TW202036588A - Intelligent long-term care information transmission system - Google Patents

Abstract

This disclosure is related to an intelligent Long-Term Care information transmission system, which is applicable to a Long-Term care center or a home care. The intelligent Long-Term Care information transmission system includes at least one intelligent service device, at least one service communication devices, a main service communication device and a server host. The intelligent service device is a wearable device for wearing on the elder or patient in this application. This disclosure proposed, is not only a wearable intelligent service device with a physiological information sensing, but also utilizes the wireless radio frequency identification (RFID) technology as well as Bluetooth mesh network transmission. With the devices disclosed in this invention, building a dedicated wireless transmitting network is no longer needed to transfer the physiological information into data system to reduce the working hours of the medical staff. It can be further applied to a long-term care institution or a home care center.

Description

Intelligent Long-Photo Information Transmission System

The invention discloses an intelligent long-photographic information transmission system, in particular a vehicle through a radio frequency identification module and a broadcast transmission mode of a Bluetooth mesh network, which can immediately read the physiological characteristic value of the person being cared for by the server host .

The existing society has moved towards an aging society for the elderly, and coupled with the shortage of medical care workers, it has become increasingly unable to meet the needs of medical care. In most medical institutions, the routine work of medical staff is to go to the scene to measure the physiological information of the patients one by one, and then return to the console to input into the data system. Seemingly sparse and ordinary operating procedures, but in the case of insufficient medical staff, it will also create a burden on medical staff, which needs to be improved.

The invention relates to an intelligent long-term photograph information transmission system, suitable for use in a long-term care center, a medical ward or a home care. The intelligent long-term photograph information transmission system includes: at least one intelligent service device, the at least one intelligent The service device is worn on a person being cared for. Each smart service device includes: a power supply module, which provides the power required for the operation of the smart service device; and a front-end sensing device, which is electrically coupled to the power source The supply module is used to detect the physiological characteristic values of the heart rate, blood pressure and forehead temperature of the care recipient; a radio frequency identification module is electrically coupled to the power supply module, and the radio frequency identification module is preset internally There is identification information of one of the corresponding devices, a radio frequency identification tag is provided, and a memory is attached to store the identification information; a near-field sensor module is electrically coupled to the power supply module, the near-field The sensor module performs a proximity sensor communication operation; a microcontroller, electric It is sexually coupled to the power supply module, the front-end sensing device, the radio frequency identification module and the near-field sensor module for reading the physiological characteristic value, and after data processing, overwrite the radio frequency The identification module and the near-field sensing module are updated; and a first radio frequency circuit is electrically coupled to the near-field sensing module to perform the radio frequency signal operation of the near-field sensing module; a second radio frequency circuit , Electrically coupled to the radio frequency identification module to perform the radio frequency signal operation of the radio frequency identification module; a first antenna electrically coupled to the first radio frequency circuit to execute the near-field sensing module Signal transmission and reception; a second antenna, electrically coupled to the second radio frequency circuit, to perform signal transmission and reception of the radio frequency identification module; at least one service communication device, the service communication device can use radio frequency identification The physiological characteristic values in the smart service device are read separately by means or near-field sensing methods, and messages are transmitted by wireless broadcast between different service communication devices; wherein, each service communication device performs according to an operator’s needs, Send a real-time measurement command to read the latest physiological characteristic value of the smart service device, or directly read the existing physiological characteristic value in the smart service device by radio frequency identification or near field induction, and then use the broadcast mode to external Transmitting the physiological characteristic value; a main service communication device connected to the service communication device via a wireless mesh network; and a server host receiving the physiological characteristic value for point-to-point transmission with the main service communication device, And according to a corresponding identification information, the physiological characteristic value is recorded and stored for the operator's reference.

The intelligent long-photographic information transmission system proposed in the present invention not only has physiological information sensing and wearable intelligent service devices, but also combines radio frequency identification technology or near-field induction communication, and communicates with Bluetooth, Zigbee or Threadnet. The grid network transmission method, through wireless reading, no dedicated wireless communication is required, that is, measurement information can be transmitted to the data system to reduce the working time of medical staff, and it can be applied to new long-term photos in the future mechanism.

10‧‧‧Smart Service Device

11‧‧‧Power Supply Module

12‧‧‧Microcontroller

13‧‧‧Front-end sensing device

14‧‧‧Near Field Sensor Module (NFC)

15‧‧‧Radio Frequency Identification Module (RFID)

16‧‧‧The first radio frequency circuit

17‧‧‧Second RF circuit

18‧‧‧First antenna

19‧‧‧Second antenna

20‧‧‧Service Communication Device One

20a‧‧‧Service Communication Device 2

20b‧‧‧Service Communication Device Three

20c‧‧‧Service Communication Device 4

20d‧‧‧Service Communication Device Five

21‧‧‧Power Module B

22‧‧‧Microprocessor

23‧‧‧State setting unit

24‧‧‧Second communication module

25‧‧‧The first communication module

26‧‧‧First antenna

27‧‧‧Second antenna

30‧‧‧Main service communication device

31‧‧‧Power Module C

32‧‧‧Main microprocessor

33‧‧‧State setting unit

35‧‧‧The first communication module

36‧‧‧First antenna

38‧‧‧Server connection module

40‧‧‧Server Host

41‧‧‧Power Module D

42‧‧‧Desktop computer host

43‧‧‧Database interface

45‧‧‧Main service communication device connection module

50‧‧‧Long Care Center

51‧‧‧Cared for

52‧‧‧Nursing Station

54‧‧‧Patient

56‧‧‧Nursing staff

60‧‧‧Database

S10~S17‧‧‧Step

Figure 1 is a schematic diagram of the system block connection of an embodiment of the present invention; Figure 2 is a schematic diagram of the circuit block connection of a smart service device in an embodiment of the present invention; 3 is a schematic diagram of the circuit block connection of the service communication device in an embodiment of the present invention; FIG. 4 is a schematic diagram of the circuit block connection of the main service communication device in an embodiment of the present invention; FIG. 5 is a circuit block connection of the server host in an embodiment of the present invention Schematic diagram; Figure 6 is a schematic diagram of the implementation of the embodiment of the present invention applied to long-term care centers; Figure 7 is a schematic diagram of the implementation of the nursing staff directly using proximity induction to obtain the physiological characteristic values in the embodiment of the present invention; Figure 8 is the service in the embodiment of the present invention A flowchart of a communication transmission method of a communication device; FIG. 9 is a schematic diagram of broadcast communication transmission of multiple service communication devices in an embodiment of the invention; FIG. 10 is a signal processing sequence diagram of a service communication device in an embodiment of the invention.

Hereinafter, reference will be made to the accompanying drawings for description, so as to more fully describe various exemplary embodiments, and some exemplary embodiments are shown in the accompanying drawings. However, the concept of the present invention may be embodied in many different forms, and should not be construed as being limited to the exemplary embodiments described herein. To be precise, the provision of these exemplary embodiments will make the present invention detailed and complete, and will fully convey the scope of the concept of the present invention to those skilled in the art. In the drawings, the size of the internal circuit blocks of the communication device or the service device and their relative entities can be exaggerated for clarity, and similar numbers always indicate similar components.

It should be understood that although the terms "a", module, unit, signal, terminal, etc. may be used in this specification to describe various elements, these elements should not be limited by these terms. These terms are used to clearly distinguish one element from another, or to describe one circuit and another circuit separately. As used herein, "one", first, second, or third are used to distinguish different signals, and do not have a certain sequence of context, and the term "and/or" includes any of the related listed items All combinations of one and one or more. The term "at least one element" means the possibility of having one element or multiple element implementations; in addition, the term plural is used herein to describe having multiple elements, but these plural elements are not limited to the implementation. The number of elements of two, three, or more indicates the technology implemented.

The intelligent long-term photograph information transmission system of the present invention is used in long-term care centers, medical wards or home care centers. As shown in FIG. 1, the intelligent long-term photograph information transmission system includes at least one smart service device 10 , At least one service communication device (for example, service communication device 20, service communication device 2 20a, service communication device 3 20b, service communication device 4 20c can be added according to actual needs), a main service communication device 30, and a server The host 40 and a database 60. Among them, the smart service device 10 is actually a wearable device to be worn on the person being cared for, such as a smart watch, a smart clothing, a smart mattress or a smart glove, etc. Or it is worn on the forehead of the care recipient or the measured person in a head-mounted manner, which is mainly used to sense the physiological characteristics of the care recipient, including but not limited to the physiological characteristics of the human body such as heart rhythm, blood pressure, and body temperature. In an embodiment of the present invention, the smart service device 10 is a structural device that is actually made as a smart bracelet and is worn on the wrist of the person being cared for; or is a strap structure that can be worn on On the forehead of the person being cared for. And in practical application, there will be multiple care recipients 51 (shown in Figure 6) in the long-term care center 50 (shown in Figure 6). Therefore, the smart service device 10 of the present invention is actually implemented for multiple Each smart service device 10 is worn on different care recipients 51.

The service communication device includes four devices: service communication device one 20, service communication device two 20a, service communication device three 20b, and service communication device four 20c in the embodiment of FIG. 1 of the present invention. However, in actual application, When it is not limited to only four, it can also be provided with only one. The operator or user can install multiple service communication devices 20, 20a, 20b, 20c according to their own needs, so as to provide a complete and comprehensive investigation. Measure the physiological characteristic value of each care recipient 51. The first service communication device 20 and the second service communication device 20a are respectively electrically connected to the smart service device 10 to communicate with each other. The connection communication is actually connected by wireless transmission and has a near-field sensor module ( Different functions of connection communication of NFC) communication and wireless communication of radio frequency identification communication (RFID). In addition, the multiple service communication devices 20, 20a, 20b, and 20c are mainly used to perform signal transmission through broadcast communication. For example, If the second service communication device 20a receives the physiological characteristic value of the smart service device 10 and finds that the message does not belong to the data to be processed by the second service communication device 20a, it will broadcast and transmit it again until the service communication device four 20c After receiving it, confirm that it is the data to be processed by the service communication device four 20c, which is transmitted to the main service communication device 30, that is, each service communication device 20, 20a, 20b, 20c can be in the mesh network A node transfers data to each other and can be sent to the remote destination to be read. Each service communication device 20, 20a, 20b, 20c sends out a real-time measurement command according to the operator's or user's setting requirements, requesting to read the latest physiological characteristic value of the care recipient 51, or directly read the existing The physiological characteristic value of, and then the physiological characteristic value is transmitted to the outside in the broadcast mode. The internal circuit description will be described in Figure 3.

The main service communication device 30 is connected to the aforementioned service communication device one 20, service communication device two 20a, service communication device three 20b, and service communication device four 20c, and is connected by means of wireless transmission, and can receive the multiple service communication devices One of 20, 20a, 20b, 20c or multiple devices broadcasted the physiological characteristic value, and received it; or sent a read command to the multiple service communication devices 20, 20a, 20b, 20c One or more devices. That is, the main function of the main service communication device 30 is to execute another real-time measurement command based on the operator's or user's setting requirements, requesting to read the latest physiological characteristic value of the care recipient 51, or directly read the existing Or receive the physiological characteristic value broadcasted by another service communication device 20, 20a, 20b, 20c, and then transmit and send the physiological characteristic value to the server 40 by point-to-point transmission. In one embodiment, after the communication distance is set, the main service communication device 30 can separately read the physiology broadcasted by service communication device one 20, service communication device two 20a, service communication device three 20b, and service communication device four 20c. Characteristic value.

The server host 40 is connected to the main service communication device 30 in a wireless transmission mode, and mainly receives the physiological characteristic values transmitted by the main service communication device 30 in a point-to-point transmission mode, and performs identification judgment based on a corresponding identification information The transmission Whether the information of is the care recipient 51 of the long-term care center 50, and further record and store the physiological characteristic value, and provide the operator or user as a reference. In practical application, the server host 40 provides a graphical interface, which is convenient for the operator or user to perform monitoring and operation easily and clearly.

As shown in FIG. 2, the intelligent service device 10 of the present invention includes a power supply module 11, a front-end sensing device 13, a microcontroller 12, a near field sensor module (NFC Module) 14, and a radio frequency An identification module (RFID Module) 15, a first radio frequency circuit 16, a second radio frequency circuit 17, a first antenna 18 and a second antenna 19. Among them, the function of the power supply module 11 is to provide power required for the operation of the smart service device 10; preferably, the power supply module 11 of the present invention is equipped with a secondary battery to supply the smart service device 10 power supply. The front-end sensing device 13 is electrically coupled to the power supply module 11, and mainly performs the detection of the physiological characteristic values of the heart rate, blood pressure, and forehead temperature of the care recipient 51. In practical applications, the front-end sensing device 13 It is attached to the body of the care recipient 51. For example, when the smart service device 10 is a structural device of a smart bracelet, the smart service device 10 is worn on the wrist of the care recipient 51, and the front-end sensing device 13 is directly attached to the care recipient The skin of the wrist 51 or the headband is attached to the forehead of the care recipient 51 to directly measure the physiological characteristic values of the care recipient 51 such as heart rate, blood pressure, and body temperature.

The radio frequency identification module 15 (RFID Module) is preset with identification information of one of the corresponding devices, and in actual use, the radio frequency identification module 15 itself includes a radio frequency identification tag (RFID Tag) (not shown in the figure). Marked), and a memory (not marked in the figure) is attached to store the identification information and the physiological characteristic value. In practical applications, the RFID Tag in the RFID module 15 can be identified and read by the service communication device 20 and the service communication device 20a, and the data can be read through the identification data. Identification; that is, the service communication device 20 and the service communication device 20a can be used as radio frequency identification tags A reader (RFID Tag Reader) reads the radio frequency identification module 15 on the wrist of the care recipient 51, and then reads the physiological characteristic values of the care recipient 51's own heart rate, blood pressure, and body temperature.

The microcontroller 12 in FIG. 2 is simultaneously electrically coupled to the power supply module 11, the front-end sensing device 13, the near field sensor module (NFC Module) 14, and the radio frequency identification module 15 for reading After the data is controlled and processed, the physiological characteristic value is directly written into the radio frequency identification module 15 to update the physiological characteristic value. In actual operation, the microcontroller 12 itself can be made as a high-speed computing processor such as a CPU or a GPU. The first radio frequency circuit 16 is electrically coupled to the near-field sensing module 14, to perform the radio frequency signal operation of the near-field sensing module 14, and further drive the first antenna 18 to receive command signals or externally broadcast data; The second radio frequency circuit 17 is electrically coupled to the radio frequency identification module 15 to perform the radio frequency signal operation of the radio frequency identification module; and further drives the second antenna 19 to receive command signals or externally broadcast data. The first antenna 18 is electrically coupled to the first radio frequency circuit 16 to perform signal transmission and reception of the near-field sensing module 14; the second antenna 19 is electrically coupled to the second radio frequency circuit 17 to perform the wireless The radio frequency identification module 15 transmits and receives signals.

Referring to FIG. 3, the service communication device 20 and the service communication device 20a of the present invention have the same constituent circuit elements. Similarly, the service communication device three 20b and the service communication device four 20c have the same constituent circuit elements. And in practical use, multiple service communication devices 20 can be implemented. The internal circuits of each service communication device 20, 20a, 20b, 20c, as shown in Figure 3, include a power module B21 and a microprocessor 22. , A second communication module 24, a first communication module 25, a first antenna 26, and a second antenna 27. The power module B 21 is used to provide the power required for the operation of the service communication device 20, 20a, 20b, 20c; the microprocessor 22 is electrically coupled to the power module B 21 to send the real-time measurement command, In order to read the latest physiological characteristic value of the care recipient 51 transmitted by the smart service device 10, or directly read the existing physiological characteristic value, and control the execution of the broadcast mode transmission The second communication module 24 is electrically coupled to the microprocessor 22 to perform the identification of the radio frequency identification tag, or the role of near-field inductive communication, and use radio frequency identification communication or near-field Transmission data of inductive communication; in practical application, the second communication module 24 in each service communication device 20, 20a, 20b, 20c can be an RFID Module or a near-field sensor Module (NFC Module). The second communication module 25 is electrically coupled to the microprocessor, and performs the receiving and broadcasting of the physiological characteristic value; in actual use, each of the first communication modules in the service communication device 20, 20a, 20b, 20c 25 can be a Bluetooth communication module, a Zigbee communication module, or a Thread mesh communication module. The first antenna 26 is electrically coupled to the first communication module 25 for receiving command signals or externally broadcasting data; the second antenna 27 is coupled to the second communication module 24 for receiving command signals or externally broadcasting data data.

The first communication module 25 in the service communication device 20, 20a, 20b, 20c of the present invention adopts the mesh communication transmission mode (Mesh Commnuication) in actual operation, and can execute the mesh interconnection and mutual transmission. The broadcast mode transmits data. Through the interconnection of different mesh structures, the physiological characteristic values can be transmitted to the remote main service communication device 30 to achieve the transmission of wireless communication with low power consumption, and to set up Bluetooth wireless transmission The setting method of Bluetooth communication module, Zigbee wireless communication module or Thread mesh wireless communication module can wirelessly transmit physiological characteristics data without disturbing the medical equipment in the care center.

In another embodiment, the service communication device 20 in FIG. 3 further includes a state setting unit 23, which is electrically coupled between the power module B 21 and the microprocessor 22, and functions as Perform different operating states of receiving or broadcasting of the setting service communication device 20.

As shown in FIG. 4, the main service communication device 30 of the present invention includes a power module C 31, a main microprocessor 32, a first communication module 35, a first antenna 36, and a server connection module 38. The power module C 31 is used to provide main service communication The power supply required for the operation of the device 30; the main microprocessor 32 is electrically coupled to the power module C 31 for sending the real-time measurement command to read the latest physiological characteristic value of the care recipient 51, or directly Take the existing physiological characteristic value, or receive the physiological characteristic value broadcast by another service communication device or a different service communication device, and then additionally transmit the physiological characteristic value point-to-point. The first communication module 35 is electrically coupled to the main microprocessor 32 to perform the reception and broadcasting of the physiological characteristic value; the server connection module 38 is electrically coupled to the main microprocessor 32 to execute the main service communication device 30 The point-to-point transmission of the physiological characteristic value; the first antenna 36 is electrically coupled to the first communication module 35, and its function is to receive command signals or externally broadcast data. Wherein, the first communication module 35 of the main service communication device 30 can be a Bluetooth communication module, a Zigbee communication module or a Thread mesh communication module for execution The first communication module 25 of each service communication device 20, 20a, 20b, 20c receives the data broadcasted by the service communication device 20, 20a, 20b, 20c.

In practical application, the main service communication device 30 of the present invention is a tablet computer, an iPad, or a portable computer, or even a handheld smart device. Its main function is to act as a gateway between the service communication devices 20, 20a, 20b, 20c and the server host 40 to perform the main management function of mesh network transmission.

The server connection module 38 of the present invention mainly enables point-to-point wireless signal transmission between the main service communication device 30 and the server host 40. In another embodiment, the main service communication device 30 of FIG. 4 further includes a state setting unit 33. The state setting unit 33 is electrically coupled between the power module C 31 and the main microprocessor 32. The function is to implement different operating states of receiving or point-to-point transmission data of the main service communication device 30.

In FIG. 5, the server host 40 of the present invention includes a power module D 41, a desktop computer host 42 and a main service communication device connection module 45. The function of the power module D 41 is to provide the power required by the server host 40 during operation. So The desktop computer host 42 is electrically coupled to the power module D 41, in addition to performing point-to-point transmission between the server host 40 and the main service communication device 30 to receive the physiological characteristic value, and can be based on the corresponding identification information The point-to-point transmitted data is recognized and confirmed, and the physiological characteristic value is recorded and stored after the recognition is confirmed. In practical applications, the desktop computer host 42 can also be implemented as a notebook computer, a computer system in a central computer room, etc.; furthermore, the server host 40 itself can be a cloud server in practical use. The present invention does not limit the actual operation of the remote control server.

The main service communication device connection module 45 of FIG. 5 is electrically coupled to the desktop computer host 42 for performing point-to-point transmission of the physiological characteristic value between the server host 40 and the main service communication device 30.

In one embodiment, the server host 40 further includes a database interface 43 for electrically coupling to a database 60 (as shown in FIG. 1, the database 60 is external). The database 60 is used for recording, storing or pre-storing the physiological characteristic values of each cared person in the long-term care center. However, in practical applications, the implementation of the database 60 can also be directly built into the server host 40; that is, the internal circuit of the server host 40 includes a large amount of data. The library is used to record, store or pre-store the physiological characteristic values of each person being cared for in the long-term care center. The above two setting methods of the database 60 are all practical examples of the present invention and can be adjusted according to the needs of the user.

Figure 6 shows an example of the implementation of the present invention applied to a long-term care center 50. However, in actual use, the long-term care center 50 can also be implemented as a home care space, or a medical hospital Different types of wards in the clinic. The first service communication device 20 and the second service communication device 20a are respectively installed above different entrances and exits of the internal space of the long-term care center 50, for example, installed above the door threshold of the room, so that the elderly, the disabled or the disabled When entering or leaving the long-term care center 50, the caregiver 51 can read the pulse, blood pressure or body temperature measured by the smart service device 10 in time; and then use the radio frequency identification mode to identify the smart service device Set 10 the physiological characteristic value stored in the RFID Tag. In addition, the main service communication device 30 is installed outside the space of the long-term care center 50, for example, installed on a nursing station 52, and uses its own first communication module 35 to communicate with the service communication device 20 and service The individual first communication modules 25 in the second communication device 20a communicate with each other by broadcast transmission, and transmit data; of course, if the user or operator actually has special needs, the main service communication device 30 can also be installed It is located inside the long-term care center 50 for convenient connection and operation. The server host 40 is used in the actual installation of the long-term care center 50, and can also be a remotely installed server host 40, or a cloud server host, and the server host 40 communicates with the main service The communication mode transmission mode of point-to-point transmission is used between the devices 30 to directly transmit data.

FIG. 7 mainly illustrates another context description of the application of the embodiment of the present invention. In a medical space, a caregiver 56 directly uses a handheld service communication device 20 to perform sensing or scanning in a near-field sensing manner. The smart service device 10 worn on the patient 54 directly reads the physiological characteristic value of the patient 54 and then transmits the physiological characteristic value to the main service communication device 30 and the server host 40 by means of broadcast transmission.

FIG. 8 is a flow chart of the communication transmission method of each service communication device 20, 20a, 20b, 20c in the embodiment of the present invention. Since the transmission method steps of each service communication device 20, 20a, 20b, 20c are the same, here, Take the example service communication device four as an example. The step S10: start; step S11: the service communication device four receives the broadcast signal, and the broadcast signal includes the first identification data; and then the step S12: the service communication device four determines whether the first identification data is related to itself Is the identification information consistent? If the judgment is yes, step S13 is executed: the service communication device 4 processes the broadcast signal and obtains the processing result, and then proceeds to step S14. However, if the judgement is no, step S14 is directly executed: the service communication device four obtains the number of transfers from the broadcast signal. Then step S15: if the number of retransmissions reaches a preset number, then step S17 ends; if it does not reach the preset number, then service The fourth communication device executes step S16, increases the number of times the broadcast signal is transmitted, and transmits it to other service communication devices at the same time; the last step S17: end.

In the above, the function of steps S15 to S16 is to prevent the service communication device 4 from repeatedly broadcasting for broadcast signals that do not conform to its own identification data.

FIG. 9 shows an example in which there are five service communication devices one to five 20, 20a, 20b, 20c, and 20d. Each service communication device is a mesh broadcast and reception relationship, that is, each service communication device can perform broadcast and reception signal transmission between each other, that is, each service communication device is not tied to each other set. For further explanation, please refer to FIG. 10, which is a signal processing sequence diagram of the service communication device in FIG. 10. The service communication device 4 is taken as an example. On the time axis, the service communication device 4 has Tx (broadcast) and Rx (Receive) and other different actions. In Fig. 10, when the service communication device 4 is in Rx (receive), it is similar to the function of radio reception, and each packet has an identification data. When the content of Rx (receive) in Fig. 10 is from the service communication device 20 To send the content to the service communication device five (#一→五), the service communication device four judges that it has nothing to do with itself, and when the receiver receives Tx (broadcast), it forwards the signal (Re-send). Finally, when it is transmitted to the service communication device 5, the service communication device 5 will perform processing upon receipt, and transmit the broadcast data to the main service communication device 30, thereby completing the intelligent long-photo information transmission system.

As explained in the above embodiments, the intelligent long-photographic information transmission system of the present invention can indeed effectively improve the shortcomings of the existing technology, and has the following functions and characteristics: the intelligent service device 10 of the present invention can be a radio frequency A smart bracelet or smart wristband or a head-worn forehead strap device that recognizes tags (RFID Tag) and proximity sensing functions can perform timing measurements of the wearer’s heart rate, blood pressure, and blood pressure through the front-end sensing device 13 Physiological characteristics such as forehead temperature, and write measurement data into the radio frequency identification tag. The medical staff can read the identification information of the corresponding device in the bracelet or wristband and the latest physiological characteristic values only through the server host 40.

The medical staff can also wirelessly transmit the measurement command to the smart bracelet or smart wristband through the server host 40, and wake up the microcontroller 12 in the wristband to measure the wearer’s performance through the front-end sensing device 13 in real time. Physiological characteristic values such as heart rhythm, blood pressure, and body temperature are transmitted back to the server host 40.

The related information transmission method is a mesh network, that is, each service communication device 20, 20a, 20b, 20c (also called a radio frequency tag reader) can forward other radio frequency tag readers by broadcast transmission The transmitted data is sent to the server host 40; or the signal sent from the server host 40 is forwarded to other radio frequency tag readers. In addition, in the method of signal transmission and identification disclosed in the present invention, only the called radio frequency tag reader will process the instructions in the message; if it is not called, it will only forward the message. In this way, through mutual transmission, That is, each of the service communication devices 20, 20a, 20b, and 20c is a transmission node, which can simplify the establishment of wireless communication equipment and greatly reduce the cost of hardware construction. In addition, the radio frequency identification (RFID) part of the present invention can also be implemented in the form of Near Field Sensor Module Communication (NFC), with mobile phone applications (APP) and Internet of Things technology, widely used in home care and remote Distance medical treatment.

In summary, the intelligent long-photographic information transmission system of the present invention has a wearable smart service device 10 that can sense physiological information, and combines radio frequency identification technology or near-field induction communication, as well as Bluetooth, The mesh network transmission method of Zigbee or threaded grid, through wireless reading, without special wireless communication establishment, can transmit the measurement information to the data system to reduce the working time of medical staff, and it is more applicable In the newly established long-term care institution center in the future, it is obvious that the invention case has the requirements for patent application.

However, the contents of the description of the present invention are only examples of preferred embodiments, and when it cannot be used to limit the scope of protection of the present invention, any partial changes, modifications or additions of technology still do not depart from the scope of protection of the present invention. in.

10‧‧‧Smart Service Device

20‧‧‧Service Communication Device One

20a‧‧‧Service Communication Device 2

20b‧‧‧Service Communication Device Three

20c‧‧‧Service Communication Device 4

30‧‧‧Main service communication device

40‧‧‧Server Host

60‧‧‧Database

Claims (10)

An intelligent long-term photograph information transmission system, which is used in a long-term care center, a medical ward, or a home care. The intelligent long-term photograph information transmission system includes: at least one smart service device, the at least one smart service device is wearable On a person being cared for, each smart service device includes: a power supply module, which provides power required for the operation of the smart service device; a front-end sensing device, which is electrically coupled to the power supply module, Perform detection of the physiological characteristic values of the heart rate, blood pressure, and forehead temperature of the person being cared for; a radio frequency identification module, electrically coupled to the power supply module, the radio frequency identification module is preset with corresponding devices An identification information, a radio frequency identification tag is provided, and a memory is attached to store the identification information; a near-field sensor module is electrically coupled to the power supply module, the near-field sensor module, Perform a proximity sensing communication operation; a microcontroller is electrically coupled to the power supply module, the front-end sensing device, the radio frequency identification module and the near field sensing module for reading the physiological After data processing, the characteristic value is overwritten in the radio frequency identification module and the near field sensor module for updating; and a first radio frequency circuit is electrically coupled to the near field sensor module to execute the near field sensor module. The radio frequency signal operation of the field sensing module; a second radio frequency circuit electrically coupled to the radio frequency identification module to perform the radio frequency signal operation of the radio frequency identification module; a first antenna electrically coupled to The first radio frequency circuit performs signal transmission and reception of the near-field sensing module; a second antenna is electrically coupled to the second radio frequency circuit to perform signal transmission and reception of the radio frequency identification module; A service communication device that can respectively read the physiological characteristics of the smart service device by means of radio frequency identification or near-field induction Values, and different service communication devices are used to transmit messages by wireless broadcast; among them, each service communication device executes according to an operator’s needs, sends a real-time measurement command, and reads the latest physiological characteristics of the smart service device Value, or directly read the existing physiological characteristic value in the smart service device by radio frequency identification or near-field induction, and then transmit the physiological characteristic value externally in a broadcast mode; a main service communication device and the service communication device Connected with a wireless mesh network; and a server host, which receives the physiological characteristic value for point-to-point transmission between the main service communication device, and records and stores the physiological characteristic value according to a corresponding identification information, and For the operator's reference. According to claim 1, the intelligent long-time photo information transmission system, wherein the service communication device is provided with a plurality of service communication devices, and each service communication device includes a communication transmission method, and the steps of the communication transmission method include: A service communication device receives a broadcast signal, the broadcast signal includes a first identification data; the service communication device determines whether the first identification data is consistent with its own identification data; if it is consistent, the service communication device broadcasts The signal is processed, and the processing result is obtained; if they are inconsistent, the service communication device forwards the broadcast signal to other service communication devices. According to claim 2, the intelligent long-photographic information transmission system, wherein the steps of the communication transmission method further include: the service communication device obtains the number of transmissions from the broadcast signal; when the number of transmissions reaches a preset The service communication device stops forwarding the broadcast signal to other service communication devices. As described in claim 1, the intelligent long-photographic information transmission system, wherein each of the service communication devices includes: A power module B is used to provide the power required for the operation of the service communication device; a microprocessor is electrically coupled to the power module B to send the real-time measurement command to read the latest physiological characteristics Value, or directly read the existing physiological characteristic value, and control the execution of broadcast mode transmission; a first communication module, electrically coupled to the microprocessor, executes the reception and broadcasting of the physiological characteristic value; a second The communication module is electrically coupled to the microprocessor to perform the identification of the radio frequency identification tag; a first antenna is electrically coupled to the first communication module to receive command signals or externally broadcast data ; And a second antenna, electrically coupled to the second communication module, for receiving command signals or externally sending data. As described in claim 4, the intelligent long-photographic information transmission system, wherein the first communication module in the service communication device is a Bluetooth communication module, a Zigbee communication module or a thread grid ( Thread mesh) communication module; wherein the second communication module in the service communication device is a radio frequency identification module (RFID Module) or a near field sensor module (NFC Module). As described in claim 5, the intelligent long-photographic information transmission system, wherein the main service communication device includes: a power supply module C to provide power required for the operation of the main service communication device; a main microprocessor, electricity Is electrically coupled to the power module C to send the real-time measurement command to read the latest physiological characteristic value, or directly read the existing physiological characteristic value, or receive the physiological characteristic broadcast by another service communication device The characteristic value is transmitted point-to-point; a first communication module is electrically coupled to the main microprocessor to perform the reception and broadcasting of the physiological characteristic value; a server connection module is electrically coupled Connected to the main microprocessor to execute the point-to-point transmission of the physiological characteristic value of the main service communication device; and A first antenna is electrically coupled to the first communication module for receiving command signals or externally broadcasting data. The intelligent long-photographic information transmission system according to claim 6, wherein the first communication module in the main service communication device is a Bluetooth communication module, a Zigbee communication module, or a thread grid (Thread mesh) communication module. The intelligent long-photographic information transmission system of claim 1, wherein the server host includes: a power module D to provide power required for the operation of the server host; a desktop computer host with electrical characteristics It is coupled to the power supply module D, performs point-to-point transmission with the main service communication device to receive the physiological characteristic value, and records and stores the physiological characteristic value according to the corresponding identification information; and a main service communication device is connected The module is electrically coupled to the desktop computer host, and performs point-to-point transmission of the physiological characteristic value between the server host and the main service communication device. According to claim 7, the intelligent long-term photograph information transmission system, wherein: the service communication device is installed above different entrances and exits in the long-term care center space, and uses the second communication module in the service communication device The radio frequency identification mode in the at least one smart service device recognizes the physiological characteristic value stored in the radio frequency identification tag; the main service communication device is installed on a nursing station outside the long-care care center space, and uses the The Bluetooth communication module, the Zigbee communication module, or the thread mesh communication module and the first communication module of the service communication device in the first communication module of the main service communication device The Bluetooth communication module, the Zigbee communication module or the Thread mesh communication module in the communication module broadcast communication with each other; and the server host is a remotely installed server The device host or device is around the nursing station and communicates with the main service communication device for point-to-point transmission. As described in claim 9, the service communication device is used by a nursing staff to hold the service communication device in hand, and use direct proximity sensing to sense the smart service device worn by a patient. Take the patient's physiological characteristic value, broadcast and transmit it, and finally send it to the main service communication device and the server host.

Images