic yarns, and a second structural yarn and a second elastic yarn And a support structure, comprising a plurality of first support yarns and a plurality of second support yarns, and connected between the elastic conductive structure and the base tissue, wherein each of the first support yarns And a first structural yarn and a first elastic yarn are woven in the same strand, and then extended to the base structure and woven with a second structural yarn and a second elastic yarn, each of the second supporting yarns and a conductive yarn The same strand is woven, and then extended to the base layer tissue and the first support yarn weaving portion is spaced apart from the first structural yarn and the second elastic yarn is woven in the same strand. The three-dimensional conductive fabric structure according to claim 1, wherein the first structural yarns and the second structural yarns are polyester yarn, porous fiber yarn, sodium alginate fiber yarn, and carboxymethyl group. One of cellulose fiber yarns and rayon yarns. The three-dimensional conductive fabric structure according to claim 1, wherein the conductive yarns are one of a metal fiber yarn, a carbon nanotube fiber yarn and a carbon fiber yarn. The three-dimensional conductive fabric structure of claim 1, wherein the first elastic yarns and the second elastic yarns are polyurethane elastic yarns. The three-dimensional conductive fabric structure of claim 1, wherein the first support yarns and the second support yarns are one of a polyester yarn and a nylon yarn. The three-dimensional conductive fabric structure according to claim 1, wherein the first structural yarns, the first elastic yarns, and the conductive yarns are interlaced by the knitting method into the elastic conductive structure. The three-dimensional conductive fabric structure of claim 1, wherein the second structural yarns and the second elastic yarns are interwoven by the knitting method into the base layer organizer. The three-dimensional conductive fabric structure of claim 1, wherein the conductive yarns protrude from the surface of the entire elastic conductive structure.