Non aware type activity sensing device with conductive elastomer

The present invention relates to a non-sensing activity sensing device with a conductive elastic body, in particular, a corresponding portion of a conductive elastic body and a non-conductive elastic body which is pressed and deformed when pressed by an external force, so that the conductive elastic body can A sensing device that is in contact with the conductive fibers positioned on the non-conductive elastomer and is electrically connected to each other.

According to the decline in the global fertility rate and the improvement of the medical environment, not only the proportion of the elderly population in the world has increased significantly, but also the prevalence of chronic diseases has grown significantly. Therefore, the demand for various medical care services has also increased. . With the development of various medical care services, the physical activity monitoring technology in the home environment has also developed, so that the providers of medical care services can more instantly and comprehensively grasp the activities of the subjects (aged or chronically ill). (For example, the subject's breathing, physical activity signals, body position and posture, etc.), in order to provide the subject with the required medical care services more quickly and proactively.

In order to enable the providers of medical care services to grasp the various activities of the subjects in the home environment (such as lying in bed: sleep state, action situation and sitting condition, etc.), some related manufacturers developed and designed a kind of For the sensing device, as shown in FIG. 1 , the sensing device 1 includes two layers of elastic structures 11 , a plurality of first conductive fibers 12 (metal conductive fibers, metal compound conductive fibers or carbon black conductive fibers, etc.) and a conductive a fabric 13 in which the first conductive fibers 12 are respectively sewn to the elastic structures 11 and exposed to the elastic knots One of the side surfaces corresponding to the structure 11; the conductive fabric 13 is made of the second conductive fiber 131 and the ordinary yarn 132 (or the second conductive fiber 131 is blended with the ordinary fiber and then woven), The conductive fabric 13 is disposed between the elastic structures 11. When the sensing device 1 is pressed by an external force, the elastic structures 11 are deformed by being pressed, thereby enabling the first conductive fibers 12 to be The second conductive fibers 131 of the conductive fabric 13 are in contact with each other and electrically connected to each other, and form a plurality of contact points and a plurality of sensing resistors. When the first conductive fibers 12 or the conductive fabric 13 of the sensing device 1 are electrically connected to a control module (not shown), the control module can use a total sensing resistance value and The relationship between the operating voltage and the magnitude of the pressure, the pressure area, and the number of contact points that the sensing device 1 is subjected to generates a signal. When the control module is connected to another electronic device (not shown) via a wired or wireless connection, the provider of the medical care service can analyze and process the signals and understand the activities of the subject through the electronic device. situation.

The sensing device 1 can be applied to various products in a home environment (such as mattresses, cushions, table and chair pads, and even clothing), thereby monitoring various activities of the subject in the home environment. . Because the sensing device 1 is not only invasive and less restrictive, it can effectively reduce the psychological resistance of the subject, and because of its light weight, simplicity, and softness, it has the advantages of convenient use and good comfort. In the field of home medical care services, the sensing device 1 has gradually become one of the important technologies applied to various types of monitoring devices.

The creator not only invests in research and development in related fields such as medical care for a long time, but also continuously pays attention to the market reaction and carefully studies various messages that the users are giving back. During the long-term research of the creators, it is found that although the sensing device 1 There are many advantages mentioned above, but there is still room for further improvement in the design of the sensing device 1, as shown in Fig. 1, since the conductive fabric 13 is made of a metal conductive fiber or a metal compound type conductive fiber. The conductive fibers 131 are interwoven with the ordinary yarns 132. After long-term use, the second conductive fibers 131 may be bent to form a convex tip portion 131a, since the tip portion 131a is convex on the conductive fabric. 13 is located in the plane, so the tip 131a is likely to contact the first conductive fibers 12 in a state where the sensing device 1 is not subjected to an external force, thereby enabling the first conductive fibers 12 and the conductive fabric 13 The mutual conduction is performed, and thus the wrong communication number is generated. Further, since the conductive fabric 13 is made of a second conductive fiber 131 such as a metal conductive fiber or a metal compound type conductive fiber and an ordinary yarn 132, it is used for a long time. Thereafter, the ordinary yarns 132 may generate a plurality of hair bulbs 132a on the surface of the conductive fabric 13 due to long-term friction, and the hair bulbs 132a may be generated at positions corresponding to the first conductive fibers 12. And because the hair bulbs 132a are formed by the non-conductive ordinary yarns 132, when the sensing device 1 is pressed by an external force, the hair bulbs 132a block the first conductive fibers 12 and the When the second conductive fibers 131 are electrically connected to each other, the sensitivity of the sensing device 1 in use is lowered.

In summary, although the conventional sensing device 1 can effectively reduce the psychological resistance of the subject, and has the advantages of convenient use and good comfort, it is limited by the material properties of the conductive fabric 13. After the long-term use of the sensing device 1, the correctness and sensitivity of the detection signal are gradually decreased, so that the durability is not ideal. Therefore, how to improve the structure of the sensing device 1 is improved. The sensing device 1 detects the correctness and sensitivity of the signal, This is an important topic that this creation is intended to explore.

In view of the many problems of the conventional sensing device, the creator has finally developed a non-perceived type of conductive elastomer based on his long experience in serving related industries and through repeated design and improvement. The motion sensing device is designed to improve the accuracy and sensitivity of the sensing device detection signal by using the creation, thereby improving the durability.

An object of the present invention is to provide a non-sensing activity sensing device with a conductive elastomer, comprising a non-conductive elastomer, at least one conductive fiber and a conductive elastic body, the non-conductive elastic system being soft and elastic. a conductor (such as a polyurethane material, etc.), one side of which is undulating and undulating, and forms at least one depressed portion; the conductive fiber is positioned (eg, sewn) in the depressed portion; the conductive elastic system is soft And the elastic conductor (such as conductive foam or conductive rubber, etc.) is formed on the side of the non-conductive elastic body having an undulating shape, and when the sensing device is pressed by an external force, the conductive The corresponding portions of the elastomer and the non-conductive elastomer are crushed and deformed, so that the conductive elastomer can be in contact with the conductive fibers and be electrically connected to each other. Thus, since the present invention replaces the conductive fabric of the conventional sensing device with a conductive elastomer, it can effectively avoid the problems caused by the use of the conductive fabric by the conventional sensing device, for example, when the conductive fiber of the conductive fabric breaks or bulges. When the conventional sensing device is not pressed by an external force, the conductive fiber of the conductive fabric may contact the conductive fiber sewn on the non-conductive elastomer, so as to generate a wrong contact signal; or, Conductive fabrics are made of conductive fibers and ordinary The fiber is blended and woven, wherein the ordinary fiber may generate a hair bulb under long-term use, and when the sensing device is pressed by an external force, the conductive fiber of the conductive fabric and the conductive fiber sewn on the non-conductive elastic body are blocked. Mutual conduction between each other. Therefore, compared with the conventional sensing device, the non-perceived motion sensing device with the conductive elastic body of the present invention can not only have higher correctness and sensitivity for signal detection, but also can be used for detecting signals. Long-term use will not detract from its effectiveness, greatly improving the durability of the sensing device.

In order to make the review committee able to further understand and understand the purpose, technical features and efficacy of this creation, the following examples are combined with the diagram, which are described in detail as follows:

The present invention is a non-perceived motion sensing device with a conductive elastomer. In the first preferred embodiment of the present invention, please refer to FIGS. 2 and 3, the sensing device 2 includes a non-conductive elastic The body 21, the at least one conductive fiber 22 and a conductive elastic body 23, the non-conductive elastic body 21 is made of a foaming material (such as a polyurethane material, etc.), but the present invention is not limited thereto, and the non-conductive elastic body 21 can also be made of other soft and flexible non-conductors. In the first preferred embodiment, the conductive fiber 22 is sewn to the non-conductive elastic body 21, and since the non-conductive elastic body 21 is made of an elastically deformable material, the conductive fiber 22 is When the non-conductive elastic body 21 is sewn, the conductive fiber 22 will enable the partial region of the non-conductive elastic body 21 to be tightened, thereby making the surface of the non-conductive elastic body 21 undulating, that is, corresponding to the The positions of the conductive fibers 22 form the depressed portions 211, and the other positions of the non-conductive elastic body 21 form the convex portions 212 with respect to the concave portion 211. In particular, in the foregoing embodiment, the conductive fiber 22 is used to tighten a partial region of the non-conductive elastic body 21, so that the surface of the non-conductive elastic body 21 is undulated, but this The creation is not limited to this. The manufacturer can also design the non-conductive elastic body 21 to be embossed, and then position the conductive fiber 22 through sewing, adhesion or other positioning. In the recessed portion 211 on the surface of the non-conductive elastic body 21, in other words, the manufacturer has to change the positioning mode of the conductive fiber 22 and the design of the non-conductive elastic body 21.

The conductive elastic body 23 is made of a soft and elastic conductor (for example, a conductive foam or a conductive rubber), and is disposed on the side of the non-conductive elastic body 21 having an undulating shape. In the first preferred embodiment, the periphery of the conductive elastic body 23 and the periphery of the non-conductive elastic body 21 can be integrated into each other by means of bonding, but the present invention is not limited thereto. As shown in FIG. 4, in the second preferred embodiment of the present invention, the manufacturer can also design one of the non-conductive elastic bodies 31 having a larger area, and sew a conductive portion on a partial area of one side of the non-conductive elastic body 31. The fiber 32, and further, the area of the non-conductive elastic body 31 corresponding to the conductive fiber 32 is undulating, and the conductive elastomer 33 having a smaller area is placed on other areas of the one side, and the non-conductive elastic is applied. The body 31 is folded in half to enable the non-conductive elastic body 31 to form two layers of sheet-like bodies attached to two corresponding sides of the conductive elastic body 33, and a cotton thread 34 is sutured along the circumference thereof to form a sensing device 3, At this time, the non-conductive elastic body 31 constitutes the main body of the sensing device 3, and the conductive elastic body 33 is accommodated therein. Thus, the conductive elastic body 33 can also be It is firmly positioned on the side of the non-conductive elastic body 31 which is undulating and undulating. Similarly, the manufacturer can also coat the conductive elastic body 33 with two independent sheet-like bodies made of the non-conductive elastic body 31. Between the lamellar bodies, and the two non-conductive elastomers 31 are integrally formed along the circumference of the non-conductive elastic bodies 31, and the same effect can be obtained. Those skilled in the art can refer to the present specification. The equivalent changes or modifications that can be easily considered after the disclosure of the content should be in the scope of protection claimed by the author.

Referring to FIG. 3, in a state where the sensing device 2 is not pressed by an external force, the conductive elastic body 23 abuts against the convex portions 212 on the surface of the non-conductive elastic body 21, thereby enabling A distance is maintained between the conductive fibers 22 positioned in the recessed portion 211; and the corresponding portions of the conductive elastic body 23 and the non-conductive elastic body 21 are squeezed in a state where the sensing device 2 is pressed by an external force. The deformation, in turn, allows the conductive elastic body 23 to be in contact with the conductive fibers 22 and to be electrically connected to each other. Thus, since the present invention replaces the conductive fabric of the conventional sensing device (such as the conductive fabric 13 shown in FIG. 1) with the conductive elastic body 23, the sensing device is compared with the conventional sensing device. 2 When used for detecting signals, it can effectively avoid many problems that may occur when using conductive fabrics, and can avoid erroneous contact signals or decrease sensitivity after long-term use. As described above, the sensing device 2 of the present invention can be known. Not only can it have higher correctness and sensitivity for signal detection, but also does not detract from its performance under long-term use, greatly improving the durability of the sensing device 2 in use.

According to the above description, it is only a preferred embodiment of the present invention, but the technical features of the present invention are not limited thereto, and any one who is familiar with the art can easily change in the technical field of the present creation. Or modification, should be covered below The scope of the patent application of this creation. In particular, the scope of application of the present application is not limited to the above embodiments, and the creation can also be applied to buttons of various electronic devices (eg, a doorbell of a general home or a notification bell of a conference room, etc.). The application field of this creation is not a limitation of this creation. Anyone who can easily think about the conversion and modification of this technical field does not deviate from the scope of the patent application of this creation.

<p>2, 3 sensing device</p><p>21, 31 Non-conductive elastomer</p><p>211Depression</p><p>212 raised parts</p><p>22, 32 conductive fiber</p><p>23, 33 Conductive Elastomers</p><p>34 cotton thread</p>

1 is a schematic cross-sectional view of a conventional sensing device; FIG. 2 is a schematic view of the entire preferred embodiment of the first preferred embodiment; FIG. 3 is a cross-sectional view of the first preferred embodiment of the present invention; A schematic diagram of the overall structure of the second preferred embodiment of the present invention.

Non-perceived activity sensing device with conductive elastomer