TWI823074B - Detection device, signal processing device, module thereof and wearable product thereof - Google Patents

Abstract

A signal detecting-processing module includes a detection device and a signal processing device. The detection device includes a sensor, a first transmission line and a first connection element. The sensor is configured to sense physiological signal and/or motion signal of a sensed body. The first transmission line electrically connects the sensor with the first connection element. The signal processing device includes a second connection element, a processor and a second transmission line. The processor is configured to process the physiological signal and/or the motion signal. The second transmission line electrically connects the second connection element with the processor. The detection device is combined with the signal processing device through magnetic attraction.

Description

Detection devices, signal processing devices, modules and wearable products thereof Taste

The present disclosure relates to a detection device, a signal processing device, a module thereof and a wearable product thereof.

Conventional wearable products may include a detection device and a signal processing device. The detection device includes several detection points to detect physiological signals of the human body. The signal processing device can process the physiological signals detected by the detection points to obtain physiological information of the human body. In use, the detection device and the signal processing device must be combined and electrically connected to the detection device and the signal processing device. Wearable products will come into contact with the human body. The design of detection devices and signal processing devices must consider various factors such as stability, ergonomics, and/or barrier that affect the life of the device. Barrier properties may include waterproofness, interference shielding, or UV shielding, etc.

The present disclosure relates to a detection device, a signal processing device, its signal detection and processing module and its wearable products.

According to an embodiment of the present disclosure, a detection device is provided. The detection device is used to be coupled to the signal processing device and includes a sensor, a transmission line and a first connector. The sensor is used to sense physiological signals and/or movement signals of the subject. The first connector is used to couple with a second connector of the signal processing device directly or indirectly through a magnetic attraction force. The transmission line electrically connects the sensor and the first connector.

According to another embodiment of the present disclosure, a signal processing device is provided. The signal processing device is used to be coupled to the detection device and includes a second connector, a processor and a transmission line. The second connector is used to couple with the first connector of the detection device directly or indirectly through a magnetic attraction force. The processor is used to process physiological signals and/or motion signals from the detection device. The transmission line electrically connects the second connector and the processor.

According to another embodiment of the present disclosure, a signal detection and processing module is provided. The signal detection and processing module includes a detection device and a signal processing device. The detection device includes a sensor, a first transmission line and a first connector. The sensor is used to sense physiological signals and/or movement signals of the subject. The first transmission line electrically connects the sensor and the first connector. The signal processing device includes a second connector, a processor and a second transmission line. The processor is used to process physiological signals and/or motion signals. The second transmission line electrically connects the second connector and the processor. The detection device and the signal processing device are combined through magnetic attraction.

According to another embodiment of the present disclosure, a wearable product is provided. Wearable products include carriers and the aforementioned signal detection and processing modules. The signal detection and processing module is configured in the carrier.

In order to have a better understanding of the above and other aspects of the present disclosure, embodiments are given below and described in detail with reference to the accompanying drawings:

10: Wearable products

11: Carrier

20:Tools

20a:Opening

100,200,300,400,500,600: Signal detection and processing module

110,310,410,510,610:Detection device

111:Perceptron

111A, 111A’: suction cup

112:First connector

113: First transmission line

113A: Line stock

113A1:Single core wire

113A2: Second cladding layer

113B: First cladding layer

113C: Stretchable material

1131:Wire

1132: Barrier layer

114: Fixtures

114a:fixing hole

114s, 224s: outer surface

120,220,320,420,520,620:Signal processing device

121: Processor

122: Second connector

123: Second transmission line

124,224,424,624:External box

124s: medial surface

114e,124e,2241e,2242e: end face

124a:Through hole

1241: First piece

1241A: First fastening part

1241s: First docking surface

1242:Second piece

1242A: Second fastening part

1242b, 424s, 624s: inner surface

1242s: Second docking surface

125: Pressure-resisting parts

2241:Ontology

2242:Extension

330:Fixed box

315:First joint

326:Second joint

331:The third joint part

332:The fourth joint

415,515,615: The first joint

426,526,626: The second junction

SP: Confined space

S1: physiological signal

S2: action signal

Figure 1 is a schematic diagram of a wearable product according to an embodiment of the present disclosure.

Figure 2A shows an exploded schematic diagram of the detection device and signal processing device of the signal detection and processing module of the wearable product in Figure 1 .

Figure 2B shows a combination diagram of the detection device and the signal processing device in Figure 2A.

Figure 2C1 shows a cross-sectional view of the first transmission line 113 of Figure 2A along the direction 2C1-2C1'.

Figure 2C2 is a schematic diagram of a first transmission line according to another embodiment of the present disclosure.

Figure 2D shows a cross-sectional view of the signal processing device of Figure 2A along the direction 2D-2D'.

Figure 3A is a schematic diagram of a signal detection and processing module according to another embodiment of the present disclosure.

Figure 3B shows a cross-sectional view of the signal processing device of Figure 3A along direction 3B-3B'.

Figure 4A illustrates a signal detection and processing module according to another embodiment of the present disclosure. intention.

Figure 4B shows a cross-sectional view of the signal detection and processing module of Figure 4A along direction 4B-4B’.

Figure 5A shows an exploded schematic diagram of the detection device and the signal processing device of the signal detection and processing module according to another embodiment of the present disclosure.

Figure 5B shows a schematic diagram of the combination of the detection device and the signal processing device in Figure 5A.

Figure 6A is a schematic diagram of a signal detection and processing module according to another embodiment of the present disclosure.

Figure 6B shows a side view of the second joint portion of Figure 6A.

Figure 6C shows a schematic diagram of the signal detection and processing module of Figure 6A further including a fixing box in another embodiment.

Figure 7A shows an exploded schematic diagram of the detection device and the signal processing device of the signal detection and processing module according to another embodiment of the present disclosure.

Figure 7B shows a schematic diagram of the combination of the detection device and the signal processing device in Figure 7A.

Figure 8A shows a schematic diagram of using a tool to operate several first connectors at one time.

Figure 8B is a schematic diagram of the tool of Figure 8A being detached after the first adapter and the second adapter are coupled.

Please refer to Figures 1 and 2A~2D. Figure 1 illustrates a schematic diagram of a wearable product 10 according to an embodiment of the present disclosure. Figure 2A illustrates the signal detection and processing module 100 of the wearable product 10 in Figure 1. An exploded schematic diagram of the detection device 110 and the signal processing device 120. Figure 2B shows a combined view of the detection device 110 and the signal processing device 120 in Figure 2A. Figure 2C1 shows the edge of the first transmission line 113 in Figure 2A. A cross-sectional view in the direction 2C1-2C1', Figure 2C2 illustrates a schematic diagram of the first transmission line 113' according to another embodiment of the present disclosure, and Figure 2D illustrates the signal processing device 120 of Figure 2A along the direction 2D-2D' cross-section view.

The wearable product 10 may include a carrier 11 and a signal detection and processing module 100 . The signal detection and processing module 100 is configured in the carrier 11 . The wearable product 10 is, for example, smart clothing, but the embodiment of the present disclosure is not limited thereto. The wearable product 10 can operate in a liquid environment, such as seawater, but the disclosed embodiments are not limited thereto.

The carrier 11 may be a complete garment shape or a part of a garment shape. In this embodiment, the carrier 11 is in the shape of a complete garment, and the signal detection and processing module 100 can be fixedly configured in the carrier 11 for a long time. Alternatively, the signal processing device 120 and the detection device 110 can also be quickly separated according to the use requirements, such as putting on and taking off. Or cleaning, etc. In one embodiment, the carrier 11 can be a part of the shape of clothing, and its shape is, for example, a circle, a polygon, an ellipse, or other shapes whose boundaries are composed of straight lines, curves, or combinations thereof. In the signal detection and processing module 100 The detection device 110 can be pre-configured on the carrier 11, and then The carrier 11 is then disposed in the smart clothing by means of lamination, adhesion, hot stamping, etc., and can be quickly adsorbed and fixed with the signal processing device 120 to form the signal detection and processing module 100.

The carrier 11 is, for example, a material suitable for wear, which has properties such as flexibility and stretchability. The carrier 11 is, for example, a fabric, a non-woven fabric or a composite. The fabric is, for example, cloth or fabric, which can be formed by weaving, sewing, etc. Non-woven fabrics include, for example, stretchable films, thermoplastic urethane (TPU), polyurethane (PU), silicone, rubber, plastic and other non-woven fabrics. The composite includes, for example, a combination of woven fabrics and non-woven fabrics.

The signal detection and processing module 100 includes a detection device 110 and a signal processing device 120 . The detection device 110 and the signal processing device 120 are combined by magnetic attraction, for example. The detection device 110 includes at least one sensor 111, at least one first connector 112 and at least one first transmission line 113. The sensor 111 is used to sense the physiological signal S1 and/or the motion signal S2 of the object to be measured. The subject can be a living body or a non-living body (eg, a robot). The first transmission line 113 electrically connects the sensor 111 and the first connector 112 . The signal processing device 120 includes a processor 121, at least one second connector 122 and at least one second transmission line 123. The processor 121 can process the physiological signal S1 and/or the motion signal S2. The second transmission line 123 electrically connects the second connector 122 and the processor 121 . The first connector 112 of the detection device 110 and the second connector 122 of the signal processing device 120 may be in direct or indirect contact through magnetic attraction. The magnetic attraction allows the detection device 110 and the signal processing device 120 to be combined. In one embodiment, The first connector 112 and the second connector 122 may be made of magnetic material, such as magnetically conductive metal or magnetically conductive alloy, material that can be magnetically attracted, or non-magnetic metal. In one embodiment, the ends of the first connector 112 and the second connector 122 may be equipped with magnetic conductive plates, which function to limit the magnetic field lines in a complete and narrowed closed magnetic circle to increase the magnetic force. In addition, if the first connector 112 and the second connector 122 are made of non-magnetic metal, additional structures with magnetic attraction (such as the first coupling part 515 and the second coupling part 526 shown in FIG. 6A) can be used. The first connector 112 and the second connector 122 can be in contact to transmit signals.

The sensor 111 is, for example, any physiological signal sensor. The type of the sensor 111 may depend on the requirements of the wearable product 10 , and is not limited in this embodiment of the disclosure. In addition, the position of the sensor 111 relative to the first connector 112 may depend on the requirements of the wearable product 10 and is not limited in the embodiment of the present disclosure.

As shown in Figure 2A, the detection device 110 may further include at least one holder. The holder may be a suction cup, conductive glue, conductive rubber, conductive fiber pad, conductive devil felt electrostatic film, silicone, breathable adhesive film, etc., to The detection end is fixed on the subject, such as human skin, animal skin or robot. In addition, suitable materials can be selected according to the detection environment. In one embodiment, the detection end fixation point can have a waterproof design to avoid short circuits, such as suction cups or electrostatic waterproof films; or, in a dry environment, the detection end fixation point can be It is silicone with high water content, conductive stretchable rubber, conductive rubber, conductive fiber pad, non-conductive material or other materials that can avoid detection. Material that is easy to fall off. The holder takes a suction cup as an example, at least one suction cup 111A and at least one suction cup 111A′, which can be configured on the sensor 111. The suction cup 111A can be adsorbed on a subject, which may be a living body or a robot, to increase the connection between the subject and the sensor 111 . In one embodiment, one suction cup 111A is disposed on one sensor 111, but one suction cup 111A' can also surround several sensors 111. In another embodiment, the detection device 110 may omit the suction cup 111A. The processor 121 can process the physiological signal S1 and/or the action signal S2 sensed by the sensor 111, and thereby obtain the body's pulse rate per minute (pulse value), blood oxygen level, blood pressure, and other physiological information of the body. and/or action signals, etc. The living body is, for example, a human body or other animals, and the non-living body is, for example, a robot or mechanical objects of various shapes. In addition, the suction cup 111A' has, for example, a diameter ranging from 0.2 mm to 100 mm, and/or may have a suitable shape and/or color. The embodiment of the present disclosure does not limit the size, shape and/or color of the suction cup 111A'.

The first connector 112 and the second connector 122 may both be magnetic or one of them may be magnetic and the other may be made of a material that can be magnetically attracted, that is, one of the connectors may be magnetic and the other may be magnetically connected, and may be replaced. It is conductive and non-directional, such as magnetic metal or magnetic alloy. In this way, when the first connector 112 and the second connector 122 are combined (as shown in FIG. 2B ), the physiological signal S1 and/or the action signal S2 sensed by the sensor 111 can pass through the first connector 112 and the second connector 112 . The connector 122 transmits to the processor 121 .

One of the first connector 112 and the second connector 122 is, for example, a magnet, and the other one of the first connector 112 and the second connector 122 can be magnetized by the magnetic field of the magnet, such as having ferromagnetism. In this way, as shown in FIG. 2B , the first connector 112 and the second connector 122 can be coupled through magnetic attraction. In another embodiment, both the first connector 112 and the second connector 122 may be magnets. In addition, the material of the first connector 112 and/or the second connector 122 includes, for example, niobium (Nb), iron (Fe), boron (B) or combinations thereof, but the embodiment of the present disclosure is not limited thereto.

As shown in FIG. 2A , a first transmission line 113 of the detection device 110 connects a first connector 112 and a sensor 111 . The embodiment of the present disclosure does not limit the number of first transmission lines 113 , the number of first connectors 112 and the number of sensors 111 , which may depend on the actual application of the wearable product 10 . The manufacturing method of the first transmission line 113 may be, for example, metal braiding and winding, printing elastic conductive colloid on a flexible or stretchable material, or using a weaving method or embroidery method to weave metal threads on fabric or non-woven fabric. In addition, several first connectors 112 can be brought together. For example, the detection device 110 further includes a fixing member 114, and the plurality of first connectors 112 can be fixed on the fixing member 114. The relative positions between the first connectors 112 are constrained by the fixing members 114 . For example, the fixing member 114 has at least one fixing hole 114a, and each first adapter 112 can be inserted through and fixed in the fixing hole 114a.

In one embodiment, the surface of the first transmission line 113 can be covered with waterproof glue, a waterproof film layer, or a hydrophobic film layer to block water vapor erosion and thereby improve weather resistance. The covering material may be elastic, in the form of a film, or surface-treated to make it waterproof or water-repellent. As shown in FIG. 2C1 , the first transmission line 113 is, for example, a barrier transmission line. For example, the first transmission line 113 includes at least one conductor 1131 and at least one barrier layer 1132, wherein the barrier layer 1132 covers the conductor 1131. The barrier layer 1132 can block the outside world (such as water, oxygen, sea water or fresh water, etc.) from affecting the wire 1131. The first transmission line 113 may include at least one wire strand 113A, and the wire strand 113A may be optionally covered with a first coating layer 113B. The first covering layer 113B is, for example, an insulating layer. The material of the insulating layer can be plastic, elastic waterproof layer, inorganic film or organic-inorganic composite multi-layer film, etc. The embodiment of the present disclosure is not limited thereto. Each wire strand 113A includes at least one single-core wire 113A1, wherein the single-core wire 113A1 includes a conductor 1131 and a barrier layer 1132. These single-core wires 113A1 can optionally be covered with a second coating layer 113A2. The second coating layer 113A2 is, for example, an insulating layer. The material of the insulating layer can be plastic, elastic waterproof layer, inorganic film or organic-inorganic composite multi-layer film, etc., and the embodiment of the present disclosure is not limited thereto.

When the carrier 11 is a fabric, the first transmission line 113 can be directly woven into at least a part of the carrier 11 , or formed on at least a part of the carrier 11 using techniques such as screen printing, spraying or transfer printing. Similarly, when the carrier 11 is non-woven or composite, the first transmission line 113 can be directly woven into at least a portion of the carrier 11 , or formed on at least a portion of the carrier 11 using techniques such as screen printing, spraying or transfer printing.

The carrier 11 may have stretchability. In one embodiment, a knitting method, for example, can be used to make the carrier 11 stretchable. In another embodiment, as in Section 2C2 As shown, the first transmission line 113' itself may be stretchable. The first transmission line 113' includes a stretchable material 113C and the aforementioned first transmission line 113, wherein the first transmission line 113 can spirally surround the stretchable material 113C, so that the spiral-shaped first transmission line 113' is also stretchable.

The aforementioned barrier layer 1132 is not limited to application to transmission lines. At least a portion of the outer surface of the detection device 110 , at least a portion of the outer surface of the signal processing device 120 and/or at least a portion of the outer surface of the carrier 11 may also be coated with a barrier layer 1132 .

In terms of materials, the barrier layer 1132 can be used to prevent water and oxygen or reduce signal interference, such as polysilazane, dimethyldichlorosilane, trimethylchlorosilane, SiOx, SiNx, SiOxNy, plastic materials (including polysilazane). Polyvinyl chloride (PVC) or polyethylene (Poly Ethylene, PE) and other polymer materials), paint (such as enameled wire (Enameled MagnetWire) or special insulating and heat-resistant paint) and/or RB wire (Rubber Insulated Power Wire), in which RB wires are insulated with a mixture of natural rubber and rubber hydrocarbon containing more than 30%. In addition, in order to improve the adhesion ability, for example, 3-amino-propyltriethoxysilane, 3-glycidyloxypropyltriethoxysilane, 3-( Trimethoxysilyl)-1-propanethiol, vinyltriethoxysilane, 3-methacryloxypropyltrimethoxysilane, N-(2-aminoethyl)-3-amino Propyltrimethoxysilane, bis(3-triethoxysilylpropyl) Materials such as amine, N-(n-butyl)-3-aminopropyltrimethoxysilane and N-(2-aminoethyl)-3-aminopropylmethyldimethoxysilane.

In one embodiment, the barrier layer 1132 may be formed by solidifying a liquid barrier material. In this example, the wire 1131 can be infiltrated into the liquid barrier material or the liquid barrier material can be coated on the wire 1131, so that the liquid barrier material can form a barrier layer covering the wire 1131 after solidification. This infiltration or coating method is used to make the wire 1131. The barrier layer can be one or more layers, or can even be modified by surface treatment (such as plasma treatment, corona treatment, light treatment or heat treatment, etc.) to increase the waterproof and oxygen-proof properties of the barrier layer.

In addition, the barrier layer 1132 can also be a solid barrier film, which can be formed on the carrier 11 using techniques such as lamination and adhesion to cover at least a portion of the outer surface of the detection device 110, at least a portion of the outer surface of the signal processing device 120 and /or at least part of the outer surface of the carrier 11 .

The aforementioned solid barrier film is, for example, a stretchable film, a stretchable barrier material or other suitable solid barrier film. In embodiments, the thickness of the solid barrier film can be, for example, between 5 microns and 1000 microns, but can also be larger or smaller, such as less than 1 micron. In addition, the thickness of the stretchable barrier film can range from 5 nanometers to 2000 microns. The solid barrier film is, for example, a single layer or a multi-layer structure. For a multi-layer structure, it can be an inorganic layer stack, an organic layer stack or a combination stack thereof.

For stretchable films, stretchable films such as transparent butyl rubber (T-IIR) can improve the problem of semiconductors and metals being easily oxidized. Butyl rubber material Adapted for use in stretchable electronics substrates, T-IIR is not only smooth and transparent, but also has unique low air permeability, which can be used to protect electronic materials from the influence of water and oxygen.

As for stretchable elastic barrier materials, the stretchable elastic barrier material is, for example, biaxially oriented polypropylene film (Biaxially Oriented Polypropylene, BOPP). "Bidirectional stretching" means stretching in the machine direction (MD) and in the transverse direction (TD). The stretched polymer can be regularly arranged in the stretching direction of the polymer, resulting in a high degree of alignment, improving the material density and film strength. This can improve the mechanical properties, increase the gas barrier properties, and improve the gloss and transparency of the surface. Increase. BOPP film has the advantages of light weight, non-toxic, moisture-proof, high mechanical strength, good dimensional stability, good printing performance, good tear resistance, good transparency, etc., as well as excellent water vapor barrier ability, and adheres to ink after corona treatment Good strength and other advantages.

As shown in FIG. 2D , the signal processing device 120 may further include an external box 124 . The second connector 122 is disposed on the external box 124 and exposed from the external box 124 to be combined with the first connector 112 . The external box 124 has an end surface 124e and at least one through hole 124a. The second connector 122 is arranged and fixed in the through hole 124a. The through hole 124a extends from the end surface 124e, and the second adapter 122 protrudes from the end surface 124e to facilitate docking with the first adapter 112. The processor 121 is configured in the external box 124 and can be protected by the external box 124 . The second transmission line 123 may be formed on the inner side 124s of the external box 124 . The second transmission line 123 can be formed on the external box using techniques such as printing. 124 inside 124s on the sides. In addition, the first connector 112 and the second connector 122 can also be fixed with tenons or movable plates and then connected to each other for easy plugging and unplugging, so as to avoid the presence of too many hard objects that may affect the wearing comfort. The first connector 112 and the second connector 122 may be non-magnetic, and the fixing member 114 is used to magnetically couple with the signal processing device 120 to align and connect the first connector 112 and the second connector 122 so that signals can be transmitted.

In one embodiment, the second adapter 122 can be flush with the end surface 124e, protruding or recessed relative to the end surface 124e, as long as the first adapter 112 and the second adapter 122 are connected. The first connector 112 may also have a similar design. In other embodiments of the present disclosure, the appearance of the first connector 112 and the second connector 122 can be adjusted as required as described above.

As shown in FIG. 2D , the external box 124 includes a first component 1241 and a second component 1242 that can be connected. The aforementioned processor 121, the second connector 122 and the second transmission line 123 can be configured on the first component 1241, but the disclosed embodiment is not limited to this. The first component 1241 and the second component 1242 can be coupled together by, for example, snapping. The first component 1241 includes a first fastening part 1241A, and the second component 1242 includes a second fastening part 1242A. The first fastening part 1241A and the second fastening part 1242A snap together to fix the first component. The relative position between 1241 and the second component 1242. In addition, the first component 1241 has a first butt surface 1241s, and the second component 1242 has a second butt surface 1242s. When the first component 1241 and the second component 1242 are docked, the first docking surface 1241s and the second docking surface 1242s are in contact with each other. Block external impurities from intruding into the interior of the external box 124 . The external impurities herein include, for example, various liquids (such as seawater), solids or gases that may affect the signal detection and processing module. In addition, the first fastening portion 1241A and the second fastening portion 1242A may be in an annular shape (viewed from the top view of the signal processing device 120 in Figure 2D), such as a closed ring shape, so as to provide a loop for the components located in the external connection box 124. Full circumferential (360 degree) complete protection.

As shown in FIG. 2D , the signal processing device 120 may further include a pressing member 125 . The pressing member 125 is disposed in the external box 124 and presses the processor 121 to thereby fix the relative position between the processor 121 and the external box 124 . The pressing member 125 is located between the second component 1242 and the processor 121 . When the first component 1241 and the second component 1242 are combined, the second component 1242 applies a pressure to the pressing member 125, so that the pressing member 125 presses the processor 121 against the first component 1241. This fixes the relative position between the processor 121 and the external box 124 . The processor 121 may include at least one pin 1211, and the pin 1211 contacts the second transmission line 123 to electrically connect the second transmission line 123. Through the pressing member 125, the relative position between the processor 121 and the external box 124 can be fixed, and the relative position between the pin 1211 and the second transmission line 123 can be fixed to prevent the pin 1211 from being detached from the second transmission line 123 (electrical connection). sexual separation). In addition, as shown in FIG. 2D , the pressing member 125 is made of, for example, a flexible material or an elastic material, such as plastic, rubber, etc., to avoid pressure damage to the processor 121 . In one embodiment, the pressing member 125 may be a spring. In this embodiment, the pressing member 125 is preset on the inner surface 1242b of the second component 1242, and the inner surface 1242b faces the processor. 121. In another embodiment, the pressing member 125 and the external box 124 may also be an integrally formed structure. In other embodiments, if not required, the detection device 110 may also omit the pressing member 125 .

Please refer to Figures 3A and 3B. Figure 3A illustrates a schematic diagram of the signal detection and processing module 200 according to another embodiment of the present disclosure, and Figure 3B illustrates the signal processing device 220 of Figure 3A along the direction 3B-3B. '' section view.

The signal detection and processing module 200 includes a detection device 110 and a signal processing device 220 . The distance between the processor 121 of the signal processing device 220 and the second connector 122 of the signal detection and processing module 200 is larger (compared to the distance between the processor 121 of the signal processing device 120 and the second connector 122 ) to avoid the possibility of electromagnetic waves interfering with the processor.

As shown in FIG. 3B , the signal processing device 220 includes a processor 121 , at least one second connector 122 , at least one second transmission line 123 , an external box 224 and a pressing member 125 . The external connection box 224 includes a body 2241 and an extension part 2242. The extension part 2242 is connected to the body 2241. For example, the body 2241 has an end surface 2241e, and the extension part 2242 can extend outward from the end surface 2241e, such as extending away from the processor 121. The second connector 122 can be disposed in the extension part 2242, and the processor 121 can be disposed in the body 2241. This can increase the distance between the processor 121 and the second connector 122 and avoid magnetic interference of the second connector 122 ( If any) processor 121. In addition, the extension portion 2242 may have at least one through hole 124a, which extends from the extension portion 2242 to the through hole 124a. The end surface 2242e of 2242 extends, and the second connector 122 can be inserted through and fixed in the through hole 124a. In addition, similar to the component design of the external box 124 (the first component 1241 and the second component 1242), the external box 224 can also be split into two components and connected together, which will not be described again.

Please refer to Figures 4A and 4B. Figure 4A illustrates a schematic diagram of the signal detection and processing module 300 according to another embodiment of the present disclosure, and Figure 4B illustrates the direction of the signal detection and processing module 300 of Figure 4A. Sectional view of 4B-4B'.

As shown in FIG. 4A , the signal detection and processing module 300 includes a detection device 310 , a signal processing device 320 and a fixed box 330 . After the detection device 310 and the signal processing device 320 are connected, the fixing box 330 can fix the detection device 310 and the signal processing device 320 to increase the combination and waterproofness between the detection device 310 and the signal processing device 320, and fix it. The box 330 can prevent external force from directly acting on the first connector 112 and the second connector 122 to prevent the first connector 112 and the second connector 122 from being easily separated. For example, the fixed box 330 includes components, wherein these components can be pivoted to each other or completely separated from each other. These components can be combined on the detection device 310 and the signal processing device 320 to fix the detection device 310 and the signal processing device 320 . relative position.

As shown in FIG. 4B , the detection device 310 includes at least one sensor 111 , at least one first connector 112 , at least one first transmission line 113 , a fixing member 114 and a first coupling part 315 . The first coupling part 315 is arranged on the outer surface of the fixing member 114 Face 114s. In one embodiment, the first combining portion 315 and the fixing member 114 may be an integrally formed structure. The signal processing device 320 includes a processor 121, at least one second connector 122, at least one second transmission line 123, an external box 224 and a second coupling part 326. The second coupling part 326 is disposed on the outer surface 224s of the external box 224. In one embodiment, the second combining part 326 and the external box 224 may be an integrally formed structure.

As shown in Figure 4B, the fixed box 330 includes a third combining part 331 and a fourth combining part 332. The third combining part 331 and the fourth combining part 332 are respectively engaged with the first combining part 315 and the second combining part 326. To fix the relative positions between the detection device 310, the signal processing device 320 and the fixed box 330. In one embodiment, the first joint part 315 and the second joint part 326 are, for example, one of the convex part and the concave part, and the third joint part 331 and the fourth joint part 332 are, for example, the other one of the convex part and the concave part. The close matching of the convex part and the concave part can increase the connection and waterproof ability between the detection device 310, the signal processing device 320 and the fixing box 330. The combination can be achieved by using latches or magnetic suction.

In one embodiment, the first coupling part 315 , the second coupling part 326 , the third coupling part 331 and the fourth coupling part 332 may be in an annular shape, such as a closed annular shape, surrounding the fixed box 330 in a full circumference (360 degrees). . A sealed space SP is formed between the detection device 310, the signal processing device 320 and the fixed box 330.

As shown in Figure 4B, the first adapter 112 and the second adapter 122 are located between the first coupling part 315 and the second coupling part 326, so that the first adapter 112 And the second connector 122 is located in the closed space SP, and can be fully protected to prevent external impurities from damaging the first connector 112 and the second connector 122 . In addition, in one embodiment, the surfaces of the fixing member 114, the fixing box 330 and/or the external box 124 can be subjected to barrier treatment, such as coating a barrier layer, waterproof paint or waterproof surface treatment, etc., to strengthen the barrier against the ingress of water and oxygen and avoid the impact. Signaling. Other embodiments of the present disclosure may also perform blocking processing as described above as required.

Please refer to Figures 5A and 5B. Figure 5A illustrates an exploded schematic diagram of the detection device 410 and the signal processing device 420 of the signal detection and processing module 400 according to another embodiment of the present disclosure, and Figure 5B illustrates the 5A The figure shows a schematic diagram of the combination of the detection device 410 and the signal processing device 420.

The signal detection and processing module 400 includes a detection device 410 and a signal processing device 420. The detection device 410 includes at least one sensor 111 , at least one first connector 112 , at least one first transmission line 113 , a fixing member 114 and a first coupling part 415 . The first coupling portion 415 is located on the outer surface 114s of the fixing member 114. The signal processing device 420 includes a processor 121, at least one second connector 122, at least one second transmission line 123, an external box 424 and a second coupling part 426. The second coupling part 426 is disposed on the inner surface 424s of the external box 424. In one embodiment, the first coupling portion 415 is, for example, one of a groove and a flange, and the second coupling portion 426 is, for example, the other of a groove and a flange. The groove and the flange can be closely matched to increase the coupling between the detection device 410 and the signal processing device 420 .

Due to the fastening of the first coupling part 415 and the second coupling part 426, external force can be blocked from directly acting on the first adapter 112 and the second adapter 122, preventing the first adapter 112 and the second adapter 122 from being easily separated.

In one embodiment, the first coupling part 415 and the second coupling part 426 may be annular, such as a closed annular shape. As shown in FIG. 5B , when the detection device 410 and the signal processing device 420 are combined, a closed space SP is formed between the detection device 410 and the signal processing device 420 . The first connector 112 and the second connector 122 are located in the closed space SP and can be fully protected from external impurities from damaging the first connector 112 and the second connector 122 .

Please refer to Figures 6A to 6C. Figure 6A illustrates a schematic diagram of the signal detection and processing module 500 according to another embodiment of the present disclosure. Figure 6B illustrates a side view of the second coupling portion 526 of Figure 6A. FIG. 6C shows a schematic diagram of the signal detection and processing module 500 of FIG. 6A further including a fixing box 330 in another embodiment.

The signal detection and processing module 500 includes a detection device 510 and a signal processing device 520 . The first coupling part 515 of the detection device 510 of the signal detection and processing module 500 and the second coupling part 526 of the signal processing device 520 are coupled by magnetic attraction.

The detection device 510 includes at least one sensor 111 , at least one first connector 112 , at least one first transmission line 113 , a fixing member 114 and a first coupling part 515 . The first coupling portion 515 is disposed on the end surface 114e of the fixing member 114. The first coupling portion 515 surrounds the first connectors 112 . Signal processing device 520 includes a processor 121. At least one second connector 122, at least one second transmission line 123, external connection box 124 and second coupling part 526. The second coupling part 526 is disposed on the end surface 124e of the connection box 124. As shown in FIG. 6B , the second coupling portion 526 surrounds the second connectors 122 . When the first coupling part 515 is coupled with the second coupling part 526, the first adapter 112 can be coupled with the second adapter 122. The first combination part 515 and the second combination part 526 are combined by magnetic attraction, which can increase the combination of the detection device 510 and the signal processing device 520 .

As shown in Figure 6C, after the detection device 310 and the signal processing device 320 are connected, the fixing box 330 can fix the detection device 310 and the signal processing device 320 to increase the integration between the detection device 310 and the signal processing device 320. and waterproof, and the fixing box 330 can block external force from directly acting on the first connector 112 and the second connector 122, preventing the first connector 112 and the second connector 122 from being easily separated.

Please refer to Figures 7A and 7B. Figure 7A illustrates an exploded schematic diagram of the detection device 610 and the signal processing device 620 of the signal detection and processing module 600 according to another embodiment of the present disclosure, and Figure 7B illustrates the 7A The figure shows a schematic diagram of the combination of the detection device 610 and the signal processing device 620. The signal detection and processing module 600 includes a detection device 610 and a signal processing device 620. The detection device 610 includes at least one sensor 111 , at least one first connector 112 , at least one first transmission line 113 , a fixing member 114 and a first coupling part 615 . The first connecting part 615 is externally connected to the fixing part 114 Face 114s are prominent. The signal processing device 620 includes a processor 121, at least one second connector 122, at least one second transmission line 123, an external box 624 and a second coupling part 626. The second coupling part 626 is recessed relative to the inner surface 624s of the external box 624. In one embodiment, the first coupling portion 615 is, for example, an elastic element. As shown in Figure 7A, the first coupling portion 615 is in a released state. During the combination process of the detection device 610 and the signal processing device 620, the first coupling part 615 deforms to store an elastic potential energy. After the detection device 610 and the signal processing device 620 are combined, as shown in FIG. 7B , the first coupling part 615 releases elastic potential energy, causing the first coupling part 615 to engage with the second coupling part 626 .

Please refer to Figures 8A and 8B. Figure 8A shows a schematic diagram of using the tool 20 to operate several first connectors 112 at one time. Figure 8B shows the tool 20 in Figure 8A between the first connector 112 and the second connector. Schematic diagram of 122 detaching after binding.

As shown in FIG. 8A , several first connectors 112 can be fixed in the tool 20 , and then the tool 20 connects these first connectors 112 to the signal processing device 120 in one go (the signal processing device 120 is shown in 8B) several second connectors 122 (shown in FIG. 8B). The tool 20 has at least one opening 20a, the inner diameter of which can be larger than the outer diameter of the first transmission line 113 to allow the first transmission line 113 to pass through, and can be smaller than the outer diameter of the first adapter 112 to prevent the first adapter 112 from being separated from the tool 20 .

As shown in FIG. 8B , after the first connector 112 and the second connector 122 are combined, the tool 20 can be detached from the first connector 112 , that is, the tool 20 does not remain in the signal detection and processing module 100 . In this way, the detection device 110 can reduce discomfort when worn.

The embodiments of this disclosure provide a detection device, a signal processing device, a signal detection and processing module thereof, and a wearable product suitable for wearable products. The signal detection and processing module includes a detection device and a signal processing device, wherein the detection device and the signal processing device can be combined through magnetic attraction. In one embodiment, the detection device and the signal processing device respectively include a first combination part and a second combination part, wherein the first combination part and the second combination part can fix the connection between the detection device and the signal processing device after being combined. relative position. In another embodiment, after the first coupling part and the second coupling part are combined, the detection device and the signal processing device can form a space, and the first connector and the second connector are arranged in the space to achieve alignment. The protective effect of the connector includes waterproof protection, protection against signal connection errors or signal interference, etc. In other embodiments, the signal detection and processing module may further include a fixing box. The fixing box can fix the relative position of the detection device and the signal processing device. The fixing box can block external forces from directly acting on the first connector and the second connector. , to prevent the first connector and the second connector from being easily separated and to enhance protection.

In summary, although the present disclosure has been disclosed in the above embodiments, they are not used to limit the present disclosure. Those with ordinary knowledge in the technical field to which this disclosure belongs can make various modifications and modifications without departing from the spirit and scope of this disclosure. Therefore, this The scope of protection disclosed shall be determined by the appended patent application scope and its equivalent scope.

110:Detection device

111:Perceptron

111A, 111A’: suction cup

112:First connector

113: First transmission line

114: Fixtures

114a:fixing hole

120:Signal processing device

121: Processor

122: Second connector

123: Second transmission line

Claims (16)

A detection device used to be coupled to a signal processing device and includes: a sensor used to sense a physiological signal and/or a motion signal of a subject; a first connector used to process the signal A second connector of the device is directly coupled through a magnetic attraction; and a first transmission line electrically connects the sensor and the first connector. The detection device of claim 1, wherein the first transmission line includes: a conductor; and a barrier layer covering the conductor. A signal processing device for coupling to a detection device, including: a second connector for directly coupling with a first connector of the detection device through a magnetic attraction force; a processor for processing from A physiological signal and/or an action signal in the detection device; and a second transmission line electrically connecting the second connector and the processor. The signal processing device as described in claim 3 further includes: An external connection box; wherein, the second connector is configured in the external connection box and exposed from the external connection box, the processor is configured in the external connection box, and the second transmission line is formed on the inner side of the external connection box. A signal detection and processing module includes: a detection device, including: a sensor for sensing a physiological signal and/or a motion signal of an organism; a first connector; and a first transmission line, electrically Sexually connecting the sensor and the first connector; a signal processing device, including: a second connector; a processor for processing the physiological signal and/or the action signal; and a second transmission line, electrically The second connector and the processor are connected; wherein, the detection device and the signal processing device are directly coupled through a magnetic attraction force. The signal detection and processing module of claim 5, wherein the first transmission line and/or the second transmission line includes: a conductor; and a barrier layer covering the conductor. The signal detection and processing module of claim 5, wherein the signal processing device further includes: an external box; wherein the second connector is disposed on the external box and exposed from the external box, and the processor is disposed on Inside the external box, the second transmission line is formed on the inner side of the external box. The signal detection and processing module of claim 7, wherein the external box has an end face and a through hole, the through hole extends from the end face, and the second connector is arranged in the through hole and protrudes relative to the end face, Concave or flush. The signal detection and processing module as claimed in claim 7, wherein the detection device further includes: a fixing member for fixing the first connector; a first coupling part, the first coupling part is arranged on the fixed The outer surface of the component; wherein, the signal processing device further includes a second coupling part, the second coupling part is arranged on the outer surface of the external box; wherein, the signal detection and processing module further includes: a fixed box, including A third joint part and a fourth joint part, the third joint part and the fourth joint part are respectively engaged with the first joint part and the second joint part. The signal detection and processing module as described in claim 7, wherein the detection device further includes: a fixing part for fixing the first connector; a first connecting part, the first connecting part is arranged on the fixing part and is annular; wherein, the signal processing device further includes a second connecting part, the second connecting part The coupling part is disposed on the external box and is annular, and the second coupling part engages with the first coupling part. The signal detection and processing module of claim 10, wherein the first coupling part surrounds the first connector, the second coupling part surrounds the second connector, and the first coupling part and the second coupling part pass through Magnetic binding. The signal detection and processing module of claim 10, wherein the first coupling part is a groove and the second coupling part is a flange. A wearable product, including: a carrier; and the signal detection and processing module as described in any one of claims 5 to 12, configured in the carrier. The wearable product as claimed in claim 13, wherein the carrier is flexible. The wearable product as described in claim 13, wherein the wearable product is smart clothing. The wearable product as described in claim 13 further includes: a barrier layer covering the signal detection and processing module.

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