Brain-heart-lung wearing system

Abstract

The invention provides a brain cardiopulmonary wearing system which comprises a watch head body and a head ring, a first electrode slice capable of monitoring electroencephalogram is arranged on the inner side of the head ring, the watch head body is provided with an intelligent sensor used for monitoring physical condition information of a wearer, the watch head body is provided with an inner cavity and is hinged to a dial plate, a plurality of grooves are formed in the inner cavity, and protrusions are arranged at the bottoms of the grooves. The head ring is connected with a circular block through a plurality of connecting strips, the circular block is provided with a clamping groove used for placing the power supply sheet, the power supply sheet is connected with the first processor, and the first processor is in communication connection with the first electrode sheet and the meter head body. The watch head body is worn on a user for operation through the watchband, the head ring is worn on the head of the user, electroencephalogram is monitored through the first electrode slice arranged on the inner side of the head ring, then data are sent to the first processor, then the first processor sends the data to the watch head body, and finally the data are displayed on the dial plate.

Description

Technical Field

[0001] The present invention relates to the medical field, and in particular to a wearable brain, heart and lung system. Background Art

[0002] At present, with the development of the medical system, various implementation measures have emerged in the joint communities, health service centers, elderly activity centers, health management centers, etc., for service points and implementation grids. Some provide self-health management plans to help residents manage their health (drug efficacy, diet, exercise, emotions, etc.), prevent diseases before they occur, and prevent changes in diseases. It reduces the incidence of chronic diseases in the region and the medical burden and medical insurance expenses of patients with chronic diseases or patients in recovery, improves the quality of life of residents, responds to the country's big health policy, and implements it. The main purpose is to care about the physical health of residents, with the brain, heart and lungs as the main focus.

[0003] There are some bracelets on the market that can detect some physical conditions of users, and collect the user's blood oxygen, blood sugar, blood pressure, and heart rate indicators regularly in real time to help residents manage their health (drug efficacy, diet, exercise, emotions, etc.) and prevent illness before it occurs. However, these products on the market cannot monitor the user's EEG. Summary of the invention

[0004] The problem to be solved by the present invention is to provide a brain-cardio-pulmonary wearable system that can detect multiple characteristics of a user in view of the above-mentioned deficiencies in the prior art.

[0005] To achieve the above-mentioned objectives, the present invention adopts the following technical solutions: a brain, heart and lung wearable system, comprising a watch body and a headband, a first electrode sheet capable of monitoring brain electricity is provided on the inner side of the headband, the watch body has an intelligent sensor for monitoring the wearer's physical condition information, the watch body has a charging interface, the watch body has an inner cavity and a dial is hinged, a plurality of grooves are provided in the inner cavity, a protrusion is provided at the bottom of the groove, a power sheet located on the protrusion in the groove and the watch body can be wirelessly charged, the headband is connected to a circular block through a plurality of connecting strips, a first processor is provided on the circular block, the circular block is provided with a card slot for placing the power sheet, the power sheet is connected to the first processor, and the first processor is communicatively connected to the first electrode sheet and the watch body.

[0006] Furthermore, the intelligent sensor includes a temperature sensor, a MEMS pressure sensor and an ECG acquisition unit; the temperature sensor is used to monitor the wearer's body temperature; the MEMS pressure sensor is used to monitor the wearer's blood pressure; and the ECG acquisition unit is used to collect ECG conditions.

[0007] Furthermore, the first processor includes an RFID information unit, a signal acquisition unit and a wireless transceiver unit, the RFID information unit is used to record personal information; the signal acquisition unit is used to collect and process the wearer's physical condition information collected by the intelligent sensor unit; the wireless transceiver unit is used to send personal information and wearer's physical condition information; the wireless transceiver unit is communicatively connected to the wireless sending unit connected to the first electrode sheet.

[0008] Furthermore, the circular block includes an upper block, a lower block and a connecting column, the upper block and the lower block arranged in parallel are vertically connected by the connecting column, the outer wall of the connecting column is provided with an electrical connecting sheet, and the strip-shaped second electrode sheet is energized when it contacts the electrical connecting sheet.

[0009] Furthermore, the watch head body is connected to a watch strap, and the watch strap is provided with a strip-shaped inner cavity along the long direction, and the second electrode sheet is placed in the strip-shaped inner cavity when idle, and the watch head body is arranged in the middle of the watch strap, and one end of the watch strap has a clamping portion, and the clamping portion can be plugged into the opening of the strip-shaped inner cavity, and the inner wall of the head ring is provided with a first clamping groove, and the connecting strip is clamped with the first clamping groove, and the second electrode sheet is provided with a second clamping groove, and the second clamping groove is clamped with the connecting strip, and the second electrode sheet includes a base layer and a first electric level area and a second electric level area arranged on the base layer, and the first electric level area and the second electric level area are connected to an external connection area through a lead, and the external connection area is energized when in contact with the electrical connection sheet.

[0010] Furthermore, the head ring includes a head end and a tail end, and the kit is sleeved on the head end and the tail end, and the head end and the tail end are respectively connected with a first extrusion sheet and a second extrusion sheet, and the first extrusion sheet and the second extrusion sheet correspond to each other and form a through hole, wherein the connecting strip corresponding to the notch is connected with a sleeve, and the sleeve extends into and passes through the through hole, and the sleeve is made of rubber, and a sliding bar is provided inside the sleeve, and the sliding bar is provided with a protrusion, which can clamp the first extrusion sheet and the second extrusion sheet after squeezing the inner wall of the sleeve.

[0011] Furthermore, the slide bar is connected to a shell, a transmitting end and a receiving end are provided on the shell, a second processor is installed in the shell, the second processor is communicatively connected with the first processor, and the transmitting end and the receiving end cooperate with each other to monitor brain oxygen.

[0012] Furthermore, the brain, heart and lung wearable system also includes a finger ring, the inner wall of which is provided with a matching photoelectric signal transmitter and a photoelectric signal receiver, and the finger ring is tough and has a notch.

[0013] Compared with the prior art, the present invention has the following beneficial effects: the present invention wears the watch body on the user through the watch strap, detects the user's heart rate, blood pressure, etc. through the set intelligent sensor, and wears the headband on the user's head to monitor the EEG using the first electrode sheet set on the inner side of the headband, and then sends the data to the first processor, and then the first processor sends the data to the watch body, and finally displays it on the dial, so as to predict and discover patients with various diseases in advance and conduct health management for patients who are already ill, improve the quality of life of residents, reduce the family and social burden caused by chronic diseases, and save medical insurance expenditures; through the mutual cooperation of the watch body and the headband, the six major indicators of the user's brain, heart and lungs are intelligently analyzed, and reminder and early warning decisions are made.

[0014] Other advantages, objectives and features of the present invention will be embodied in part through the following description, and in part will be understood by those skilled in the art through study and practice of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 This is a schematic diagram of the structure of the header body.

[0016] Figure 2 This is a schematic diagram of the structure of the head ring.

[0017] Figure 3 This is a three-dimensional image of the headband.

[0018] Figure 4 It is a schematic diagram of the structure of a circular block.

[0019] Figure 5 It is a schematic diagram of the structure of the watch head and the watch strap.

[0020] Figure 6 Schematic diagram of the structure of the second electrode sheet.

[0021] Figure 7 This is a schematic diagram of the internal structure of the kit.

[0022] Figure 8 Schematic diagram of the casing and slider structure.

[0023] Fig. 9 Schematic diagram of the ring structure. DETAILED DESCRIPTION

[0024] In order to make the technical means, creative features, objectives and functions of the present invention clearer and easier to understand, the present invention is further described below in conjunction with the accompanying drawings and specific embodiments:

[0025] The present invention proposes a brain, heart and lung wearable system, including a watch head body 1 and a headband 2, wherein the inner side of the headband 2 is provided with a first electrode sheet 3 capable of monitoring brain electricity, the watch head body 1 has an intelligent sensor for monitoring the wearer's physical condition information, the watch head body 1 has a charging interface 4, the watch head body 1 has an inner cavity 5 and is hinged with a dial 10, a plurality of grooves 7 are provided in the inner cavity 5, a protrusion 8 is provided at the bottom of the groove 7, a power supply sheet on the protrusion 8 in the groove 7 and the watch head body 1 can be wirelessly charged, the protrusion 8 is hemispherical, and the maximum area of ​​the protrusion 8 is smaller than the cross-section of the power supply sheet, so as to facilitate the removal of the power supply sheet, the headband 2 is connected to a circular block 14 through a plurality of connecting strips 16, the circular block 14 is provided with a first processor, the circular block 14 is provided with a card slot 15 for placing the power supply sheet, the power supply sheet and the The first processor is connected, and the first processor is communicatively connected with the first electrode sheet 3 and the header body 1; the header body 1 is charged through the charging interface 4, and the power supply sheet located in the groove 7 is charged at the same time, the power supply sheet is a rechargeable power sheet in the prior art, and the power supply sheet provides electricity for the first processor, the first electrode sheet 3 is electrically connected to the card slot 15, and when the power supply sheet is placed in the card slot 15, it provides electricity for the first processor and the first electrode sheet 3 at the same time; the header body 1 has a wireless transmission module, a data processing module, a central control module, a storage module, a three-axis acceleration monitoring module and a power module, the power module is connected to the charging interface 4, the first electrode sheet 3 is a brain electroencephalogram biosensor, a magnetic block 9 is provided in the groove 7, and an iron block that can be adsorbed by the magnetic block 9 is provided on the inner side of the dial 10.

[0026] The smart sensor includes a temperature sensor, a MEMS pressure sensor and an ECG acquisition unit; the temperature sensor is used to monitor the wearer's body temperature; the MEMS pressure sensor is used to monitor the wearer's blood pressure; the ECG acquisition unit is used to collect ECG conditions; the temperature sensor, MEMS pressure sensor and ECG acquisition unit respectively collect the wearer's movement conditions, body temperature, blood pressure and ECG conditions, the signal acquisition unit of the watch head body 1 collects, processes and records the smart sensor unit signal, and the sending unit of the watch head body 1 sends the signal to the dial 10 for display, thereby interacting personal health information and collected information.

[0027] The first processor includes an RFID information unit, a signal acquisition unit and a wireless transceiver unit. The RFID information unit is used to record personal information; the signal acquisition unit is used to collect and process the wearer's physical condition information collected by the intelligent sensor unit; the wireless transceiver unit is used to send personal information and wearer's physical condition information; the wireless transceiver unit is communicatively connected to the wireless sending unit connected to the first electrode sheet 3.

[0028] The circular block 14 includes an upper block, a lower block 12 and a connecting column 13. The upper block and the lower block 12 arranged in parallel are vertically connected by the connecting column 13. The outer wall of the connecting column 13 is provided with an electrical connecting piece. The strip-shaped second electrode piece 21 is energized when it contacts the electrical connecting piece. By using multiple second electrode pieces 12 in conjunction with the first electrode piece 3, the monitoring of EEG data is more accurate. When in use, multiple second electrode pieces 12 are connected to the electrical connecting piece and then cooperate with the first electrode piece 3 at the same time to realize monitoring of multiple points on the head. A circular notch 28 is formed between the upper block, the lower block 12 and the connecting column 13, and the end of the second electrode piece 12 extends into the circular notch 28.

[0029] The watch head body 1 is connected to a watch strap 6, which is a flexible band 11. The watch strap 6 is provided with a strip inner cavity 20 along the length direction. The second electrode sheet 21 is placed in the strip inner cavity 20 when idle. The watch head body 1 is arranged in the middle of the watch strap 6. One end of the watch strap 6 has a snap-on portion 22. The snap-on portion 22 can be plugged into an opening 23 of the strip inner cavity 20. The inner wall of the headband 2 is provided with a first snap-on groove 17. The connecting strip 16 is snap-on with the first snap-on groove 17. The second electrode sheet 21 is provided with a second snap-on groove 29. The second snap-on groove 29 is snap-on with the connecting strip 16. The second electrode sheet 21 includes The invention comprises a base layer 24 and a first electric zone 25 and a second electric zone 26 arranged on the base layer 24, wherein the first electric zone 25 and the second electric zone 26 are connected to an external zone 27 through a lead, and the external zone 27 is energized when in contact with the electrical connection sheet; the second electrode sheet 21 is placed in the strip-shaped inner cavity 22 before use, and the inner length of the strip-shaped inner cavity 22 is smaller than the length of the second electrode sheet 21, and when the clamping portion 22 and the opening 23 of the strip-shaped inner cavity 20 can be plugged in, the portion of the second electrode sheet 21 extending from the opening 23 is squeezed at the same time to perform squeezing and clamping, and the extending portion of the second electrode sheet 21 is made of flexible material.

[0030] The headband 2 includes a head end 18 and a tail end 19, and a sleeve 32 is sleeved on the head end 18 and the tail end 19. The head end 18 and the tail end 19 are respectively connected with a first extrusion sheet 34 and a second extrusion sheet 35. The first extrusion sheet 34 and the second extrusion sheet 35 correspond to each other and form a through hole 36, wherein the connecting strip 16 corresponding to the notch is connected with a sleeve 30, and the sleeve 30 extends into and passes through the through hole 36. The sleeve 30 is made of rubber, and a slide bar 38 is arranged inside the sleeve 30. The sleeve 30 is provided with a sliding cavity 37, and the sliding bar 38 extends into the sliding cavity 37. The sliding bar 38 is provided with a protrusion 41, which can clamp the first extrusion sheet 34 and the second extrusion sheet 35 after squeezing the inner wall of the sleeve 30. The position of the sliding bar 38 in the sleeve 30 is adjusted to lock the head end 18 and the tail end 19. The sleeve 32 has an inner cavity 33, and the inner cavity 33 has two openings. The first extrusion sheet 34 and the second extrusion sheet 35 extend into the inner cavity 33 from the openings respectively.

[0031] The slide bar 38 is connected to a shell 31, and a transmitting end 39 and a receiving end 40 are provided on the shell 31. A second processor is installed in the shell, and the second processor is connected to the first processor in communication. The second processor is connected to a communication module arranged in the shell, and the communication module is connected to the first processor in communication. The transmitting end 39 and the receiving end 40 cooperate with each other to monitor brain oxygen through the transmitting end 39 and the receiving end 40; the acquisition monitoring module includes two transmitting ends and two receiving ends, and the two transmitting ends respectively transmit infrared light of different wavelengths to the forehead, and the infrared light is received by the two receiving ends after absorption, and the optical signal is converted into a voltage signal; the second processing module includes a voltage conversion module, a digital-to-analog conversion module and a data processing module, and the voltage conversion module is used to convert the receiving end The received voltage signal is pre-amplified and filtered, and the photoelectric signal is converted to convert the optical signal into a voltage signal. The digital-to-analog conversion processing module is used for signal conversion and processing, and converts the voltage signal into a digital signal for subsequent calculation and processing; the data processing module uses the improved Lambert-Beer law principle and signal analysis algorithm to calculate the changes in the concentration of oxygenated hemoglobin (HbO_2) and reduced protein (Hb) in the forehead for the digital signal processed by the signal processing module; the communication module sends the data processed by the data processing module to the first processor and finally displays it on the dial 10. The shell is provided with an installation groove, and a connecting line is provided in the installation groove. The connecting line connects the transmitting end 39, the receiving end 40 and the second processor, and the power supply chip is installed in the installation groove.

[0032] The brain, heart and lung wearable system also includes a finger ring 42, the inner wall of which is provided with a matching photoelectric signal transmitter 43 and a photoelectric signal receiver 44, the finger ring 42 is tough and has a notch 45, the photoelectric signal transmitter 43 is used to emit light and vertically incident on the finger; the photoelectric signal receiver 44 is used to receive the reflected light after the light irradiates the finger; the finger ring 42 is also provided with a photoelectric conversion unit, which is used to receive the reflected light signal of the photoelectric signal receiver for photoelectric conversion; the finger ring 42 is also provided with a signal processing unit for realizing the amplification, shaping and filtering of the photoelectric conversion signal , voltage rise; the finger ring 42 is also provided with an A / D conversion unit, which performs A / D conversion on the processed signal, the finger ring 42 is also provided with a third processor, and the finger ring 42 is also provided with a power supply for power supply, the third processor is connected to the photoelectric signal receiver 44, the photoelectric signal transmitter 43, the photoelectric conversion unit, the signal processing unit, the A / D conversion unit and the power supply, the power supply is an electric chip, which transmits light through the finger and takes its reflected light intensity as the measurement target to achieve pulse wave and blood oxygen concentration measurement; the finger ring 42 has toughness so that it can clamp the finger when passing through the finger.

[0033] The watch head body 1 is provided with a second processor which is respectively connected to the wireless transmission module, the data processing module, the central control module, the storage module, the three-axis acceleration monitoring module and the power module. The second processor is communicatively connected with the third processor so as to display the data on the finger ring 42 on the watch dial 10. The watch dial 10 has a display module connected to the second processor.

[0034] The outer diameter of the finger ring 42 is equal to the inner diameter of the inner cavity 5 so that the finger ring 42 can be received in the inner cavity 5; the thickness of the finger ring 42 is less than the distance between the outer side of the groove 7 and the inner wall of the inner cavity 5 so as to prevent the finger ring 42 from interfering with the power supply sheet.

[0035] The wearable brain, heart and lung system also includes a backend system, which is a mobile phone app. The second processor sends the monitored data to the mobile phone through the communication module, and the mobile phone app displays and monitors the data at the same time. The mobile phone app has an early warning module, which sets a threshold. When the user data exceeds the threshold, the early warning module issues an early warning, which may be a ringtone or vibration.

[0036] Finally, it should be noted that the above embodiments are only used to illustrate the technical solution of the present invention rather than to limit it. Although the present invention has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solution of the present invention can be modified or replaced by equivalents without departing from the purpose and scope of the technical solution of the present invention, which should be included in the scope of the claims of the present invention.

Claims

1. A wearable brain, heart and lung system, characterized in that: The present invention comprises a watch body (1) and a headband (2), wherein a first electrode sheet (3) capable of monitoring brain waves is arranged on the inner side of the headband (2), the watch body (1) has an intelligent sensor for monitoring the wearer's physical condition information, the watch body (1) has a charging interface (4), the watch body (1) has an inner cavity (5) and a dial (10) hinged thereon, a plurality of grooves (7) are arranged in the inner cavity (5), a protrusion (8) is arranged at the bottom of the groove (7), a power sheet located on the protrusion (8) in the groove (7) and the watch body (1) can be wirelessly charged, the headband (2) is connected to a circular block (14) via a plurality of connecting strips (16), a first processor is arranged on the circular block (14), the circular block (14) is provided with a card slot (15) for placing the power sheet, the power sheet is connected to the first processor, and the first processor is communicatively connected to the first electrode sheet (3) and the watch body (1).

2. A wearable brain-cardio-pulmonary system according to claim 1, characterized in that: The smart sensor includes a temperature sensor, a MEMS pressure sensor and an ECG acquisition unit; the temperature sensor is used to monitor the wearer's body temperature; the MEMS pressure sensor is used to monitor the wearer's blood pressure; The ECG acquisition unit is used to collect ECG conditions.

3. A wearable brain-cardio-pulmonary system according to claim 2, characterized in that: The first processor comprises an RFID information unit, a signal collection unit and a wireless transceiver unit. The RFID information unit is used to record personal information; the signal collection unit is used to collect and process the wearer's physical condition information collected by the intelligent sensor unit; the wireless transceiver unit is used to send personal information and wearer's physical condition information; the wireless transceiver unit is communicatively connected to the wireless sending unit connected to the first electrode sheet (3).

4. A wearable brain-cardio-pulmonary system according to claim 1, characterized in that: The circular block (14) comprises an upper block, a lower block (12) and a connecting column (13); the upper block and the lower block (12) are arranged in parallel and are vertically connected via the connecting column (13); an electrical connecting sheet is provided on the outer wall of the connecting column (13); and a strip-shaped second electrode sheet (21) is energized when in contact with the electrical connecting sheet.

5. A wearable brain-cardio-pulmonary system according to claim 4, characterized in that: The watch head body (1) is connected to a watch strap (6), and the watch strap (6) is provided with a strip-shaped inner cavity (20) along the length direction. The second electrode sheet (21) is placed in the strip-shaped inner cavity (20) when idle. The watch head body (1) is arranged in the middle of the watch strap (6), and one end of the watch strap (6) has a clamping portion (22), and the clamping portion (22) can be plugged into an opening (23) of the strip-shaped inner cavity (20). The inner wall of the head ring (2) is provided with a first clamping groove (17), and the connecting strip (1 6) is snap-connected with the first snap-in slot (17), the second electrode sheet (21) is provided with a second snap-in slot (29), the second snap-in slot (29) is snap-connected with the connecting strip (16), the second electrode sheet (21) comprises a base layer (24) and a first electric level region (25) and a second electric level region (26) arranged on the base layer (24), the first electric level region (25) and the second electric level region (26) are connected to an external connection region (27) through a lead, and the external connection region (27) is energized when in contact with the electrical connection sheet.

6. A wearable brain-cardio-pulmonary system according to claim 5, characterized in that: The head ring (2) includes a head end (18) and a tail end (19), and a sleeve (32) is sleeved on the head end (18) and the tail end (19), and the head end (18) and the tail end (19) are respectively connected to a first extrusion sheet (34) and a second extrusion sheet (35), and the first extrusion sheet (34) and the second extrusion sheet (35) correspond to each other and form a through hole (36), wherein the connecting strip (16) corresponding to the notch is connected to a sleeve (30), and the sleeve (30) extends into and passes through the through hole (36), and the sleeve (30) is made of rubber material, and a slide bar (38) is arranged inside the sleeve (30), and a protrusion (41) is arranged on the slide bar (38), which can clamp the first extrusion sheet (34) and the second extrusion sheet (35) after squeezing the inner wall of the sleeve (30).

7. A wearable brain-cardio-pulmonary system according to claim 6, characterized in that: The slide bar (38) is connected to a shell, and a transmitting end (39) and a receiving end (40) are provided on the shell. A second processor is installed in the shell, and the second processor is communicatively connected with the first processor. The transmitting end (39) and the receiving end (40) cooperate with each other to monitor brain oxygen.

8. The wearable brain-cardio-pulmonary system according to claim 1, characterized in that: The brain, heart and lung wearable system further comprises a finger ring (42), the inner wall of which is provided with a matching photoelectric signal transmitter (43) and a photoelectric signal receiver (44), and the finger ring (42) is tough and has a notch (45).

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