Monitoring auxiliary device

Abstract

A monitoring auxiliary device comprises an outer surface layer, an inner surface layer, a middle layer, at least two electrode points, at least two conductive wires and at least two conductive sheets. The intermediate layer is interposed between the outer surface layer and the inner surface layer. The at least two electrode points comprise a first electrode point and a second electrode point. The at least two conductive wires comprise a first conductive wire and a second conductive wire. The at least two conducting strips comprise a first conducting strip and a second conducting strip. The at least two electrode points are arranged on the outer surface layer of the monitoring auxiliary device, the at least two conducting strips are arranged on the inner surface layer of the monitoring auxiliary device, the first conducting wire is connected with the first electrode points and the first conducting strips, and the second conducting wire is connected with the second electrode points and the second conducting strips. Therefore, the comfort of wearing the monitoring device can be improved.

Description

Technical Field

[0001] The present disclosure relates to a monitoring assistance device, and particularly to a monitoring assistance device applied to sleep monitoring. Background Art

[0002] Monitoring instruments can help users understand the status of physiological functions. However, traditional monitoring instruments need to paste wires at multiple places on the user's body, resulting in poor wearing comfort. Although monitoring devices that only need to be pasted at a specific part of the user have evolved nowadays, the monitoring devices are still limited by their volume and weight and are prone to falling off during wearing, resulting in poor monitoring effects. The defects of the above two will reduce the wearing willingness of users. If we want to increase the purchase willingness of users for such products, we need to actively develop a wearing solution that combines comfort and accuracy. Summary of the Invention

[0003] The monitoring assistance device provided by the present disclosure is connected to the monitoring device through electrode points, and is attached to the user's skin with conductive sheets. Then, the electrode points and the conductive sheets are connected by conductive wires, so that the detection points of the monitoring device can extend to the conductive sheets, which helps to improve the comfort of wearing the monitoring device.

[0004] According to the present disclosure, a monitoring assistance device is provided. It is a sleep monitoring assistance device. The sleep monitoring assistance device is a wearable item, and the wearable item is a lower-body wearable item. The monitoring assistance device includes an outer layer, an inner layer, an intermediate layer, at least two electrode points, at least two conductive wires, and at least two conductive sheets. The intermediate layer is between the outer layer and the inner layer. The at least two electrode points include a first electrode point and a second electrode point. The at least two conductive wires include a first conductive wire and a second conductive wire. The at least two conductive sheets include a first conductive sheet and a second conductive sheet. Among them, the at least two electrode points are arranged on the outer layer of the monitoring assistance device, the at least two conductive sheets are arranged on the inner layer of the monitoring assistance device, the first conductive wire connects the first electrode point and the first conductive sheet, the second conductive wire connects the second electrode point and the second conductive sheet. The maximum value of the distance between the at least two conductive sheets is CDmax, and the width of a monitoring assistance device of the monitoring assistance device is Wa, which satisfies the following condition: 0.60 ≤ CDmax / Wa.

[0005] Thereby, the monitoring assistance device is connected to the monitoring device through electrode points, and is attached to the user's skin with conductive sheets. Then, the electrode points and the conductive sheets are connected by conductive wires, so that the detection points of the monitoring device can extend to the conductive sheets. Therefore, the relatively large monitoring device does not need to be pasted on the user's skin, which helps to improve the comfort of wearing the monitoring device. By satisfying the ratio of the maximum value of the distance between the conductive sheets to the width of the monitoring assistance device, there is enough distance between the conductive sheets to ensure that the monitoring current flows through the body widely, which helps to improve the accuracy of the monitoring device.

[0006] According to the present disclosure, a monitoring assistance device is provided, which is a wearable item. The monitoring assistance device includes at least two electrode points, at least two conductive wires, and at least two conductive sheets. The at least two electrode points include a first electrode point and a second electrode point. The at least two conductive wires include a first conductive wire and a second conductive wire. The at least two conductive sheets include a first conductive sheet and a second conductive sheet. Among them, the first conductive wire connects the first electrode point and the first conductive sheet, the second conductive wire connects the second electrode point and the second conductive sheet, the maximum value of the distance between the at least two conductive sheets is CDmax, and the width of a monitoring assistance device of the monitoring assistance device is Wa, which satisfies the following condition: 0.70 ≤ CDmax / Wa.

[0007] Thereby, the monitoring assistance device is connected to the monitoring device through the electrode points, and the conductive sheets are attached to the user's skin. Then, the conductive wires connect the electrode points and the conductive sheets, so that the detection points of the monitoring device are extended to the conductive sheets. Therefore, the relatively large-sized monitoring device does not need to be pasted on the user's skin, which helps to improve the comfort of wearing the monitoring device; by satisfying the ratio of the maximum value of the distance between the conductive sheets to the width of the monitoring assistance device, there is sufficient distance between the conductive sheets to ensure that the monitoring current widely flows through the body, which helps to improve the accuracy of the monitoring device. Brief Description of the Drawings

[0008] Figure 1 A perspective view showing a monitoring assistance device according to a first embodiment of the present disclosure;

[0009] Figure 2 Shown in accordance with Figure 1 A top view of the monitoring assistance device according to the first embodiment;

[0010] Figure 3A A schematic diagram showing that the ventilation structure of the conductive sheet is a long ventilation hole;

[0011] Figure 3B A schematic diagram showing that the ventilation structure of the conductive sheet is an inclined ventilation hole;

[0012] Figure 3C A schematic diagram showing that the ventilation structure of the conductive sheet is a mesh ventilation hole;

[0013] Figure 4 Shown in accordance with Figure 1 A schematic diagram of the distance between the first electrode point and the conductive sheet according to the first embodiment;

[0014] Figure 5 A perspective view showing a monitoring assistance device according to a second embodiment of the present disclosure;

[0015] Figure 6 Shown in accordance with Figure 5 A top view of the monitoring assistance device according to the second embodiment;

[0016] Figure 7 Illustrate Figure 6 Schematic diagram of the first conductive sheet spacing, the second conductive sheet spacing, and the third conductive sheet spacing in the second embodiment;

[0017] Figure 8 Illustrate a perspective view of a monitoring assistance device according to the third embodiment of the present disclosure;

[0018] Figure 9 Illustrate according to Figure 8 Top view schematic diagram of the monitoring assistance device according to the third embodiment;

[0019] Figure 10 Illustrate a perspective view of a monitoring assistance device according to the fourth embodiment of the present disclosure; and

[0020] Figure 11 Illustrate a perspective view of a monitoring assistance device according to the fifth embodiment of the present disclosure.

[0021]

Symbol description

[0022] 100, 200, 300, 400, 500: Monitoring assistance device

[0023] 110a, 210a, 310a, 410a, 510a: First electrode point

[0024] 110b, 210b, 310b, 410b, 510b: Second electrode point

[0025] 120a, 220a, 320a, 420a, 520a: First conductive wire

[0026] 120b, 220b, 320b, 420b, 520b: Second conductive wire

[0027] 130: Conductive sheet

[0028] 130a, 230a, 330a, 430a, 530a: First conductive sheet

[0029] 130b, 230b, 330b, 430b, 530b: Second conductive sheet

[0030] 131: Breathable structure

[0031] 210c: Third electrode point

[0032] 220c: Third conductive wire

[0033] 230c: Third conductive sheet

[0034] C: Intermediate layer

[0035] CD1: Spacing of the first conductive sheet

[0036] CD2: Spacing of the second conductive sheet

[0037] CD3: Spacing of the third conductive sheet

[0038] ECD1: Spacing between the first electrode point and the conductive sheet

[0039] I: Inner surface layer

[0040] L: Normal line

[0041] O: Outer surface layer

[0042] Wa: Width of the monitoring auxiliary device Detailed implementation mode

[0043] The present disclosure provides a monitoring auxiliary device, which is a sleep monitoring auxiliary device. The sleep monitoring auxiliary device is a wearable item, and the wearable item is a lower body wearable item. The monitoring auxiliary device includes an outer surface layer, an inner surface layer, an intermediate layer, at least two electrode points, at least two conductive wires, and at least two conductive sheets. The intermediate layer is between the outer surface layer and the inner surface layer. The at least two electrode points include a first electrode point and a second electrode point. The at least two conductive wires include a first conductive wire and a second conductive wire. The at least two conductive sheets include a first conductive sheet and a second conductive sheet. Among them, the at least two electrode points are arranged on the outer surface layer of the monitoring auxiliary device, the at least two conductive sheets are arranged on the inner surface layer of the monitoring auxiliary device, the first conductive wire connects the first electrode point and the first conductive sheet, and the second conductive wire connects the second electrode point and the second conductive sheet. Thus, the monitoring auxiliary device is connected to the monitoring device through the electrode points, and the conductive sheet is attached to the user's skin, and then the conductive wire connects the electrode point and the conductive sheet, so that the detection point of the monitoring device extends to the conductive sheet. Therefore, the relatively large monitoring device does not need to be pasted on the user's skin, which helps to improve the comfort of wearing the monitoring device.

[0044] In addition, the at least two electrode points further include a third electrode point; the at least two conductive wires further include a third conductive wire; the at least two conductive sheets further include a third conductive sheet. By increasing the number of conductive sheets, conductive wires and electrode points, the detection points of the monitoring device can be increased, which helps to improve the accuracy of the monitoring device.

[0045] The maximum value of the spacing between the conductive sheets is CDmax, and the width of the monitoring auxiliary device is Wa, which satisfies the following condition: 0.60 ≤ CDmax / Wa. By satisfying the ratio of the maximum value of the spacing between the conductive sheets to the width of the monitoring auxiliary device, there can be a sufficient distance between the conductive sheets, ensuring that the monitoring current widely flows through the body, which helps to improve the accuracy of the monitoring device. Additionally, it can satisfy the following condition: 0.70 ≤ CDmax / Wa. Furthermore, it can satisfy the following condition: 0.76 ≤ CDmax / Wa ≤ 1.40. Additionally, it can satisfy the following condition: 0.90 ≤ CDmax / Wa ≤ 1.20. Furthermore, it can satisfy the following condition: 0.96 ≤ CDmax / Wa ≤ 1.04.

[0046] The maximum value of the spacing between the conductive sheets is CDmax, which satisfies the following condition: 15 cm ≤ CDmax. Since the spacing between the conductive sheets is too close, potential errors are likely to occur. By satisfying the maximum value of the spacing between the conductive sheets, not only can the monitoring accuracy be improved, but also data on the long-distance requirements of various conductive sheets can be monitored, which helps to increase the diversity of monitoring categories. Additionally, it can satisfy the following condition: 7.5 cm ≤ CDmax. Furthermore, it can satisfy the following condition: 10 cm ≤ CDmax. Additionally, it can satisfy the following condition: 20 cm ≤ CDmax. Furthermore, it can satisfy the following condition: 25 cm ≤ CDmax. Additionally, it can satisfy the following condition: 30 cm ≤ CDmax. Furthermore, it can satisfy the following condition: 50 cm ≤ CDmax ≤ 100 cm.

[0047] The maximum length of the conductive sheet is LCmax, and the width of the monitoring auxiliary device is Wa, which satisfies the following condition: 0.05 ≤ LCmax / Wa. By designing an appropriate ratio of the maximum length of the conductive sheet to the width of the monitoring auxiliary device, it can be ensured that the conductive sheet has a sufficient proportion in the monitoring auxiliary device, which helps to enhance the strength of the potential signal. Additionally, it can satisfy the following condition: 0.07 ≤ LCmax / Wa. Furthermore, it can satisfy the following condition: 0.08 ≤ LCmax / Wa ≤ 0.20. Additionally, it can satisfy the following condition: 0.10 ≤ LCmax / Wa ≤ 0.15.

[0048] The maximum length of the conductive sheet is LCmax, which satisfies the following condition: 2.50 cm ≤ LCmax ≤ 5 cm. By designing an appropriate maximum length of the conductive sheet, while maintaining the effect of the conductive sheet, excessive contact between the skin and the conductive sheet can be avoided, which helps to reduce the sense of foreign body when wearing the monitoring auxiliary device. Additionally, it can satisfy the following condition: 2.50 cm ≤ LCmax. Furthermore, it can satisfy the following condition: 3.00 cm ≤ LCmax. Additionally, it can satisfy the following condition: 3.50 cm ≤ LCmax ≤ 6.00 cm. Furthermore, it can satisfy the following condition: 4.00 cm ≤ LCmax ≤ 5.00 cm.

[0049] The maximum value of the electrode point spacing is EDmax, which satisfies the following conditions: EDmax ≤ 5.00 cm. By restricting the maximum value of the electrode point spacing, it is ensured that the distance between electrode points is close to and can be connected to a smaller monitoring device, which helps to reduce the volume of the monitoring device. Additionally, it can satisfy the following conditions: EDmax ≤ 4.00 cm. Furthermore, it can satisfy the following conditions: EDmax ≤ 3.30 cm. Additionally, it can satisfy the following conditions: EDmax ≤ 2.80 cm. Furthermore, it can satisfy the following conditions: EDmax ≤ 2.20 cm. Additionally, it can satisfy the following conditions: 0 cm ≤ EDmax ≤ 1.80 cm. Furthermore, it can satisfy the following conditions: 0.50 cm ≤ EDmax ≤ 1.20 cm.

[0050] The maximum value of the electrode point spacing is EDmax, and the width of the monitoring auxiliary device is Wa, which satisfies the following conditions: EDmax / Wa × 10 ≤ 1.20. By restricting the ratio of the maximum value of the electrode point spacing to the width of the monitoring auxiliary device, the volume of the monitoring device connected by the electrode points can be reduced, which helps to reduce the wearing weight and volume. Additionally, it can satisfy the following conditions: EDmax / Wa × 10 ≤ 1.10. Furthermore, it can satisfy the following conditions: 0 ≤ EDmax / Wa × 10 ≤ 0.90. Additionally, it can satisfy the following conditions: 0.10 ≤ EDmax / Wa × 10 ≤ 0.80. Furthermore, it can satisfy the following conditions: 0.20 ≤ EDmax / Wa × 10 ≤ 0.50.

[0051] The maximum value of the distance between each electrode point and each conductive sheet is ECDmax, and the width of the monitoring auxiliary device is Wa, which satisfies the following conditions: 0.10 ≤ ECDmax / Wa. By satisfying the ratio of the maximum value of the distance between the electrode point and the conductive sheet to the width of the monitoring auxiliary device, it is ensured that the conductive sheets are widely and evenly distributed on the monitoring auxiliary device. Additionally, it can satisfy the following conditions: 0.20 ≤ ECDmax / Wa ≤ 1.00. Furthermore, it can satisfy the following conditions: 0.30 ≤ ECDmax / Wa ≤ 0.80. Additionally, it can satisfy the following conditions: 0.40 ≤ ECDmax / Wa ≤ 0.60. Furthermore, it can satisfy the following conditions: 0.42 ≤ ECDmax / Wa ≤ 0.50.

[0052] The monitoring auxiliary device includes an elastic elastic band, and the position of the conductive sheet overlaps with the elastic elastic band. Through the elastic elastic band of the monitoring auxiliary device, the specific area of the monitoring auxiliary device can be closely attached to the skin and the tightness of the contact between the conductive sheet and the skin on the specific area can be increased, which helps to prevent the conductive sheet on the specific area from falling off.

[0053] The monitoring auxiliary device also includes an elastic fiber. Through the elastic fiber, the monitoring auxiliary device can be closely attached to the skin, and the tightness of the overall conductive sheet in contact with the skin can be increased, which helps to reduce monitoring failures.

[0054] The shape of the conductive sheet is a directional shape. By setting the shape of the conductive sheet as a directional shape, it helps to improve the wearing recognition, and can help the user distinguish the wearing direction of the monitoring auxiliary device. Additionally, the directional shape of the conductive sheet is triangular, which is more helpful for further improving the wearing recognition.

[0055] The surface of the conductive sheet is a breathable structure, and the breathable structure is a mesh of ventilation holes. By setting the conductive sheet with a breathable structure of a mesh of ventilation holes, it helps to increase the ventilation effect of the conductive sheet and avoid the stuffy feeling of the user's skin.

[0056] The material of the conductive sheet includes a conductive polymer. By adding a conductive polymer to the conductive sheet, it helps to increase the elasticity of the conductive sheet and can prevent the conductive sheet from breaking due to the user's body movement.

[0057] The material of the conductive sheet also includes graphene. By adding graphene material to the conductive sheet, it helps to increase the ventilation and heat conduction effects of the conductive sheet.

[0058] The structure of the conductive wire is a telescopic structure, and the telescopic structure is a broken line. By setting the conductive wire as a broken line telescopic structure, the ductility of the conductive wire is increased, and it can prevent the conductive wire from breaking due to the user's excessive movement.

[0059] The conductive sheet and the conductive wire are of a detachable design. By designing the detachable conductive sheet and conductive wire, the monitoring auxiliary device can be reused through cleaning, which helps to improve the usage efficiency of the monitoring auxiliary device.

[0060] The electrode points are located on the opposite side of all the conductive sheets. By setting the electrode points and the conductive sheets on the opposite sides, when the conductive sheets are in contact with the skin, the electrode points are on the opposite side of the skin contact surface. When the monitoring device is connected to the electrode points, it does not affect the wearing of the monitoring auxiliary device, which helps to improve the wearing comfort.

[0061] The electrode points can be a snap fastener structure. By setting the electrode points as a snap fastener structure, the connection between the electrode points and the monitoring device can be made more firm, and the monitoring device can be prevented from falling off.

[0062] All the technical features in the above-mentioned monitoring auxiliary device of the present disclosure can be combined and configured to achieve the corresponding effects.

[0063] The monitoring assistance device described in the present disclosure has the function of assisting a monitoring device in physiological monitoring. The categories of physiological monitoring assisted by the monitoring assistance device may include sleep, blood glucose, blood oxygen, blood pressure, temperature, respiration, heart rate, electrocardiogram (ECG), and nerve impulses, etc. Therefore, the monitoring assistance device can be a sleep monitoring assistance device, a blood glucose monitoring assistance device, a blood oxygen monitoring assistance device, a blood pressure monitoring assistance device, a temperature monitoring assistance device, a respiration monitoring assistance device, a heart rate monitoring assistance device, an electrocardiogram monitoring assistance device, or a nerve impulse monitoring assistance device. The monitoring assistance device can be divided into an outer surface layer, an inner surface layer, and an intermediate layer between the inner surface layer and the outer surface layer. The inner side of the monitoring assistance device is the side close to the user's skin when worn, and the outer side of the monitoring assistance device is the side away from the user's skin when worn.

[0064] The components of the monitoring assistance device described in the present disclosure may include electrode points, conductive wires, and conductive sheets, and the electrode points, conductive wires, and conductive sheets all have conductive effects.

[0065] The positions where the components of the monitoring assistance device described in the present disclosure are arranged can be arranged on the outer surface layer, the intermediate layer, and the inner surface layer of the monitoring assistance device. For example: the electrode points can be arranged on the outer surface layer, the intermediate layer, and the inner surface layer, the conductive wires can be arranged on the outer surface layer, the intermediate layer, and the inner surface layer, and the conductive sheets can be arranged on the outer surface layer, the intermediate layer, and the inner surface layer. The arrangement positions of the electrode points and the conductive sheets are judged according to their exposed positions. If both of them are exposed on the outer surface layer, they are regarded as arranged on the outer surface layer. If both of them are exposed on the inner surface layer, they are regarded as arranged on the inner surface layer. If both of them are not exposed on the outer surface layer and the inner surface layer, they are regarded as arranged on the intermediate layer; the arrangement position of the conductive wire is judged according to the position where the largest volume is located. For example: if 51% of the volume of the conductive wire is not exposed on the outer surface layer and not exposed on the inner surface layer, it is regarded as the conductive wire being arranged on the intermediate layer. The aforementioned outer surface layer refers to the surface layer of the monitoring assistance device in the outer direction, the inner surface layer refers to the surface layer of the monitoring assistance device in the inner direction, and the intermediate layer refers to the non-exposed inner layer between the outer surface layer and the inner surface layer.

[0066] The monitoring assistance device may include at least one electrode point, at least two electrode points, at least three electrode points, at least four electrode points, or at least five electrode points. The monitoring assistance device can be further designed to have only two electrode points, only three electrode points, only four electrode points, or only five electrode points; the monitoring assistance device may include at least one conductive wire, at least two conductive wires, at least three conductive wires, at least four conductive wires, or at least five conductive wires. The monitoring assistance device can be further designed to have only two conductive wires, only three conductive wires, only four conductive wires, or only five conductive wires; the monitoring assistance device may include at least one conductive sheet, at least two conductive sheets, at least three conductive sheets, at least four conductive sheets, or at least five conductive sheets. The monitoring assistance device can be further designed to have only two conductive sheets, only three conductive sheets, only four conductive sheets, or only five conductive sheets.

[0067] The category of the monitoring assistance device described in this disclosure may be a wearable item. Wearable items can be divided into upper-body wearable items and lower-body wearable items. Upper-body wearable items can be hats, headphones, neckbands, collars, neck rings, clothes, outerwear, pajamas, underwear, bras, chest binders, arm rings, arm sleeves, bracelets, watch straps or watches, etc.; lower-body wearable items can be waist cinchers, belts, waistbands, trousers, outer trousers, pajama pants, underwear, knee pads, ankle guards, ankle rings or socks, etc. The monitoring assistance device can also be composed of at least one wearable item, at least two wearable items, at least three wearable items or at least four wearable items. For example, the monitoring assistance device can be arm sleeves worn on both hands, bracelets worn on both hands, ankle rings worn on both feet or socks worn on both feet.

[0068] The material of the assistance device described in this disclosure may include elastic fibers to increase the tightness of the overall conductive sheet in contact with the skin; the material of the monitoring assistance device may include elastic elastic bands, and the positions of the elastic bands and the conductive sheets on the monitoring assistance device may overlap to increase the tightness of the conductive sheets in contact with the skin in a specific area. Elastic fibers refer to materials with a high elongation at break. Common elastic fibers include polyurethane fibers (spandex), diene elastic fibers (rubber filaments), polyether ester elastic fibers, natural rubber and synthetic rubber, etc.

[0069] The width of the monitoring assistance device described in this disclosure refers to the size of the monitoring assistance device. When the monitoring assistance device is an upper-body wearable item, the width of the monitoring assistance device is the width of the monitoring assistance device at the 50% clothing length position. The width of the monitoring assistance device at the 50% clothing length position refers to the width of the monitoring assistance device when it is laid flat and has no stretch. If the width of the monitoring assistance device at the 50% clothing length position cannot be measured, the width of the largest opening of the monitoring assistance device is taken as the width of the monitoring assistance device. For example, since the 50% clothing length position of a bra is hollow and the width cannot be measured, it is regarded as unable to measure the width at the 50% clothing length position; when the monitoring assistance device is a lower-body wearable item, the width of the monitoring assistance device is the waist width of the monitoring assistance device. The waist width of the monitoring assistance device refers to the waist width of the monitoring assistance device when it is laid flat and has no stretch. If the waist width cannot be measured, the width of the largest opening of the monitoring assistance device is taken as the width of the monitoring assistance device. The aforementioned laying flat means spreading out and laying the monitoring assistance device flat. If the monitoring assistance device has an elastic thickness, the width of the monitoring assistance device in the flattened state is taken as the width of the monitoring assistance device. If the monitoring assistance device is a wearable item whose width can be adjusted according to the user, the width of the monitoring assistance device is measured in the state when the user actually wears it.

[0070] The electrode points of the monitoring assistance device described in the present disclosure can be connected to the monitoring device and are designed to be detachable. The detachable design means that the component can be separated from the monitoring assistance device, and the separated component can be used normally after being recombined with the monitoring assistance device. The electrode points can include at least one male-female snap structure, at least two male-female snap structures, or at least three male-female snap structures. Including a male-female snap structure means including the protrusion or depression of the male-female snap structure. Corresponding male-female snap structures can be provided on the monitoring device to make the connection between the electrode points and the monitoring device more secure.

[0071] The distance between the electrode points described in the present disclosure refers to the shortest distance between any two electrode points. The distance between the electrode points includes the first electrode point distance, the second electrode point distance, the third electrode point distance, and so on. The shortest distance between two electrode points refers to the minimum straight-line distance on the surface of the monitoring assistance device. When the two electrode points for measuring the shortest distance are on opposite sides, a normal line is taken perpendicular to the surface of the monitoring assistance device from an edge point of one of the electrode points, and a projection point is made on the opposite side along this normal line. All the projection points on the opposite side are connected to form a projection on the opposite side, and the calculation is made based on the position of the projection on the opposite side. The same side and the opposite side are distinguished by the inner surface layer and the outer surface layer of the monitoring assistance device. Among them, the inner surface layer of the monitoring assistance device is the side close to the user's skin when worn, and the outer surface layer of the monitoring assistance device is the side far from the user's skin when worn.

[0072] The maximum value of the distance between the electrode points described in the present disclosure refers to taking the maximum value from the distances between the electrode points.

[0073] The conducting wire of the monitoring assistance device described in the present disclosure is used to connect the electrode points and the conductive sheet, and the conducting wire can be designed to be detachable. The detachable design means that the component can be separated from the monitoring assistance device, and the separated component can be used normally after being recombined with the monitoring assistance device. The structure of the conducting wire can be a telescopic structure, and the telescopic structure can be a broken line, a bend, a handset coiled wire, etc. and their combinations.

[0074] The conductive sheet of the monitoring assistance device described in the present disclosure can be in contact with the user's skin, and the conductive sheet can be designed to be detachable. The detachable design means that the component can be separated from the monitoring assistance device, and the separated component can be used normally after being recombined with the monitoring assistance device. The surface of the conductive sheet can include a breathable structure for increasing the breathable effect of the conductive sheet. The breathable structure can be long strip breathable holes, diagonal breathable holes, or mesh breathable holes, etc. and their combinations. The breathable holes refer to the opening structure.

[0075] The material of the conductive sheet described in the present disclosure can include conductive polymers, metals, metal fibers, metal oxides, carbon black, carbon nanotubes, graphite, graphene, and carbon fibers. The conductive polymers can include polyacetylene, polyaniline, polypyrrole, polythiophene, polyphenylene sulfide, and polystyrene; the metal fibers can include silver fibers and copper fibers.

[0076] The types of the conductive sheets described in this disclosure can be dry conductive sheets or wet conductive sheets. A dry conductive sheet refers to a conductive sheet that can conduct electricity normally without conductive glue, and a wet conductive sheet refers to a conductive sheet that requires conductive glue to conduct electricity normally.

[0077] The shape of the conductive sheet described in this disclosure can be a directional shape, which is used to help the user distinguish the wearing direction of the monitoring auxiliary device. The directional shape means that the shape has directionality. Specifically, the directional shape can be an oval, a triangle, a polygon, a petal shape, a star shape, a character, a letter, an arrow, an irregular shape, etc. and their combinations.

[0078] The maximum length of the conductive sheet described in this disclosure refers to the maximum straight-line distance that can be found on the plane of the conductive sheet. For example, depending on the shape of the conductive sheet, the maximum length of the conductive sheet can be the diameter of a circle, the major axis of an ellipse, the diagonal of a square, or the longer diagonal of a rectangle.

[0079] The distance between the conductive sheets described in this disclosure refers to the shortest distance between any two conductive sheets. The distances between the conductive sheets include the first conductive sheet distance, the second conductive sheet distance, the third conductive sheet distance, and so on. The shortest distance between two conductive sheets refers to the minimum straight-line distance on the surface of the monitoring auxiliary device. When the two conductive sheets for measuring the shortest distance are on different sides, a normal line is taken perpendicular to the surface of the monitoring auxiliary device from an edge point of one of the conductive sheets, and a projection point is made on the opposite side along this normal line. All the projection points on the opposite side are connected to form a projection on the opposite side, and the calculation is made based on the position of the projection on the opposite side. The same side and the different sides are distinguished by the inner surface layer and the outer surface layer of the monitoring auxiliary device. Among them, the inner surface layer of the monitoring auxiliary device is the side close to the user's skin when worn, and the outer surface layer of the monitoring auxiliary device is the side far from the user's skin when worn.

[0080] The maximum value of the distance between the conductive sheets described in this disclosure refers to the maximum value taken from the distances between the conductive sheets.

[0081] The distance between the electrode points and the conductive sheet described in this disclosure refers to the shortest distance connecting the electrode points and the conductive sheet with a conductive wire. The distances between the electrode points and the conductive sheet include the distance between the first electrode point and the conductive sheet, the distance between the second electrode point and the conductive sheet, the distance between the third electrode point and the conductive sheet, and so on. The shortest distance between the electrode points and the conductive sheet refers to the minimum straight-line distance on the surface of the monitoring auxiliary device. When the electrode points and the conductive sheet for measuring the shortest distance are on opposite sides, a normal line is drawn perpendicular to the surface of the monitoring auxiliary device from an edge point of one of the electrode points or the conductive sheet, and a projection point is made on the opposite side along this normal line. All the projection points on the opposite side are connected to form a projection on the opposite side, and the calculation is made based on the position of the projection on the opposite side. The same side and the opposite side are distinguished by the inner surface layer and the outer surface layer of the monitoring auxiliary device. Among them, the inner surface layer of the monitoring auxiliary device is the side close to the user's skin when worn, and the outer surface layer of the monitoring auxiliary device is the side far from the user's skin when worn.

[0082] The maximum value of the distance between the electrode points and the conductive sheet described in this disclosure refers to the maximum value taken from the distances between each electrode point and the conductive sheet.

[0083] The monitoring device described in this disclosure is used to monitor physiological functions and estimate physiological diseases. Physiological functions may include sleep, blood glucose, blood oxygen, blood pressure, temperature, respiration, heart rate, electrocardiogram, and nerve impulses, etc. Physiological diseases may include insomnia, diabetes, asthma, dyspnea, fever, hyperventilation, abnormal heart rhythm, hypertension, heart disease, atrial fibrillation, myocardial infarction, aortic dissection, and epilepsy, etc.

[0084] According to the above embodiments, specific embodiments are presented below and will be described in detail with reference to the accompanying drawings. It must be noted that for the convenience of schematically showing the configuration, the three-dimensional perspective view of this disclosure is a schematic diagram showing the horizontal relative positions and shapes of each component, and the top view schematic diagram shows the internal and external relationships of each component. Therefore, the thickness, structural size, and structural shape of the components are not drawn completely according to the actual proportions, and this is stated here first.

[0085] <First Embodiment>

[0086] Please refer to Figure 1 and Figure 2 as shown, where Figure 1 shows a three-dimensional perspective view of a monitoring auxiliary device 100 according to the first embodiment of this disclosure; and Figure 2 shows according to Figure 1Top view schematic diagram of the monitoring assistance device 100 of the first embodiment. In the first embodiment, the monitoring assistance device 100 is a belt, and includes an outer surface layer O, an inner surface layer I, an intermediate layer C, two electrode points (the first electrode point 110a and the second electrode point 110b), two conductive wires (the first conductive wire 120a and the second conductive wire 120b), and two conductive sheets (the first conductive sheet 130a and the second conductive sheet 130b). The intermediate layer C is between the outer surface layer O and the inner surface layer I. The inner surface layer I is the side close to the user's skin when worn, and the outer surface layer O is the side far from the user's skin when worn. The first electrode point 110a and the second electrode point 110b are provided on the outer surface layer O, and the first conductive sheet 130a and the second conductive sheet 130b are provided on the inner surface layer I. The first conductive wire 120a connects the first electrode point 110a and the first conductive sheet 130a, and the second conductive wire 120b connects the second electrode point 110b and the second conductive sheet 130b.

[0087] In the first embodiment, the distance between the first electrode point 110a and the second electrode point 110b is a first electrode point distance ED1 (not shown in the figure), and the maximum value of the electrode point distance is EDmax, which satisfies the following conditions: ED1 = 3.50 cm; and EDmax = 3.50 cm.

[0088] In the first embodiment, the structures of the first conductive wire 120a and the second conductive wire 120b are zigzag; the shapes of the first conductive sheet 130a and the second conductive sheet 130b are triangular.

[0089] Please refer to Figures 3A to 3C as shown, where Figure 3A schematic diagram showing the air-permeable structure 131 of the conductive sheet 130 as long strip air-permeable holes; Figure 3B schematic diagram showing the air-permeable structure 131 of the conductive sheet 130 as obliquely arranged air-permeable holes; and Figure 3C schematic diagram showing the air-permeable structure 131 of the conductive sheet 130 as mesh-shaped air-permeable holes. The surface of the conductive sheet 130 ( Figures 1 to 2 labeled as the first conductive sheet 130a and the second conductive sheet 130b) may include an air-permeable structure 131 for increasing the air-permeable effect of the conductive sheet. The air-permeable structure 131 can be long strip air-permeable holes, obliquely arranged air-permeable holes, or mesh-shaped air-permeable holes, etc. and their combinations. The air-permeable holes refer to opening structures. As Figure 3A shown, the air-permeable structure 131 is long strip air-permeable holes; as Figure 3B shown, the air-permeable structure 131 is obliquely arranged air-permeable holes; as Figure 3C shown, the air-permeable structure 131 is mesh-shaped air-permeable holes.

[0090] In the first embodiment, the maximum length of the conductive sheet is LCmax, where the maximum length LCmax is the length of the longest side of the triangle. The distance between the first conductive sheet 130a and the second conductive sheet 130b is a first conductive sheet spacing CD1 (not shown in the figure). The maximum value of the conductive sheet spacing is CDmax, and the following conditions are satisfied: LCmax = 3.00 cm; CD1 = 35.00 cm; and CDmax = 35.00 cm.

[0091] Please refer to Figure 4 as shown in Figure 4 FIG. Figure 1 1 shows a schematic diagram of the first electrode point and the conductive sheet spacing ECD1 according to the first embodiment. The shortest distance between the first electrode point 110a and the first conductive sheet 130a connected by the first wire 120a is a first electrode point and conductive sheet spacing ECD1. In the first embodiment, since the first electrode point 110a and the first conductive sheet 130a are respectively disposed on the outer surface layer O and the inner surface layer I and are on opposite sides, a normal line L is taken perpendicular to the outer surface layer O and the inner surface layer I of the monitoring auxiliary device 100 at an edge point of the first conductive sheet 130a. Projection points are made on the opposite side along this normal line L, and all the opposite side projection points are connected to generate a projection P at the opposite side projection position. And the first electrode point and conductive sheet spacing ECD1 is calculated with the projection P at the opposite side projection position.

[0092] In the first embodiment, the distance between the first electrode point 110a and the first conductive sheet 130a is the first electrode point and conductive sheet spacing ECD1, and the distance between the second electrode point 110b and the second conductive sheet 130b is the second electrode point and conductive sheet spacing ECD2 (not shown in the figure). The maximum value of the electrode point and conductive sheet spacing is ECDmax, and the following conditions are satisfied: ECD1 = 15.75 cm; ECD2 = 15.75 cm; and ECDmax = 15.75 cm.

[0093] In the first embodiment, the monitoring auxiliary device 100 is a lower body wearable item. The width Wa of the monitoring auxiliary device is the waist width of the monitoring auxiliary device 100. The maximum value of the electrode point spacing is EDmax; the maximum length of the conductive sheet is LCmax; the maximum value of the conductive sheet spacing is CDmax; the maximum value of the electrode point and conductive sheet spacing is ECDmax, and the parameters satisfy the conditions in Table 1 below.

[0094]

[0095] By restricting the ratio of the maximum value of the electrode point spacing to the width of the monitoring auxiliary device (EDmax / Wa×10), the volume of the monitoring device with electrode point connections can be reduced, which helps to reduce the wearing weight and volume. By designing an appropriate ratio of the maximum length of the conductive sheet to the width of the monitoring auxiliary device (LCmax / Wa), it can be ensured that the conductive sheet has a sufficient proportion in the monitoring auxiliary device, which helps to enhance the strength of the potential signal. By satisfying the ratio of the maximum value of the conductive sheet spacing to the width of the monitoring auxiliary device (CDmax / Wa), a sufficient distance can be provided between the conductive sheets, and it can be ensured that the monitoring current widely flows through the body, which helps to improve the accuracy of the monitoring device. By satisfying the ratio of the maximum value of the spacing between the electrode point and the conductive sheet to the width of the monitoring auxiliary device (ECDmax / Wa), it can be ensured that the conductive sheets are widely and evenly distributed on the monitoring auxiliary device.

[0096] <Second Embodiment>

[0097] Please refer to Figure 5 and Figure 6 as shown in Figure 5 a perspective view of a monitoring auxiliary device 200 according to a second embodiment of the present disclosure; and Figure 6 shows according to Figure 5 a top view of the monitoring auxiliary device 200 of the second embodiment. In the second embodiment, the monitoring auxiliary device 200 is a belt and includes an outer surface layer O, an inner surface layer I, an intermediate layer C, three electrode points (a first electrode point 210a, a second electrode point 210b, and a third electrode point 210c), three conductive wires (a first conductive wire 220a, a second conductive wire 220b, and a third conductive wire 220c), and three conductive sheets (a first conductive sheet 230a, a second conductive sheet 230b, and a third conductive sheet 230c). In the second embodiment, the first electrode point 210a, the second electrode point 210b, and the third electrode point 210c are disposed on the outer surface layer O, the third electrode point 210c is located between the first electrode point 210a and the second electrode point 210b, the first conductive sheet 230a, the second conductive sheet 230b, and the third conductive sheet 230c are disposed on the inner surface layer I, and the third conductive sheet 230c is located between the first conductive sheet 230a and the second conductive sheet 230b. The first conductive wire 220a connects the first electrode point 210a and the first conductive sheet 230a, the second conductive wire 220b connects the second electrode point 210b and the second conductive sheet 230b, and the third conductive wire 220c connects the third electrode point 210c and the third conductive sheet 230c. The outer surface layer O, the inner surface layer I, and the intermediate layer C are the same as those in the foregoing first embodiment and will not be described in detail herein.

[0098] In the second embodiment, the distance between the first electrode point 210a and the third electrode point 210c is a first electrode point distance ED1 (not shown in the figure), the distance between the first electrode point 210a and the second electrode point 210b is a second electrode point distance ED2 (not shown in the figure), the distance between the second electrode point 210b and the third electrode point 210c is a third electrode point distance ED3 (not shown in the figure), and the maximum value of the electrode point distances is EDmax, which satisfies the following conditions: ED1 = 1.50 cm; ED2 = 1.25 cm; ED3 = 1.50 cm; and EDmax = 1.50 cm.

[0099] In the second embodiment, the structures of the first conductive wire 220a, the second conductive wire 220b, and the third conductive wire 220c are earphone coiled wires; the shapes of the first conductive sheet 230a, the second conductive sheet 230b, and the third conductive sheet 230c are arrow-shaped.

[0100] Please refer to Figures 5 to 7 as shown in Figure 7 which shows Figure 6 a schematic diagram of the first conductive sheet distance CD1, the second conductive sheet distance CD2, and the third conductive sheet distance CD3 in the second embodiment. In the second embodiment, the maximum length of the conductive sheet is LCmax, and the maximum length LCmax is the length of the arrow. The distance between the first conductive sheet 230a and the second conductive sheet 230b is a first conductive sheet distance CD1, the distance between the first conductive sheet 230a and the third conductive sheet 230c is a second conductive sheet distance CD2, the distance between the second conductive sheet 230b and the third conductive sheet 230c is a third conductive sheet distance CD3, and the maximum value of the conductive sheet distances is CDmax, which satisfies the following conditions: LCmax = 3.50 cm; CD1 = 30.00 cm; CD2 = 13.00 cm; CD3 = 13.00 cm; and CDmax = 30.00 cm.

[0101] In the second embodiment, the distance between the first electrode point 210a and the first conductive sheet 230a is a first electrode point - conductive sheet distance ECD1 (not shown in the figure), the distance between the second electrode point 210b and the second conductive sheet 230b is a second electrode point - conductive sheet distance ECD2 (not shown in the figure), the distance between the third electrode point 210c and the third conductive sheet 230c is a third electrode point - conductive sheet distance ECD3, and the maximum value of the electrode point - conductive sheet distances is ECDmax, which satisfies the following conditions: ECD1 = 14.25 cm; ECD2 = 14.25 cm; ECD3 = 0 cm; and ECDmax = 14.25 cm.

[0102] It should be specifically noted that, since the first electrode point 210a, the second electrode point 210b, and the third electrode point 210c and the first conductive sheet 230a, the second conductive sheet 230b, and the third conductive sheet 230c are respectively disposed on the outer surface layer O and the inner surface layer I and are located on opposite sides, the method of calculating the distance by projecting in the normal direction to the opposite side in the foregoing first embodiment is the same, and will not be elaborated herein.

[0103] In the second embodiment, the monitoring auxiliary device 200 is an article worn on the lower body. The width Wa of the monitoring auxiliary device is the waist width of the monitoring auxiliary device 200, the maximum value of the electrode point spacing is EDmax; the maximum length of the conductive sheet is LCmax; the maximum value of the conductive sheet spacing is CDmax; the maximum value of the spacing between the electrode point and the conductive sheet is ECDmax, and the parameters satisfy the conditions in Table 2 below.

[0104]

[0105] <Third Embodiment>

[0106] Please refer to Figure 8 and Figure 9 as shown, where Figure 8 FIG. shows a perspective view of a monitoring auxiliary device 300 according to a third embodiment of the present disclosure; and Figure 9 FIG. shows a top view of the monitoring auxiliary device 300 according to Figure 8 the third embodiment. In the third embodiment, the monitoring auxiliary device 300 is an underwear, and includes an outer surface layer O, an inner surface layer I, an intermediate layer C, two electrode points (a first electrode point 310a and a second electrode point 310b), two conductive wires (a first conductive wire 320a and a second conductive wire 320b), and two conductive sheets (a first conductive sheet 330a and a second conductive sheet 330b). The settings and connection relationships of the outer surface layer O, the inner surface layer I, the intermediate layer C, the first electrode point 310a, the second electrode point 310b, the first conductive wire 320a, the second conductive wire 320b, the first conductive sheet 330a, and the second conductive sheet 330b are the same as those in the foregoing first embodiment, and will not be elaborated herein.

[0107] In the third embodiment, the distance between the first electrode point 310a and the second electrode point 310b is a first electrode point spacing ED1 (not shown in the figure), and the maximum value of the electrode point spacing is EDmax, which satisfies the following conditions: ED1 = 3.50 cm; and EDmax = 3.50 cm.

[0108] In the third embodiment, the structures of the first conductive wire 320a and the second conductive wire 320b are curved; the shapes of the first conductive sheet 330a and the second conductive sheet 330b are L-shaped.

[0109] In the third embodiment, the maximum length of the conductive sheet is LCmax. The maximum length LCmax is the length of the longest side of the L shape. The distance between the first conductive sheet 330a and the second conductive sheet 330b is a first conductive sheet distance CD1 (not shown in the figure). The maximum value of the conductive sheet distance is CDmax, and it satisfies the following conditions: LCmax = 4.00 cm; CD1 = 30.00 cm; and CDmax = 30.00 cm.

[0110] In the third embodiment, the distance between the first electrode point 310a and the first conductive sheet 330a is a distance between the first electrode point and the conductive sheet ECD1 (not shown in the figure). The distance between the second electrode point 310b and the second conductive sheet 330b is a distance between the second electrode point and the conductive sheet ECD2 (not shown in the figure). The maximum value of the distance between the electrode point and the conductive sheet is ECDmax, and it satisfies the following conditions: ECD1 = 13.25 cm; ECD2 = 13.25 cm; and ECDmax = 13.25 cm.

[0111] It should be specifically noted that since the first electrode point 310a and the second electrode point 310b and the first conductive sheet 330a and the second conductive sheet 330b are respectively arranged on the outer surface layer O and the inner surface layer I and are on the opposite sides, the method of calculating the distance by projecting in the normal direction to the opposite side in the foregoing first embodiment is the same, and will not be elaborated here.

[0112] In the third embodiment, the monitoring auxiliary device 300 is an item worn on the lower body. The width Wa of the monitoring auxiliary device is the waist width of the monitoring auxiliary device 300. The maximum value of the electrode point distance is EDmax; the maximum length of the conductive sheet is LCmax; the maximum value of the conductive sheet distance is CDmax; the maximum value of the distance between the electrode point and the conductive sheet is ECDmax, and the parameters satisfy the conditions in Table 3 below.

[0113]

[0114] <Fourth Embodiment>

[0115] Please refer to Figure 10 as shown in Figure 10A perspective view of a monitoring assistance device 400 according to a fourth embodiment of the present disclosure is shown. In the fourth embodiment, the monitoring assistance device 400 is a coat and includes an outer layer, an inner layer, an intermediate layer, two electrode points (a first electrode point 410a and a second electrode point 410b), two conductive wires (a first conductive wire 420a and a second conductive wire 420b), and two conductive sheets (a first conductive sheet 430a and a second conductive sheet 430b). The first electrode point 410a and the second electrode point 410b are disposed on the outer layer, and the first conductive sheet 430a and the second conductive sheet 430b are disposed on the inner layer. The arrangement and connection relationship of the outer layer, the inner layer, the intermediate layer, the first electrode point 410a, the second electrode point 410b, the first conductive wire 420a, the second conductive wire 420b, the first conductive sheet 430a, and the second conductive sheet 430b are the same as those in the foregoing first embodiment and will not be described herein again.

[0116] In the fourth embodiment, the distance between the first electrode point 410a and the second electrode point 410b is a first electrode point distance ED1 (not shown in the figure), and the maximum value of the electrode point distance is EDmax, which satisfies the following conditions: ED1 = 3.00 cm; and EDmax = 3.00 cm.

[0117] In the fourth embodiment, the structures of the first conductive wire 420a and the second conductive wire 420b are straight lines; the shapes of the first conductive sheet 430a and the second conductive sheet 430b are triangles.

[0118] In the fourth embodiment, the maximum length of the conductive sheet is LCmax, and the maximum length LCmax is the length of the longest side of the triangle. The distance between the first conductive sheet 430a and the second conductive sheet 430b is a first conductive sheet distance CD1 (not shown in the figure), and the maximum value of the conductive sheet distance is CDmax, which satisfies the following conditions: LCmax = 5.00 cm; CD1 = 60.00 cm; and CDmax = 60.00 cm.

[0119] In the fourth embodiment, the distance between the first electrode point 410a and the first conductive sheet 430a is a distance between the electrode point and the conductive sheet ECD1 (not shown in the figure), and the distance between the second electrode point 410b and the second conductive sheet 430b is a distance between the electrode point and the conductive sheet ECD2 (not shown in the figure). The maximum value of the distance between the electrode point and the conductive sheet is ECDmax, which satisfies the following conditions: ECD1 = 28.50 cm; ECD2 = 28.50 cm; and ECDmax = 28.50 cm.

[0120] It should be particularly noted that since the first electrode points 410a and the second electrode points 410b and the first conductive sheets 430a and the second conductive sheets 430b are respectively arranged on the outer surface layer and the inner surface layer and are on the opposite sides, which is the same as the method of calculating the distance by projecting the normal line to the opposite side in the foregoing first embodiment, it will not be elaborated here.

[0121] In the fourth embodiment, the monitoring auxiliary device 400 is an upper body wearable item. The width Wa of the monitoring auxiliary device is the width of the monitoring auxiliary device 400 at the 50% clothing length position. The maximum value of the electrode point spacing is EDmax; the maximum length of the conductive sheet is LCmax; the maximum value of the conductive sheet spacing is CDmax; the maximum value of the spacing between the electrode point and the conductive sheet is ECDmax, and the parameters satisfy the conditions in Table 4 below.

[0122]

[0123]

[0124] <Fifth Embodiment>

[0125] Please refer to Figure 11 as shown in Figure 11 FIG. 19 is a perspective view showing a monitoring auxiliary device 500 according to a fifth embodiment of the present disclosure. In the fifth embodiment, the monitoring auxiliary device 500 is an outer garment and includes an outer surface layer, an inner surface layer, an intermediate layer, two electrode points (a first electrode point 510a and a second electrode point 510b), two conductive wires (a first conductive wire 520a and a second conductive wire 520b), and two conductive sheets (a first conductive sheet 530a and a second conductive sheet 530b). The settings and connection relationships of the outer surface layer, the inner surface layer, the intermediate layer, the first electrode point 510a, the second electrode point 510b, the first conductive wire 520a, the second conductive wire 520b, the first conductive sheet 530a, and the second conductive sheet 530b are the same as those in the foregoing first embodiment, and will not be elaborated here.

[0126] In the fifth embodiment, the distance between the first electrode point 510a and the second electrode point 510b is a first electrode point distance ED1 (not shown in the figure). The maximum value of the electrode point distance is EDmax, which satisfies the following conditions: ED1 = 2.50 cm; and EDmax = 2.50 cm.

[0127] In the fifth embodiment, the structures of the first conductive wire 520a and the second conductive wire 520b and the shapes of the first conductive sheet 530a and the second conductive sheet 530b are the same as those in the foregoing fourth embodiment, and will not be elaborated here.

[0128] In the fifth embodiment, the maximum length of the conductive sheet is LCmax, and the maximum length LCmax is the length of the longest side of the triangle. The distance between the first conductive sheet 530a and the second conductive sheet 530b is a first conductive sheet distance CD1 (not shown in the figure). The maximum value of the conductive sheet distance is CDmax, and it satisfies the following conditions: LCmax = 4.50 cm; CD1 = 39.00 cm; and CDmax = 39.00 cm.

[0129] In the fifth embodiment, the distance between the first electrode point 510a and the first conductive sheet 530a is the distance between the first electrode point and the conductive sheet ECD1 (not shown in the figure). The distance between the second electrode point 510b and the second conductive sheet 530b is the distance between the second electrode point and the conductive sheet ECD2 (not shown in the figure). The maximum value of the distance between the electrode point and the conductive sheet is ECDmax, and it satisfies the following conditions: ECD1 = 18.25 cm; ECD2 = 18.25 cm; and ECDmax = 18.25 cm.

[0130] It should be specifically noted that since the first electrode point 510a and the second electrode point 510b and the first conductive sheet 530a and the second conductive sheet 530b are respectively arranged on the outer surface layer and the inner surface layer and are on the opposite sides, the method of calculating the distance by projecting in the normal direction to the opposite side in the foregoing first embodiment is the same, and will not be elaborated here.

[0131] In the fifth embodiment, the monitoring auxiliary device 500 is an item worn on the lower body. The width Wa of the monitoring auxiliary device is the waist width of the monitoring auxiliary device 500. The maximum value of the electrode point distance is EDmax; the maximum length of the conductive sheet is LCmax; the maximum value of the conductive sheet distance is CDmax; the maximum value of the distance between the electrode point and the conductive sheet is ECDmax, and the parameters satisfy the conditions in Table 5 below.

[0132]

[0133] <Sixth Embodiment>

[0134] In the sixth embodiment, the monitoring auxiliary device is an underwear, and includes an outer surface layer, an inner surface layer, an intermediate layer, three electrode points (a first electrode point, a second electrode point, and a third electrode point), three conductive wires (a first conductive wire, a second conductive wire, and a third conductive wire), and three conductive sheets (a first conductive sheet, a second conductive sheet, and a third conductive sheet). The settings and connection relationships of the outer surface layer, the inner surface layer, the intermediate layer, the first electrode point, the second electrode point, the third electrode point, the first conductive wire, the second conductive wire, the third conductive wire, the first conductive sheet, the second conductive sheet, and the third conductive sheet are the same as those in the foregoing second embodiment, and will not be elaborated here.

[0135] In the sixth embodiment, the distance between the first electrode point and the third electrode point is a first electrode point distance ED1, the distance between the first electrode point and the second electrode point is a second electrode point distance ED2, the distance between the second electrode point and the third electrode point is a third electrode point distance ED3, and the maximum value of the electrode point distances is EDmax, which satisfies the following conditions: ED1 = 2.00 cm; ED2 = 1.50 cm; ED3 = 1.50 cm; and EDmax = 2.00 cm.

[0136] In the sixth embodiment, the structures of the first conductive wire, the second conductive wire, and the third conductive wire and the shapes of the first conductive sheet, the second conductive sheet, and the third conductive sheet are the same as those in the foregoing fourth embodiment, and will not be elaborated herein.

[0137] In the sixth embodiment, the maximum length of the conductive sheet is LCmax, the maximum length LCmax is the length of the longest side of the triangle, the distance between the first conductive sheet and the second conductive sheet is a first conductive sheet distance CD1, the distance between the first conductive sheet and the third conductive sheet is a second conductive sheet distance CD2, the distance between the second conductive sheet and the third conductive sheet is a third conductive sheet distance CD3, and the maximum value of the conductive sheet distances is CDmax, which satisfies the following conditions: LCmax = 4.00 cm; CD1 = 50.00 cm; CD2 = 22.00 cm; CD3 = 22.00 cm; and CDmax = 50.00 cm.

[0138] In the sixth embodiment, the distance between the first electrode point and the first conductive sheet is a first electrode point-to-conductive sheet distance ECD1, the distance between the second electrode point and the second conductive sheet is a second electrode point-to-conductive sheet distance ECD2, the distance between the third electrode point and the third conductive sheet is a third electrode point-to-conductive sheet distance ECD3, and the maximum value of the electrode point-to-conductive sheet distances is ECDmax, which satisfies the following conditions: ECD1 = 24.00 cm; ECD2 = 24.00 cm; ECD3 = 0 cm; and ECDmax = 24.00 cm.

[0139] It should be particularly noted that since the first electrode point, the second electrode point, and the third electrode point and the first conductive sheet, the second conductive sheet, and the third conductive sheet are respectively disposed on the outer surface layer and the inner surface layer and are on opposite sides, the method of calculating the distance by projecting in the normal direction to the opposite side is the same as that in the foregoing first embodiment, and will not be elaborated herein.

[0140] In the sixth embodiment, the monitoring auxiliary device is an upper body-worn article, the width Wa of the monitoring auxiliary device is the width of the largest opening of the monitoring auxiliary device, the maximum value of the electrode point distances is EDmax; the maximum length of the conductive sheet is LCmax; the maximum value of the conductive sheet distances is CDmax; the maximum value of the electrode point-to-conductive sheet distances is ECDmax, and the said parameters satisfy the conditions in Table 6 below.

[0141]

[0142] <Seventh Embodiment>

[0143] In the seventh embodiment, the monitoring auxiliary device is a bathrobe, and includes an outer surface layer, an inner surface layer, an intermediate layer, two electrode points (a first electrode point and a second electrode point), two conductive wires (a first conductive wire and a second conductive wire), and two conductive sheets (a first conductive sheet and a second conductive sheet). The settings and connection relationships of the outer surface layer, the inner surface layer, the intermediate layer, the first electrode point, the second electrode point, the first conductive wire, the second conductive wire, the first conductive sheet, and the second conductive sheet are the same as those in the foregoing first embodiment, and will not be elaborated herein.

[0144] In the seventh embodiment, the distance between the first electrode point and the second electrode point is a first electrode point distance ED1, and the maximum value of the electrode point distance is EDmax, which satisfies the following conditions: ED1 = 1.00 cm; and EDmax = 1.00 cm.

[0145] In the seventh embodiment, the structures of the first conductive wire and the second conductive wire and the shapes of the first conductive sheet and the second conductive sheet are the same as those in the foregoing fourth embodiment, and will not be elaborated herein.

[0146] In the seventh embodiment, the maximum length of the conductive sheet is LCmax, the maximum length LCmax is the length of the longest side of the triangle, the distance between the first conductive sheet and the second conductive sheet is a first conductive sheet distance CD1, and the maximum value of the conductive sheet distance is CDmax, which satisfies the following conditions: LCmax = 5.00 cm; CD1 = 28.00 cm; and CDmax = 28.00 cm.

[0147] In the seventh embodiment, the distance between the first electrode point and the first conductive sheet is the distance ECD1 between the electrode point and the conductive sheet, the distance between the second electrode point and the second conductive sheet is the distance ECD2 between the electrode point and the conductive sheet, and the maximum value of the distance between the electrode point and the conductive sheet is ECDmax, which satisfies the following conditions: ECD1 = 13.00 cm; ECD2 = 13.00 cm; and ECDmax = 13.00 cm.

[0148] It should be particularly noted that since the first electrode point and the second electrode point and the first conductive sheet and the second conductive sheet are respectively arranged on the outer surface layer and the inner surface layer and are on opposite sides, the method of calculating the distance by projecting in the direction normal to the opposite side is the same as that in the foregoing first embodiment, and will not be elaborated herein.

[0149] In the seventh embodiment, the monitoring auxiliary device is an upper-body wearable item. The width Wa of the monitoring auxiliary device is the width of the monitoring auxiliary device at the 50% clothing length position. The maximum value of the electrode point spacing is EDmax; the maximum length of the conductive sheet is LCmax; the maximum value of the conductive sheet spacing is CDmax; the maximum value of the spacing between the electrode point and the conductive sheet is ECDmax, and the parameters satisfy the conditions in Table 7 below.

[0150]

[0151] Although the present disclosure has been disclosed in the above embodiments, it is not intended to limit the present disclosure. Any person skilled in the art can make various changes and modifications without departing from the spirit and scope of the present disclosure. Therefore, the protection scope of the present disclosure shall be subject to that defined by the appended claims.

Claims

1. A monitoring assistance device, which is a sleep monitoring assistance device. The sleep monitoring assistance device is a wearable item, and the wearable item is a lower-body wearable item, characterized in that, Comprising: An outer surface layer; An inner surface layer; An intermediate layer, disposed between the outer surface layer and the inner surface layer; At least two electrode points, comprising a first electrode point and a second electrode point; At least two conductive wires, comprising a first conductive wire and a second conductive wire; and At least two conductive sheets, comprising a first conductive sheet and a second conductive sheet; Wherein, the at least two electrode points are disposed on the outer surface layer of the monitoring auxiliary device, the at least two conductive sheets are disposed on the inner surface layer of the monitoring auxiliary device, the first conductive wire connects the first electrode point and the first conductive sheet, the second conductive wire connects the second electrode point and the second conductive sheet, the maximum value of the distance between the at least two conductive sheets is CDmax, the width of a monitoring auxiliary device of the monitoring auxiliary device is Wa, and it satisfies the following conditions: 0.60 ≤ CDmax / Wa.

2. The monitoring assistance device according to claim 1, wherein The maximum value of the distance between the at least two conductive sheets is CDmax, and it satisfies the following conditions: 15 cm ≤ CDmax.

3. The monitoring assistance device according to claim 1, wherein, The maximum length of the at least two conductive sheets is LCmax, the width of the monitoring auxiliary device is Wa, and it satisfies the following conditions: 0.05 ≤ LCmax / Wa.

4. The monitoring assistance device according to claim 3, characterized in that, The maximum length of the at least two conductive sheets is LCmax, and it satisfies the following conditions: 2.50 cm ≤ LCmax ≤ 5 cm.

5. The monitoring assistance device according to claim 1, wherein, The maximum value of the distance between the at least two electrode points is EDmax, and it satisfies the following conditions: EDmax ≤ 5.00 cm.

6. The monitoring assistance device according to claim 3, wherein The maximum value of the distance between the at least two electrode points is EDmax, the width of the monitoring auxiliary device is Wa, and it satisfies the following conditions: EDmax / Wa × 10 ≤ 1.

20.

7. The monitoring assistance device according to claim 1, characterized in that, The maximum value of the distance between each electrode point and each conductive sheet is ECDmax, the width of the monitoring auxiliary device is Wa, and it satisfies the following conditions: 0.10 ≤ ECDmax / Wa.

8. The monitoring assistance device according to claim 1, wherein The monitoring auxiliary device comprises an elastic elastic band, and the positions of the at least two conductive sheets overlap with the elastic elastic band.

9. The monitoring assistance device according to claim 1, characterized in that, The shape of the at least two conductive sheets is a directional shape.

10. The monitoring assistance device according to claim 9, wherein, The directional shape of the at least two conductive sheets is a triangle.

11. The monitoring assistance device according to claim 1, wherein, The structure of the at least two conductive wires is a telescopic structure, and the telescopic structure is a broken line.

12. A monitoring assistance device, which is a wearable item, is characterized in that, Comprising: At least two electrode points, comprising a first electrode point and a second electrode point; At least two conductive wires, comprising a first conductive wire and a second conductive wire; and At least two conductive sheets, comprising a first conductive sheet and a second conductive sheet; Wherein, the first conductive wire connects the first electrode point and the first conductive sheet, the second conductive wire connects the second electrode point and the second conductive sheet, the maximum value of the distance between the at least two conductive sheets is CDmax, the width of a monitoring auxiliary device of the monitoring auxiliary device is Wa, and it satisfies the following conditions: 0.70 ≤ CDmax / Wa.

13. The monitoring assistance device according to claim 12, wherein, The maximum value of the distance between the at least two electrode points is EDmax, the width of the monitoring auxiliary device is Wa, and it satisfies the following conditions: EDmax / Wa × 10 ≤ 1.

10.

14. The monitoring assistance device according to claim 13, characterized in that, The maximum value of the distance between each electrode point and each conductive sheet is ECDmax, the width of the monitoring auxiliary device is Wa, and it satisfies the following conditions: 0.20 ≤ ECDmax / Wa ≤ 1.

00.

15. The monitoring assistance device according to claim 14, wherein, The maximum value of the distance between the at least two conductive sheets is CDmax, and it satisfies the following conditions: 7.5 cm ≤ CDmax.

16. The monitoring assistance device according to claim 14, characterized in that, The maximum value of the distance between at least two electrode points is EDmax, which satisfies the following conditions: EDmax ≤ 3.30 cm.

17. The monitoring assistance device according to claim 16, wherein, The surface of the at least two conductive sheets is a breathable structure, and the breathable structure is a mesh of breathable holes.

18. The monitoring assistance device according to claim 17, wherein The material of the at least two conductive sheets includes a conductive polymer.

19. The monitoring assistance device according to claim 17, characterized in that, The material of the at least two conductive sheets includes graphene.

20. The monitoring assistance device according to claim 17, wherein All of the electrode points are on the opposite sides of all of the conductive sheets.

21. The monitoring assistance device according to claim 20, wherein, The monitoring auxiliary device includes an elastic fiber.

22. The monitoring assistance device according to claim 21, wherein The monitoring auxiliary device includes an elastic elastic band, and the positions of the at least two conductive sheets overlap with the elastic elastic band.

23. The monitoring assistance device according to claim 22, wherein The at least two electrode points are a snap fastener structure.

24. The monitoring assistance device according to claim 23, wherein The at least two conductive sheets and the at least two conductive wires are of a detachable design.

25. The monitoring auxiliary device according to claim 24, wherein the at least two electrode points further include a third electrode point; the at least two conductive wires further include a third conductive wire; and the at least two conductive sheets further include a third conductive sheet.

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