Smart medical system and application method for the same

Abstract

To provide a smart medical system and an application method for the same with which, information on a real-time vital sign of a patient and a hospital-related medical process can be integrated with each other, the efficiency and intelligence of the entire medical system are improved, and the rate of occurrence of mistakes made by medical workers is effectively reduced.SOLUTION: A method includes: a step a1 of reading the number of a patient's health insurance card by a medical information sub-system, and a step a2 of transmitting the number of the health insurance card and medical history data corresponding to the number of the health insurance card to an emergency room sub-system; a step a3 of checking, by the emergency room sub-system, reception of an identification code of the patient's integration unit and the medical history data, and a step a4 of binding and pairing the integration unit and the health insurance card on the basis of the number of the health insurance card and the identification code of the integration unit; a triage step; a medical examination and treatment step; a payment step; a medicine receiving step; and an integration unit returning step.SELECTED DRAWING: Figure 4

Description

Technical Field

[0001] The present invention relates to a medical system, and in particular, to an integrated device having a triage function, such as a smart medical bracelet. After the integrated device is paired, relevant information of a patient, including vital signs, location, triage identification signal, etc., can be transmitted to the smart medical system of the present invention in real time. The present invention also relates to a smart medical system and its application method. Thereby, the adaptability of the medical system can be improved through real-time information transmission and intelligent data analysis, and more rapid and individualized medical services can be provided to patients.

Background Art

[0002] Currently, hospitals equipped with emergency units face a huge number of emergency patients every day, which brings a heavy workload to the hospitals. The conditions of emergency patients vary, and the degrees of urgency are different, and the situation may always change. In such an environment, hospitals, doctors, and emergency patients have to follow complex medical procedures. Therefore, it is urgent to overcome the possible delays that patients may encounter in hospitals and medical processes, integrate existing hospitals and medical processes, and improve the intelligent automation level of the emergency department. In such an era of smart medicine, it is very important to find a support method for hospitals, doctors, and emergency patients to jointly face these problems. Therefore, how to introduce advanced automation technologies, especially intelligent process management systems, to smoothly connect processes such as admission, diagnosis, treatment, and discharge to improve efficiency, meet the diverse needs of many emergency patients, and support hospitals, doctors, and emergency patients to complete each process quickly and accurately. At the same time, making the hospital and medical process more intelligent and efficient, reducing the burden on hospitals, doctors, and emergency patients in the medical process, and providing a better medical experience is an urgent issue to be solved in the emergency medical system currently.

Summary of the Invention

[0003] In order to solve the problems related to the above prior art, the present invention proposes a smart medical system including an integrated device, The integrated device includes: A touch display panel installed on the top of the integrated device and exposed on the surface of the top; An optical transceiver installed at the bottom of the integrated device and exposed on the surface of the bottom; A body temperature detector installed at the bottom of the integrated device and exposed on the surface of the bottom; A bracelet belt installed on a pair of opposite sides of the integrated device for fixing the integrated device to the user's wrist; A soft light guide display having a light guide function and installed on the outer surface of the bracelet belt; At least one full-color light-emitting diode installed on at least one side of the pair of opposite sides of the integrated device and optically coupled to the soft light guide display; A control unit connected to the touch display panel, the optical transceiver, the body temperature detector, and the soft light guide display, providing an identification code of the integrated device, and acquiring real-time vital sign data of the user from the optical transceiver and the body temperature detector; A wireless network communication device for data transmission connected to the control unit; A wireless network communication device for identity identification connected to the control unit; An emergency treatment room subsystem connected to the integrated device via the wireless network communication device for data transmission and the wireless network communication device for identity identification; A medical information subsystem connected to the emergency treatment room subsystem via a network and capable of accessing medical record data. A smart medical system including these components.

[0004] In one embodiment of the present invention, the smart medical system further includes A location subsystem that utilizes a location wireless network. The integration device includes a location wireless network communication device of the location wireless network connected to the control unit, The location subsystem is composed of a plurality of ultra-wideband (UWB) base stations, and calculates the current position of the integration device by detecting the individual signal propagation delay times of the same ultra-wideband (UWB) signal transmitted from the integration device, which are received by the plurality of ultra-wideband (UWB) base stations respectively. The signal propagation delay time is the time required for the ultra-wideband (UWB) signal transmitted by the integration device to propagate to the ultra-wideband (UWB) base station.

[0005] Moreover, in the present invention, there is provided a method for applying a smart medical system by applying the above smart medical system, Step a1: The medical information subsystem reads the health insurance card number of the patient, Step a2: The medical information subsystem transmits the health insurance card number and the medical record data corresponding to the health insurance card number to the emergency treatment room subsystem, Step a3: The emergency treatment room subsystem receives the identification code of the integration device of the patient and the medical record data, Step a4: The emergency treatment room subsystem binds and pairs the integration device and the health insurance card based on the health insurance card number and the identification code of the integration device, A method for applying a smart medical system including the pairing step with is disclosed.

[0006] Moreover, in the present invention, there is provided a method for applying a smart medical system by applying the above smart medical system, Step b1: The emergency treatment room subsystem reads the identification code of the integration device of the patient and the real-time vital sign data in the integration device, Step b2: The emergency treatment room subsystem reads the medical record data corresponding to the identification code of the integration device through the medical information subsystem, Step b3: The emergency treatment room subsystem displays the medical record data and the real-time vital sign data in the integrated device on a medical display device. Step b4: The emergency treatment room subsystem enables medical staff on the medical side to quickly evaluate based on the medical record data and the real-time vital sign data, and guides them to select and confirm the triage of the patient through the interface of the emergency treatment room subsystem. Step b5: The emergency treatment room subsystem sets the emission color of the bracelet belt of the integrated device of the patient based on the triage of the patient. Disclosed is an application method of a smart medical system including a triage step with the above.

Effect of the Invention

[0007] According to the present invention, by wearing the paired integrated device on the patient, in the smart medical system of the present invention, particularly in the emergency treatment room subsystem, the integrated device corresponds to the patient's health insurance card, and through the identity identification wireless network communication device and the location subsystem, the relevant real-time information of the patient can be easily introduced into the hospital's existing system and medical process. Therefore, the real-time vital sign information of the patient and the hospital-related medical process can be integrated, the efficiency and intelligence of the entire medical system can be improved, and the incidence of mistakes by medical staff can also be effectively reduced. In addition, the integrated device can permit the retrieval of medical records within the medical subsystem so that medical staff can quickly evaluate the triage of the patient. Also, the emergency treatment room subsystem can automatically set the emission colors of a plurality of full-color light-emitting diodes (LEDs) and soft light guide displays in the integrated device based on the result of the evaluation. Therefore, medical staff can visually grasp the patient's condition, saving time and labor and avoiding misdiagnosis. Further, the integrated device can notify the patient of the time / location of the relevant diagnosis and treatment process and can assist the patient in processes such as payment of fees, receipt of medicine, and discharge procedures. According to such an integration method centered around such an integrated device, the automation of the emergency treatment unit can be improved, not only providing real-time data, but also analyzing a large amount of digital information through an intelligent data processing system and providing immediate reference information to medical staff. Also, even in the situation of limited medical staff, optimal measures can be quickly provided to a large number of patients, various processes in the hospital can be efficiently completed, the workload of the relevant medical units and medical staff can be effectively reduced, and at the same time, a quick and accurate medical process can be ensured. Thereby, the object of the present invention can be achieved.

Brief Description of the Drawings

[0008]

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Mode for Carrying Out the Invention

[0009] Hereinafter, the technical means adopted to achieve the object of the present invention will be described with reference to the drawings and the preferred embodiments of the present invention.

[0010] FIG. 1 is a block diagram showing the functions of the smart medical system 1 according to the present invention. The smart medical system 1 of the present invention includes an integrated device 2 having a wireless communication function, an emergency treatment room subsystem 3 connected to the integrated device 2 via a wireless network, a medical information subsystem (HIS) 4 connected to the emergency treatment room subsystem 3 via a network, a cash flow subsystem 5 connected to the emergency treatment room subsystem 3 via the network, and a data center 6 connected to the emergency treatment room subsystem 3 via the network.

[0011] The emergency treatment room subsystem 3 is the main server of the smart medical system 1 of the present invention, and includes a plurality of databases and a plurality of servers. For example, it includes the database of the emergency treatment room subsystem 3, the application server, the database in the memory, and the emergency treatment room AI server 7. The medical information subsystem (HIS) 4 mainly enables the hospital side / medical staff to access the basic data and medical history of the patient by authenticating the health insurance card of the patient. The cash flow subsystem 5 is an accounting system on the hospital side that calculates the medical expenses of the patient and confirms / records the medical expenses paid by the patient. The data center 6 is for storing / recording the data generated by the smart medical system 1 of the present invention for use by the emergency treatment room AI server 7. The emergency treatment room AI server 7 mainly cooperates with the emergency treatment room subsystem 3 to provide the application of artificial intelligence and process a huge amount of related data. That is, the emergency treatment room AI server 7 makes a related artificial intelligence response to the emergency treatment room subsystem 3 according to the needs submitted to the emergency treatment room subsystem 3. For example, when a patient calls the emergency treatment room subsystem 3 via the integrated device 2 saying "the drip is about to run out", the emergency treatment room subsystem 3 transmits the received voice of the patient saying "the drip is about to run out" to the emergency treatment room AI server 7 for voice recognition. If it is determined that "the patient is requesting the treatment of the drip" through the voice recognition of the patient, the emergency treatment room subsystem 3 can perform the following processing according to the request. For example, the emergency treatment room subsystem 3 can dispatch a smart care vehicle / nursing staff to the patient to end the drip treatment or arrange for the replacement of the drip medicine. The other configurations shown in FIG. 1 will be described later.

[0012] Figure 2 is a schematic diagram showing the front configuration of the integrated device according to the present invention. The integrated device 2 is a device on the patient side, for example, a smart medical bracelet worn on the patient's wrist. When the identification code of the integrated device 2 and the number of the patient's health insurance card are bound and paired via the emergency treatment room subsystem 3, in the smart medical system 1 of the present invention, particularly in the emergency treatment room subsystem 3, the integrated device 2 is equivalent to the health insurance card, so the medical information subsystem (HIS) 4 can provide the medical staff with the patient's basic data and medical history through the authentication of the patient's integrated device 2. Other parts shown in Figure 2 will be described later.

[0013] As shown in Figure 1, the smart medical system 1 of the present invention further has facilities connected to the emergency treatment room subsystem 3 via a network. The facilities include a location subsystem 10, a payment machine 11, a smart medicine collection locker 12, a smart service desk 13, and a return machine 14. Among them, the location subsystem 10 has a plurality of wireless base stations such as a plurality of ultra-wideband (UWB) base stations, all of which can receive the same ultra-wideband (UWB) signal transmitted from the integrated device 2, and calculate the position of the integrated device 2 based on the signal delay time related to the distance between each of the plurality of ultra-wideband (UWB) base stations and the integrated device 2. For example, in one embodiment, when 6 ultra-wideband (UWB) base stations are installed in 1800 square meters, the location accuracy can reach 10 - 30 cm. The payment machine 11 can read the identification code of the patient's integrated device 2. After the patient pays the medical expenses, the payment machine 11 notifies the cash flow subsystem 5 via the emergency treatment room subsystem 3 that the patient has paid the medical expenses. The smart medicine collection locker 12 can read the identification code of the patient's integrated device 2. When the identification code of the integrated device 2 is read, the medicine described in the prescription can be provided to the patient and the patient can receive it.

[0014] The smart service desk 13 receives general inquiries including text / audio inquiries, and in cooperation with the emergency treatment room subsystem 3, responds to the received inquiries including text / audio responses and treatments by medical staff. The return machine 14 can read the identification code of the patient's integrated device 2. When the identification code of the integrated device 2 is read, the return machine 14 cooperates with the emergency treatment room subsystem 3 to cancel the pairing between the identification code of the integrated device 2 and the patient's health insurance certificate number.

[0015] In the smart medical system 1 of the present invention, the medical facilities connected to the emergency treatment room subsystem 3 via the network further include a strategic dashboard 15, a tablet device / smart glasses 16, and an emergency notification device 17. The strategic dashboard 15 mainly receives the current medical information and location information of the patient provided by the emergency treatment room subsystem 3 and displays them on the display. Medical staff can know the patient's real-time vital signs and the content of medical treatments that have been or will soon be provided to the patient. For example, the medical treatments provided to the patient include whether the patient's current condition is stable, when to administer injections or medications to the patient, and when to undergo an X-ray examination. The tablet device / smart glasses 16 is a portable display / communication device for medical staff to always communicate with the emergency treatment room subsystem 3. When the emergency treatment room subsystem 3 determines that it is necessary to prompt medical staff to pay attention to dealing with an emergency, it controls the emergency notification device 17 to issue a warning by light or sound.

[0016] As shown in FIG. 2, the integrated device 2 includes a main body 21, a bracelet belt 22 disposed on a pair of opposite sides of the integrated device 2, a touch display panel 23 disposed on the top of the main body 21 of the integrated device 2 and exposed on the surface of the top, a housing 24, a soft light guide display 25 having a light guide function and disposed on the outer surface of the bracelet belt 22, a plurality of full-color light-emitting diodes 26 disposed on at least one side of the pair of opposite sides of the integrated device 2 and optically coupled to the soft light guide display 25, a button 27, and a magic tape (registered trademark) 221. Further, on the bottom surface of the main body 21 of the integrated device 2 that contacts the patient's skin, an optical transceiver (not shown) is installed, and the optical transceiver is installed at the bottom of the integrated device 2 and exposed on the bottom surface. Also, a body temperature detector 37 (not shown in FIG. 2) is installed at the bottom of the main body 21 of the integrated device 2 and exposed on the bottom surface. The magic tape (registered trademark) 221 is for fixing the bracelet belt 22 to the patient's wrist, and the soft light guide display 25 is for diffusing and extending the light emitted by the plurality of full-color light-emitting diodes 26 to the outer surface of the bracelet belt 22. Thereby, by more prominently and softly displaying the light emitted by the plurality of full-color light-emitting diodes 26, people around can confirm the severity of the patient's condition wearing the integrated device 2 based on the color of the light displayed on the soft light guide display 25. For example, red light indicates the most severe condition of the patient, orange light indicates the next state, blue light indicates a lighter state, and green light indicates an even lighter state, with green light indicating the mildest condition of the patient. The touch display panel 23 is a thin film transistor (TFT) liquid crystal touch display panel, a quantum dot (QD) touch display panel, or an active organic light-emitting diode (AMOLED) touch display panel, and can display information, input data, and click on options to execute. The soft light guide display 25 can be composed of soft and highly light-conductive transparent silicone or transparent rubber.

[0017] FIG. 3 is a block diagram showing the functions of the integrated device according to the present invention. According to it, the integrated device 2 further includes a control unit 30, a wireless communication module 31 connected to the control unit 30, an ultra-wideband (UWB) module 32, a near-field communication (NFC) module 33, a touch display panel 23, a plurality of full-color light-emitting diodes 26, buttons 27, a data security chip 28, a buzzer 29, a heart rate monitor 361, a blood oxygen saturation meter 362, a blood pressure monitor 363, a blood glucose meter 364, and a light transceiver (not shown). Among them, the wireless communication module 31 is connected to a microphone 34 and a speaker 341. In one embodiment, the wireless communication module 31 may be a WiFi module, a Bluetooth (registered trademark) (BT) module, or both. Also, the control unit 30 may be a microcontroller (MCU), and can read the identification code of the integrated device 2 from its own memory or another memory (not shown) of the integrated device 2, and by providing the identification code to the near-field communication (NFC) module 33, it can be transmitted externally via the near-field communication (NFC) module 33. The light transceiver has a light-emitting diode and a light sensor (not shown), irradiates the light of the light-emitting diode on the skin of the user's wrist, and detects the change in the light intensity of the light reflected by the skin and transmitted through the skin to the light sensor. Also, the heart rate monitor 361, the blood oxygen saturation meter 362, the blood pressure monitor 363, and the blood glucose meter 364 estimate vital signs such as the heart rate, blood oxygen saturation, blood pressure value, and blood glucose value of the patient using the integrated device 2 by sharing the change in the light intensity detected by the light sensor. In different embodiments, the heart rate monitor 361, the blood oxygen saturation meter 362, the blood pressure monitor 363, and the blood glucose meter 364 may be hardware chip circuits (ICs) or software programs executed by the control unit 30. The body temperature detector 37 detects the temperature of the skin of the user's wrist to confirm the patient's body temperature when using the integrated device 2, and the body temperature detector 37 may be an infrared body temperature detector or other types of body temperature detectors.The buzzer 29 is for calling attention to the patient using the integrated device 2. For example, when the touch display panel 23 receives a new message or when the user needs to respond to a message, the buzzer 29 can be sounded to draw attention. The wireless communication module 31 transmits data on vital signs such as the heart rate, blood oxygen concentration, blood pressure value, blood glucose value, and body temperature of the patient using the integrated device 2 detected by the heart rate monitor 361, blood oxygen concentration meter 362, blood pressure monitor 363, blood glucose meter 364, and body temperature detector 37 to the emergency treatment room subsystem 3, thereby monitoring the patient's vital signs in real time. Also, according to the wireless communication module 31, information can be received from the outside for the patient using the integrated device 2 to confirm. At this time, the output data of the wireless communication module 31 can be encrypted and the input data can be decrypted via the data security chip 28. As described above, since the wireless communication module 31 is connected to the microphone 34 and the speaker 341, it can also perform voice communication with the corresponding external wireless communication module. Therefore, the wireless communication module 31 is clearly a data transmission wireless network communication device. The near-field communication (NFC) module 33 can be used for non-contact identity identification at a short distance (for example, a distance of 2 to 5 centimeters). Therefore, the near-field communication (NFC) module 33 is clearly a wireless network communication device for identity identification. Similarly, according to the description of the location subsystem 10 above, the ultra-wideband (UWB) module 32 is clearly a location wireless network communication device.

[0018] Figure 4 is a flowchart showing the pairing procedure between the integrated device 2 according to the present invention and the health insurance card, and includes the steps shown below. Step a1: Check whether the medical information subsystem (HIS) has read the number of the patient's health insurance card. If not, return to step a1. Step a2: The medical information subsystem (HIS) transmits the number of the health insurance card and the medical record data corresponding to the number of the health insurance card to the emergency treatment room subsystem. Step a3: The emergency treatment room subsystem checks whether it has received the identification code of the patient's integrated device and the medical record data. If not, it returns to step a3. Step a4: The emergency treatment room subsystem binds and pairs the integrated device and the health insurance card based on the number of the health insurance card and the identification code of the integrated device. Thus, this flow is considered completed.

[0019] Figure 5 is a flowchart showing the triage procedure according to the present invention, and includes the following steps. Step b1: The emergency treatment room subsystem checks whether it has read the identification code of the patient's integrated device and the real-time vital sign data in the integrated device. If not, it returns to step b1. Step b2: The emergency treatment room subsystem checks whether it has read the medical record data corresponding to the identification code of the integrated device via the medical information subsystem (HIS). If not, it returns to step b2. Step b3: The emergency treatment room subsystem displays the medical record data and the real-time vital sign data in the integrated device on the medical display device. Step b4: The emergency treatment room subsystem guides the medical staff on the medical side to quickly evaluate based on the medical record data and the real-time vital sign data, and select and confirm the triage of the patient at the interface of the emergency treatment room subsystem. Step b5: The emergency treatment room subsystem sets the emission color of the bracelet belt of the patient's integrated device based on the triage of the patient. Thus, this flow is considered completed.

[0020] Figure 6 is a flowchart showing the diagnosis and treatment procedure according to the present invention, and includes the following steps. Step c1: Notify the patient to go to the doctor's consulting room for medical treatment by the emergency treatment room subsystem. Step c2: The emergency treatment room subsystem checks whether the identification code of the patient's integrated device and the real-time vital sign data in the integrated device have been read. If not, return to step c2. Step c3: The emergency treatment room subsystem checks whether the medical record data corresponding to the identification code of the integrated device has been read via the medical information subsystem (HIS). If not, return to step c3. Step c4: The emergency treatment room subsystem displays the medical record data, the real-time vital sign data in the integrated device, and the comparison of the patient's condition before and after treatment on the doctor's display device. Step c5: The emergency treatment room subsystem receives a decision from the doctor on whether the patient is to be discharged or continue with follow-up observation. Thus, this flow is considered completed.

[0021] Figure 7 is a flowchart showing the payment procedure for the charges at the time of discharge according to the present invention, and includes the following steps. Step d1: The cash flow subsystem calculates the payment amount of the patient and sends a payment notice to the emergency treatment room subsystem. Step d2: The emergency treatment room subsystem checks whether the payment notice has been received. If not, return to step d2. Step d3: The emergency treatment room subsystem sends the payment amount of the payment notice to the patient's integrated device, blinks the full-color light-emitting diode of the integrated device, and / or sounds the buzzer of the integrated device to notify the patient to make the payment. Step d4: The payment machine checks whether the identification code of the patient's integrated device and the payment amount have been read. If not, return to step d4. Step d5: The payment machine checks whether the patient has completed the payment at the payment machine. If the payment is not completed, return to step d5. Step d6: The payment machine notifies the emergency treatment room subsystem that the patient has completed the payment at the payment machine. Step d7: The emergency treatment room subsystem notifies the cash flow subsystem that the patient has completed the payment. Thus, this flow is completed.

[0022] Figure 8 is a flowchart showing the procedure for receiving medicine at the time of discharge according to the present invention, and includes the following steps. Step e1: The medical information subsystem (HIS) dispenses medicine to the pharmacy based on the patient's prescription and notifies the smart medicine collection locker to place the dispensed medicine. Step e2: The smart medicine collection locker transmits a medicine receipt notice to the emergency treatment room subsystem. Step e3: The emergency treatment room subsystem checks whether it has received the medicine receipt notice. If not received, return to step e3. Step e4: The emergency treatment room subsystem blinks the full-color light-emitting diode of the patient's integrated device or / and sounds a buzzer to notify the patient of the receipt of medicine. Step e5: The smart medicine collection locker checks whether it has read the identification code of the integrated device. If not read, return to step e5. Step e6: The smart medicine collection locker checks whether the patient has received the medicine and the medicine instruction manual. If not received, return to step e6. Step e7: The smart medicine collection locker notifies the emergency treatment room subsystem that the patient has received the medicine and the medicine instruction manual. Thus, this flow is completed.

[0023] Figure 9 is a flowchart showing the return procedure of the integrated device at the time of discharge according to the present invention, and includes the following steps. Step f1: The return machine checks whether the identification code of the integrated device of the patient has been read. If not, it returns to step f1. Step f2: The return machine transmits the return notice of the integrated device and the identification code of the integrated device to the emergency treatment room subsystem. Step f3: The emergency treatment room subsystem checks whether it has received the return notice of the integrated device and the identification code of the integrated device. If not, it returns to step f3. Step f4: The emergency treatment room subsystem releases the pairing between the integrated device and the patient's health insurance card. Thus, this flow is considered to be completed.

[0024] Figure 10 is a flowchart showing the procedure of smart voice processing between the integrated device 2 and the emergency treatment room subsystem 3 according to the present invention, and includes the following steps. Step g1: The emergency treatment room subsystem checks whether it has received the voice signal transmitted from the integrated device of the patient. If not, it returns to step g1. Step g2: The emergency treatment room AI server of the emergency treatment room subsystem performs artificial intelligence voice identification on the voice signal. If it cannot be identified, it returns to step g1. Step g3: The emergency treatment room AI server checks the needs of the patient. Step g4: The emergency treatment room subsystem executes the next process according to the needs of the patient. Thus, this flow is considered to be completed.

[0025] The above description is only a preferred embodiment of the present invention and does not limit the present invention in any way. Although the present invention has been described with reference to the foregoing preferred embodiments, this does not limit the present invention. Those skilled in the art can make some changes and modifications based on the technical content disclosed above without departing from the technical scope of the present invention and can achieve equivalent changes. As long as it does not depart from the technical scope of the present invention, any simple modification, equivalent change and modification based on the technical essence of the present invention shall all be included within the technical scope of the present invention.

Description of Reference Numerals

[0026] 1 Smart medical system 2 Integrated device 3 Emergency treatment room subsystem 4 Medical information subsystem 5 Cash flow subsystem 6 Data center 7 Emergency treatment room AI server 10 Location subsystem 11 Payment machine 12 Smart medicine collection locker 13 Smart service desk 14 Return machine 15 Strategic dashboard 16 Tablet device·Smart glasses 17 Emergency notification device 21 Main body 22 Bracelet belt 221 Magic tape (registered trademark) 23 Touch display panel 24 Housing 25 Soft light guide display 26 Full-color light-emitting diode (LED) 27 Button 28 Data security chip 29 Buzzer 30 Control unit 31 Wireless communication module 32 Ultra-wideband (UWB) module 33 Near Field Communication (NFC) module 34 Microphone 341 Speaker 361 Heart rate monitor 362 Blood oxygen saturation meter 363 Sphygmomanometer 364 Blood glucose meter 37 Body temperature detector

Claims

1. A smart medical system including an integrated device, The integrated device comprises: a touch display panel disposed on a top surface of the integrated device and exposed on the top surface; an optical transceiver disposed at a bottom of the integrated device and exposed on a surface of the bottom; a body temperature detector disposed on the bottom of the integrated device and exposed on a surface of the bottom; a pair of bracelet belts disposed on opposite sides of the integrated device for fastening the integrated device to a wrist of a user; A soft light guide display having a function of a light guide and installed on the outer surface of the bracelet belt; at least one full-color light emitting diode disposed on at least one of the pair of opposing sides of the integrated device and optically coupled to the soft light guide display; a control unit connected to the touch display panel, the optical transceiver, the body temperature detector, and the soft light guide display, for providing an identification code of the integrated device and obtaining real-time vital sign data of the user from the optical transceiver and the body temperature detector; a wireless network communication device for data transmission connected to the control unit; an identity identification wireless network communication device connected to the control unit; an emergency room subsystem connected to the integrated device via the wireless network communication device for data transmission and the wireless network communication device for identity identification; a medical information subsystem connected to the emergency room subsystem via a network and capable of accessing medical history data.

2. the optical transceiver further includes a light emitting diode and a light sensor; Light from the light emitting diode is irradiated onto the skin of the wrist of the user, and the optical sensor detects a change in the light intensity of the light that passes through the skin and is reflected back to the optical sensor; The smart medical system of claim 1, wherein the integrated device further includes at least one vital sign detector, each of the at least one vital sign detectors electrically connected to the control unit, and each of the at least one vital sign detectors electrically connected to the optical transceiver, and calculates a value of the at least one vital sign based on a change in light intensity of the light transmitted through the skin and reflected to the optical sensor.

3. the optical transceiver further includes a light emitting diode and a light sensor; Light from the light emitting diode is irradiated onto the skin of the wrist of the user, and the optical sensor detects a change in the light intensity of the light that passes through the skin and is reflected back to the optical sensor; 2. The smart medical system of claim 1, wherein the control unit is electrically connected to the optical transceiver and executes at least one vital sign detection program to calculate at least one vital sign value based on a change in light intensity of the light transmitted through the skin and reflected to the optical sensor.

4. The smart medical system according to any one of claims 1 to 3, characterized in that the vital sign data is data on the user's body temperature, heart rate, blood oxygen concentration, blood pressure, or blood glucose level.

5. The integrated device further includes a buzzer and a button. The smart medical system of claim 1 , wherein the buzzer and the button are electrically connected to the control unit, and the button is installed on one side of the integrated device and exposed on the surface of the integrated device.

6. a location subsystem utilizing a location wireless network; the integrating device includes a location wireless network communication device of the location wireless network connected to the control unit; The location subsystem is composed of a plurality of ultra-wideband (UWB) base stations, and calculates a current location of the integrating device by detecting individual signal propagation delay times of the same ultra-wideband (UWB) signal transmitted from the integrating device and received by each of the plurality of ultra-wideband (UWB) base stations; The smart medical system of claim 1, wherein the signal propagation delay time is a time required for an ultra-wideband (UWB) signal transmitted by the integrated device to propagate to an ultra-wideband (UWB) base station.

7. The smart medical system of claim 1, wherein the emergency room subsystem includes an emergency room AI server having the functions of voice recognition and language understanding and the function of processing massive amounts of data.

8. A method for applying the smart medical system according to claim 1, comprising: Step a1: Reading the patient's health insurance card number by the medical information subsystem; Step a2: sending the health insurance card number and medical history data corresponding to the health insurance card number to an emergency room subsystem by the medical information subsystem; Step a3: the emergency room subsystem receives the identification code of the integrated device of the patient and the medical history data; Step a4: The emergency room subsystem binds and pairs the integrated device with the health insurance card based on the number of the health insurance card and the identification code of the integrated device; A method for applying a smart medical system, comprising a pairing step with.

9. A method for applying the smart medical system according to claim 1, comprising: Step b1: reading the identification code of the patient's integrated device and the real-time vital signs data of the integrated device by the emergency room subsystem; Step b2: reading, by the emergency room subsystem, medical history data corresponding to the identification code of the integrated device through the medical information subsystem; Step b3: The emergency room subsystem displays the medical history data and the real-time vital sign data in the integrated device on a display device on the medical side; Step b4: The emergency room subsystem prompts the medical staff of the medical side to quickly assess the patient based on the medical history data and the real-time vital sign data, and guides the medical staff to select and confirm the triage of the patient on the interface of the emergency room subsystem; Step b5: setting, by the emergency room subsystem, a light color of the integrated device of the patient based on the triage of the patient; A method for applying a smart medical system, comprising a triage step.

10. A method for applying the smart medical system according to claim 1, comprising: Step c1: The emergency room subsystem notifies the patient to go to a doctor's office to receive medical treatment; Step c2: reading, by the emergency room subsystem, an identification code of the patient's integrated device and real-time vital sign data in the integrated device; Step c3: reading, by the emergency room subsystem, medical history data corresponding to the identification code of the integrated device via the medical information subsystem; Step c4: The emergency room subsystem displays the medical history data, the real-time vital sign data in the integrated device, and a comparison of disease progression before and after treatment on the doctor's display device; Step c5: The emergency room subsystem receives a medical decision regarding the patient input by the physician; A method for applying a smart medical system, comprising steps of diagnosing and treating the above-mentioned condition.

11. 2. The smart medical system application method of claim 1, further comprising a cash flow subsystem connected to the emergency room subsystem via a network, Step d1: Calculating the patient's payment amount by the cash flow subsystem and sending a payment notification to the emergency room subsystem; Step d2: receiving the payment notice from the emergency room subsystem; Step d3: The emergency room subsystem transmits the payment amount of the payment advice to the integrated device of the patient, flashes a full-color light-emitting diode of the integrated device, and / or sounds a buzzer of the integrated device to notify the patient; Step d4: The payment machine reads the identification code of the integrated device of the patient and the payment amount; Step d5: The payment machine confirms that the patient has completed payment at the payment machine; Step d6: notifying the emergency room subsystem by the payment machine that the patient has completed payment at the payment machine; Step d7: The emergency room subsystem notifies the cash flow subsystem that the patient has completed payment of the fee; A method for applying a smart medical system, comprising a step of paying a fee to the customer.

12. A method for applying the smart medical system according to claim 1, comprising: Step e1: The medical information subsystem notifies the pharmacy to dispense medicine based on the patient's prescription and place the dispensed medicine in a smart medicine receiving locker; Step e2: The smart medicine receiving locker sends a medicine receiving notification to the emergency room subsystem; Step e3: The emergency room subsystem receives a receipt notification of the medicine; Step e4: The emergency room subsystem notifies the patient by flashing a full-color light-emitting diode of the integrated device of the patient and / or sounding a buzzer of the integrated device; Step e5: reading the identification code of the integrated device by the smart medicine receiving locker; Step e6: The smart medicine receiving locker confirms that the patient has received the medicine and the medicine instructions; Step e7: The smart medicine receiving locker notifies the emergency room subsystem that the patient has received the medicine and the medicine instructions. A method for applying a smart medical system, comprising the steps of receiving medicine from a patient.

13. A method for applying the smart medical system according to claim 1, comprising: Step f1: The return machine reads the identification code of the patient's integrated device; Step f2: transmitting a return notification of the integrated device and an identification code of the integrated device to an emergency room subsystem by the return machine; Step f3: The emergency room subsystem receives a return notification of the integrated device and an identification code of the integrated device; Step f4: The emergency room subsystem removes the pairing between the integrated device and the patient's health insurance card; A method for applying a smart medical system, comprising a step of returning an integrated device.

14. A method for applying the smart medical system according to claim 1, comprising: Step g1: receiving an audio signal transmitted from the patient's integrated device by the emergency room subsystem; Step g2: performing artificial intelligence speech recognition on the speech signal by the emergency room AI server of the emergency room subsystem; Step g3: confirming the patient's needs by the emergency room AI server; Step g4: The emergency room subsystem executes the following processes according to the needs of the patient: A method for applying a smart medical system, comprising:

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