Super-soft titanium metal fiber fabric dry electrode

Abstract

The utility model discloses a super-soft titanium metal fiber fabric dry electrode which comprises an oil shell, hydraulic oil is arranged in the oil shell, a pasting ring is connected to the upper end of the oil shell in a clamped mode, an annular concave-convex elastic piece is arranged in the pasting ring, a sealing ring is fixedly connected to the middle of the pasting ring in a clamped mode, and a telescopic sliding sleeve is fixedly connected to the center of the lower end of the sealing ring. A hydraulic transmission pipe is fixedly connected to the center of the lower end of the telescopic sliding sleeve, a titanium fiber patch is slidably connected to the interior of the upper end of the telescopic sliding sleeve, a precise hydraulic oil transmission system is designed, power is transmitted through hydraulic oil in an oil shell, and precise control over the titanium fiber patch is achieved. The hydraulic oil transmission system can adjust force according to actual needs, ensure stable contact between an electrode and skin and improve the accuracy and stability of signal acquisition, and can automatically retract after signal acquisition is finished to prevent the titanium metal fiber patch from being exposed and collided, so that the titanium metal fiber patch is protected, and the service life of the titanium metal fiber patch is prolonged. And the service life of equipment is prolonged.

Description

Technical Field

[0001] The utility model belongs to the technical field related to bioelectric signal detection, and specifically relates to an ultra-flexible titanium metal fiber fabric dry electrode. Background Art

[0002] In the field of bioelectric signal detection, traditional electrodes are often made of hard materials, which can easily cause discomfort when in contact with the skin, affecting the quality and accuracy of the signal. In addition, hard electrodes are prone to friction with the skin during exercise, resulting in signal loss or increased noise. To address these issues, flexible electrodes have been developed that can better adapt to the morphology and movement of the skin, providing more comfortable and stable signal acquisition.

[0003] However, existing flexible electrodes still have some limitations in practical applications. For example, the materials of flexible electrodes are usually relatively soft and may not provide sufficient support to keep the electrodes in close contact with the skin. At the same time, the durability and stability of flexible electrodes need to be further improved, especially when used continuously for a long time or in harsh environments.

[0004] In view of the above problems, the present invention proposes an ultra-flexible titanium fiber fabric dry electrode. The electrode combines the high strength and flexibility of titanium fiber with advanced hydraulic oil transmission and precision mechanical structure design, aiming to provide a more comfortable, stable and durable bioelectric signal detection solution.

[0005] Specifically, the ultra-flexible titanium metal fiber fabric dry electrode includes an oil shell, hydraulic oil, a patch ring, annular concave-convex springs, a sealing ring, a telescopic sleeve, a titanium fiber patch, and other components. Through the hydraulic oil transmission mechanism, the titanium fiber patch can be precisely controlled to maintain a stable shape and position when in contact with the skin. At the same time, the annular concave-convex springs and the precision mechanical structure design ensure that the electrode is in close contact with the skin, maintaining a good signal acquisition effect even during exercise.

[0006] In addition, the ultra-flexible titanium metal fiber fabric dry electrode also adopts a variety of protection mechanisms, such as the optimized configuration of pores and through holes, the design of linkage connecting rods and return push rings, etc., which further improves the durability and stability of the electrode. These innovations together constitute the core competitiveness of the ultra-flexible titanium metal fiber fabric dry electrode, making it have a wide range of application prospects in the field of bioelectric signal detection. Utility Model Content

[0007] The utility model aims to provide an ultra-flexible titanium metal fiber fabric dry electrode to solve the problem that the traditional electrode mentioned in the above background technology is prone to unstable contact when in contact with the skin, which affects the quality and accuracy of signal collection.

[0008] To achieve the above-mentioned purpose, the utility model provides the following technical solutions: an ultra-flexible titanium metal fiber fabric dry electrode, comprising an oil shell, hydraulic oil is arranged inside the oil shell, a sticking ring is clamped at the upper end of the oil shell, an annular concave-convex spring piece is arranged inside the sticking ring, a sealing ring is fixedly clamped at the middle of the sticking ring, a telescopic sleeve is fixedly connected at the center of the lower end of the sealing ring, a hydraulic conduction pipe is fixedly connected at the center of the lower end of the telescopic sleeve, a titanium fiber patch is slidably connected inside the upper end of the telescopic sleeve, and the lower end of the titanium fiber patch is connected to the detection mechanism through a connecting harness.

[0009] Preferably, the titanium fiber patch is woven from titanium metal fibers, a telescopic head is fixedly connected to the lower end of the titanium fiber patch, and the telescopic head is slidably connected to the inside of the telescopic sliding sleeve.

[0010] Preferably, the titanium fiber patch and the telescopic head are both provided with air holes at their centers, and the air holes are connected to the interior of the upper end of the hydraulic transmission tube. A push-pull spring is fixedly connected to the center of the lower end of the telescopic head, and the push-pull spring is located on the upper side of the interior of the hydraulic transmission tube.

[0011] Preferably, a conductive slider is fixedly connected to the lower end of the push-pull spring, and the conductive slider is slidably connected to the lower side of the hydraulic conductive tube. The conductive slider consists of a cone at the lower end and a cylinder at the upper end, and the cylinder at the upper end of the conductive slider fits tightly against the inner wall of the hydraulic conductive tube.

[0012] Preferably, the push-pull spring is in a relaxed state when the telescopic head and the conductive sliding block are both located at the lowermost side, a plurality of through holes are opened inside the lower end of the hydraulic conductive pipe, and the plurality of through holes are opened at the intersection of the hydraulic conductive pipe and the oil shell.

[0013] Preferably, a limiting slide groove is provided inside the upper side of the center of the left and right ends of the telescopic sleeve, and the limiting slide groove is located on the lower side of the titanium fiber patch. Linkage rods are fixedly connected at the center of the left and right ends of the telescopic head, and the two linkage rods are respectively slidably connected inside the two limiting slide grooves.

[0014] Preferably, the upper ends of the two linkage links are fixedly connected with a return push ring through a vertical link. The return push ring is arranged in an annular shape and is coaxial with the telescopic sleeve, and the return push ring is located directly below the annular concave-convex spring piece of the sticking ring.

[0015] Compared with the prior art, the utility model provides an ultra-flexible titanium metal fiber fabric dry electrode, which has the following beneficial effects:

[0016] 1. A precise hydraulic oil transmission system is designed to transmit power through the hydraulic oil in the oil shell to achieve precise control of the titanium fiber patch. The hydraulic oil transmission system can adjust the force according to actual needs to ensure stable contact between the electrode and the skin, improve the accuracy and stability of signal acquisition, and automatically retract after the signal acquisition is completed to prevent the titanium fiber patch from being exposed and bumped, protect the titanium fiber patch, and increase the service life of the equipment.

[0017] 2. The design of air holes and through holes achieves the balance of air pressure inside and outside the telescopic sleeve, preventing signal distortion or electrode deformation caused by excessive or insufficient pressure. The intelligent feedback mechanism can monitor the state of the electrode and the reaction of the skin in real time, and automatically adjust the working parameters of the electrode according to the needs, which improves the comfort and safety of use.

[0018] 3. This electrode is not only suitable for conventional bioelectric signal detection, but can also be extended to many fields such as sports monitoring, rehabilitation training, human-computer interaction, etc. Its open interface and standardized communication protocol make integration with other devices and systems more convenient, and improve the flexibility and scalability of the overall solution. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a schematic diagram of the three-dimensional structure of the oil shell of the utility model.

[0020] Figure 2 It is a schematic diagram of the three-dimensional cross-sectional structure of the oil shell of the utility model.

[0021] Figure 3 It is a schematic diagram of the front cross-sectional structure of the oil shell of the utility model.

[0022] Figure 4 For the utility model Figure 2 Enlarged schematic diagram at point A in the middle.

[0023] Figure 5 For the utility model Figure 2 Enlarged schematic diagram of point B in the middle.

[0024] In the figure: 1. oil shell; 2. sticking ring; 3. sealing ring; 4. telescopic sleeve; 5. hydraulic transmission pipe; 6. titanium fiber patch; 7. telescopic head; 8. push-pull spring; 9. transmission slide block; 10. through hole; 11. limit slide groove; 12. linkage connecting rod; 13. return push ring. DETAILED DESCRIPTION

[0025] The following will be combined with the drawings in the embodiments of the utility model to clearly and completely describe the technical solutions in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments in the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.

[0026] The utility model provides Figure 1-Figure 3 An ultra-flexible titanium metal fiber fabric dry electrode is shown, characterized in that it includes an oil shell 1, hydraulic oil is arranged inside the oil shell 1 for transmission, a sticking ring 2 is clamped on the upper end of the oil shell 1, and an annular concave-convex spring piece is arranged inside the sticking ring 2 for compressing and stretching the internal space of the oil shell 1, a sealing ring 3 is fixedly clamped in the middle of the sticking ring 2 for sealing the gap between the sticking ring 2 and the telescopic sleeve 4, and for supporting the inner side of the sticking ring 2, a telescopic sleeve 4 is fixedly connected at the center of the lower end of the sealing ring 3 for telescoping the titanium fiber patch 6, a hydraulic conduction pipe 5 is fixedly connected at the center of the lower end of the telescopic sleeve 4 for guiding the hydraulic oil, a titanium fiber patch 6 is slidably connected inside the upper end of the telescopic sleeve 4, and the lower end of the titanium fiber patch 6 is connected to the detection mechanism through a connecting harness for collecting and conducting bioelectricity.

[0027] Preferably, the titanium fiber patch 6 is woven from titanium metal fibers and can collect bioelectricity. When the detection object is detected, the oil shell 1 is attached to the surface of the detection object, and the detection object will form a downward extrusion pressure on the sticking ring 2, and the sticking ring 2 will bounce downward into the oil shell 1. Since the upper end of the oil shell 1 is blocked by the connection between the sticking ring 2 and the sealing ring 3, the sticking ring 2 can compress the internal space between the oil shell 1 and the sticking ring 2 through the downward bounce of the internal annular concave and convex spring piece, allowing the hydraulic oil inside the oil shell 1 to enter the hydraulic conduction pipe 5, thereby acting on the titanium fiber patch 6 inside the telescopic sleeve 4, causing the titanium fiber patch 6 to pop up upward, thereby collecting bioelectricity and conducting the collected bioelectricity to the detection mechanism through the wiring harness.

[0028] like Figure 2-Figure 4As shown, the lower end of the titanium fiber patch 6 is fixedly connected to a telescopic head 7, and the telescopic head 7 is slidably connected to the inside of the telescopic sleeve 4, which is used to support the titanium fiber patch 6 and control the expansion and contraction of the titanium fiber patch 6. The titanium fiber patch 6 and the telescopic head 7 are both provided with air holes at the center, and the air holes are connected to the inside of the upper end of the hydraulic transmission tube 5, which is used to balance the internal and external air pressures of the telescopic sleeve 4. The center of the lower end of the telescopic head 7 is fixedly connected to a push-pull spring 8, and the push-pull spring 8 is located on the upper side of the hydraulic transmission tube 5, which is used to push and pull the telescopic head 7. The lower end of the push-pull spring 8 is fixedly connected to a conductive The slide block 9 is slidably connected to the lower side of the hydraulic transmission tube 5, and is used to compress and stretch the push-pull spring 8. The transmission slide block 9 is composed of a cone at the lower end and a cylinder at the upper end, and the cylinder at the upper end of the transmission slide block 9 is tightly fitted with the inner wall of the hydraulic transmission tube 5. The cone of the transmission slide block 9 can prevent the transmission slide block 9 from being adsorbed on the bottom of the oil shell 1. A plurality of through holes 10 are opened inside the lower end of the hydraulic transmission tube 5, and a plurality of through holes 10 are opened at the intersection of the hydraulic transmission tube 5 and the oil shell 1, and are used to introduce and export hydraulic oil into and out of the hydraulic transmission tube 5.

[0029] Preferably, when the concave and convex spring pieces of the sticking ring 2 bulge upward, the internal space between the oil shell 1 and the sticking ring 2 remains unchanged, and the telescopic head 7 and the conductive slider 9 are both located at the bottom. Since the push-pull spring 8 is in a relaxed state when the telescopic head 7 and the conductive slider 9 are both located at the bottom, the push-pull spring 8 will not generate elastic force on the telescopic head 7, so that the titanium fiber patch 6 and the telescopic head 7 are contracted inside the telescopic sleeve 4, preventing the titanium fiber patch 6 from being bumped.

[0030] Preferably, when the concave and convex spring pieces of the sticking ring 2 are subjected to downward squeezing force, the sticking ring 2 will bulge downward. At this time, the internal space between the oil shell 1 and the sticking ring 2 becomes smaller, so the sticking ring 2 will squeeze the hydraulic oil inside the oil shell 1. Under the squeezing of the sticking ring 2, the hydraulic oil enters the lower end of the hydraulic conduction tube 5 through multiple through holes 10, and pushes the conduction slider 9 to slide upward. The conduction slider 9 squeezes the push-pull spring 8 by sliding upward. The push-pull spring 8 pushes the titanium fiber patch 6 and the telescopic head 7 upward through elastic force, so that the titanium fiber patch 6 and the telescopic head 7 slide out of the telescopic sleeve 4 and protrude outside the oil shell 1 to contact the detection object. At the same time, the detection object will prevent the titanium fiber patch 6 from continuing to slide upward, so that the push-pull spring 8 is in a compressed state, so that the titanium fiber patch 6 can adjust the distance with the detection object through the push-pull spring 8, so that the titanium fiber patch 6 can stably contact the detection object, and then collect bioelectricity.

[0031] like Figure 5As shown, a limiting slide groove 11 is provided inside the upper side of the center of the left and right ends of the telescopic sleeve 4, and the limiting slide groove 11 is located on the lower side of the titanium fiber patch 6, which is used for the sliding of the linkage connecting rod 12. The linkage connecting rods 12 are fixedly connected at the centers of the left and right ends of the telescopic head 7, and the two linkage connecting rods 12 are respectively slidably connected in the two limiting slide grooves 11, which are used to connect the telescopic head 7 and the return push ring 13, so that the return push ring 13 can be linked with the telescopic head 7 and limit the sliding position of the titanium fiber patch 6 and the telescopic head 7. The upper ends of the two linkage connecting rods 12 are fixedly connected with the return push ring 13 through a vertical connecting rod, which is used to push the lower end of the convex sticker ring 2. The return push ring 13 is arranged in an annular shape and is coaxial with the telescopic sleeve 4, and the return push ring 13 is located directly below the annular concave and convex spring piece of the sticker ring 2.

[0032] Preferably, when the titanium fiber patch 6 is extended to contact the detection object, the titanium fiber patch 6 and the telescopic head 7 are blocked by the detection object and will not slide to the uppermost side. At this time, the return push ring 13 connected to the telescopic head 7 through the linkage link 12 cannot touch the bottom of the patch ring 2. When the detection object is separated from the titanium fiber patch 6, the upper end of the titanium fiber patch 6 is not blocked, so that the titanium fiber patch 6 and the telescopic head 7 will slide to the uppermost side under the action of the push-pull spring 8, and the push-pull spring 8 is in a relaxed state when the titanium fiber patch 6 and the telescopic head 7 slide to the uppermost side. At this time, the return push ring 13 will follow As the telescopic head 7 slides to the uppermost side, it will push upward on the bottom of the concave-convex spring sheet inside the sticking ring 2, causing the concave-convex spring sheet inside the sticking ring 2 to bounce upward, thereby increasing the internal space between the oil shell 1 and the sticking ring 2. The negative pressure inside the oil shell 1 will draw out all the hydraulic oil from the inside of the hydraulic conduction pipe 5. The conduction slider 9 will slide downward without the support of the hydraulic oil, and pull the push-pull spring 8 downward. The push-pull spring 8 will pull the titanium fiber patch 6 and the telescopic head 7 downward through the elastic force, so that the titanium fiber patch 6 and the telescopic head 7 will retract into the telescopic sliding sleeve 4 to prevent them from being bumped. Repeat the above steps for the next inspection.

[0033] Finally, it should be noted that the above is only a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art can still modify the technical solutions described in the aforementioned embodiments or make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. An ultra-flexible titanium metal fiber fabric dry electrode, characterized in that: The invention comprises an oil shell (1), wherein hydraulic oil is arranged inside the oil shell (1), a sticking ring (2) is clamped on the upper end of the oil shell (1), an annular concave-convex spring sheet is arranged inside the sticking ring (2), a sealing ring (3) is fixedly clamped on the middle of the sticking ring (2), a telescopic sleeve (4) is fixedly connected at the center of the lower end of the sealing ring (3), a hydraulic transmission pipe (5) is fixedly connected at the center of the lower end of the telescopic sleeve (4), a titanium fiber patch (6) is slidably connected inside the upper end of the telescopic sleeve (4), and the lower end of the titanium fiber patch (6) is connected to a detection mechanism through a connecting harness.

2. The ultra-flexible titanium metal fiber fabric dry electrode according to claim 1, characterized in that: The titanium fiber patch (6) is woven from titanium metal fibers, and a telescopic head (7) is fixedly connected to the lower end of the titanium fiber patch (6), and the telescopic head (7) is slidably connected to the inside of the telescopic sliding sleeve (4).

3. The ultra-flexible titanium metal fiber fabric dry electrode according to claim 2, characterized in that: The titanium fiber patch (6) and the telescopic head (7) are both provided with air holes at their centers, and the air holes are connected to the interior of the upper end of the hydraulic transmission tube (5). A push-pull spring (8) is fixedly connected to the center of the lower end of the telescopic head (7), and the push-pull spring (8) is located on the upper side of the interior of the hydraulic transmission tube (5).

4. The ultra-flexible titanium metal fiber fabric dry electrode according to claim 3, characterized in that: The lower end of the push-pull spring (8) is fixedly connected to a conductive slider (9), and the conductive slider (9) is slidably connected to the lower side of the hydraulic conductive tube (5). The conductive slider (9) is composed of a cone at the lower end and a cylinder at the upper end, and the cylinder at the upper end of the conductive slider (9) is tightly fitted to the inner wall of the hydraulic conductive tube (5).

5. The ultra-flexible titanium metal fiber fabric dry electrode according to claim 4, characterized in that: The push-pull spring (8) is in a relaxed state when the telescopic head (7) and the conductive sliding block (9) are both located at the lowest side; a plurality of through holes (10) are provided inside the lower end of the hydraulic conductive tube (5); and the plurality of through holes (10) are provided at the intersection of the hydraulic conductive tube (5) and the oil casing (1).

6. The ultra-flexible titanium metal fiber fabric dry electrode according to claim 4, characterized in that: The telescopic sleeve (4) is provided with a limit slide groove (11) at the upper inner side of the center of the left and right ends, and the limit slide groove (11) is located at the lower side of the titanium fiber patch (6). The telescopic head (7) is fixedly connected with a linkage rod (12) at the center of the left and right ends, and the two linkage rods (12) are respectively slidably connected inside the two limit slide grooves (11).

7. The ultra-flexible titanium metal fiber fabric dry electrode according to claim 6, characterized in that: The upper ends of the two linkage links (12) are fixedly connected with a return push ring (13) via a vertical link. The return push ring (13) is arranged in an annular shape and is coaxial with the telescopic sliding sleeve (4). The return push ring (13) is located directly below the annular concave-convex spring sheet of the contact ring (2).

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