TWM479469U - Monitoring system and medical monitoring system - Google Patents

Abstract

A monitoring system and a medical monitoring system are provided. The monitoring system includes a cloud server, a communication network based on nodes on fixed landmarks, a wearable monitoring apparatus, and portable electronic apparatus. The wearable monitoring apparatus executes a positioning procedure through the communication network, such that the portable electronic apparatus may obtain location information of the wearable monitoring apparatus from the cloud server through the communication network. And the portable electronic apparatus reads a tag configured in the wearable monitoring apparatus to further confirm a user identity. Accordingly, the location of the user can be kept abreast through the wearable monitoring apparatus, and the user identity is confirmed before medical practices to avoid medical errors.

Description

Monitoring system and medical monitoring system

The present invention relates to a monitoring mechanism, and in particular to a monitoring system and a medical monitoring system based on a communication network having a positioning function.

Traditionally, in order to avoid medical negligence, the commonly used technology is to use Radio Frequency Identification (RFID) tags, but its function is only to passively detect the tags attached to items or people within 1~2 cm. . The tracking and protection of patients or medical staff cannot be effectively and instantly achieved. It is also possible to use mobile phone 2G, 3G, 4G and other mobile communication functions to track medical staff. However, this method requires a huge communication fee, and the radio wave intensity of 2G, 3G, 4G and other mobile communication functions will interfere with the operation of hospital instruments.

The invention provides a monitoring system and a medical monitoring system. Based on the communication network of the fixed landmark node, the portable electronic device is used to monitor the wearable monitoring device, so that the user's whereabouts of the wearable monitoring device can be effectively grasped.

The new monitoring system includes a cloud server, a communication network, a wearable monitoring device, and a portable electronic device. The communication network includes a plurality of positioning nodes and at least one gateway node. The positioning nodes are respectively disposed on a plurality of fixed landmarks, and support the first communication protocol, and the gateway node supports the first communication protocol and the second communication protocol, respectively, communicating with the positioning node through the first communication protocol, and transmitting Two communication protocols are connected to the Internet. The wearable monitoring device comprises: a monitoring terminal communication module, supports the first communication protocol, uses the positioning node to perform the positioning procedure to obtain the location information, and transmits the location information to the cloud server through the communication network; and the device label records the user information . The portable electronic device comprises: a control terminal communication module, supports the first communication protocol, establishes a connection with the monitoring terminal communication module, and obtains identification information of the monitoring terminal communication module; the reading module is used to read the device label And obtaining user information; and the wireless communication module supports the second communication protocol, thereby connecting to the cloud server, and obtaining the location information corresponding to the identification information from the cloud server.

In an embodiment of the present invention, the fixed landmark is an electronic device of a lighting device or a home appliance or a built-in wireless communication module, and the first communication protocol is a Bluetooth communication protocol, a Zigbee communication protocol, and One of the ANT+ protocols, the second protocol is a wireless fidelity (Wi-Fi) protocol or a Power Line Communication (PLC) protocol.

In an embodiment of the present invention, the wearable monitoring device further includes: a power supply module, power supply to the wearable monitoring device; a switch, controlling power supply of the power supply module; a display unit; and a microprocessor Connected to the display unit, wherein when the path guidance information is received through the monitoring terminal communication module, the microprocessor is based on the road The information and location information are used to display the navigation message to the display unit.

In an embodiment of the present invention, the wearable monitoring device further includes: an emergency button, when it is enabled, transmits a distress signal to the cloud server or the portable electronic device through the communication network; the sound output unit outputs Sound signal.

In an embodiment of the present invention, the portable electronic device further includes: a processing unit that executes an application, transmits an notification signal to the wearable monitoring device through the application, and communicates with the cloud server through the application. When the wearable monitoring device is not in the communication range of the first communication protocol of the portable electronic device, the portable electronic device sends a notification signal through the application according to the identification information of the monitoring terminal communication module, and transmits the notification signal through the communication network. The road transmits a notification signal to the cloud server, and the cloud server transmits the notification signal to the wearable monitoring device according to the identification information via the communication network. The above notification signal includes the time of arrival or notification of the visit.

In an embodiment of the present invention, the portable electronic device further includes: a care label for recording personnel information of the portable electronic device; and a label writing module for changing a content of the device label of the wearable monitoring device, wherein The content includes at least one of the time of the visit, the time of medication, the record of the drug, the record of the bed, and the discharge record. After the content of the device tag is changed, the portable electronic device transmits the personnel information and the updated content to the cloud server via the communication network.

In an embodiment of the present invention, the cloud server includes: a drug database for storing a plurality of drug information, wherein the drug information includes at least one of a pharmacological classification function, a medication description, and a drug image; and a user database, storing more User's respective medical records, including medical allergies, prescription information, And medical advice. When receiving the user information of the wearable monitoring device from the portable electronic device, the cloud server queries the user database to obtain the medical record corresponding to the user information, and transmits the medical record to the portable electronic device through the communication network.

In an embodiment of the present invention, the monitoring system further includes: an object having an object label, wherein the object information is recorded. The portable electronic device reads the object label through the reading module to obtain the object information. Moreover, the portable electronic device transmits the user information and the object information to the cloud server via the communication network through the wireless communication module, and the cloud server performs the comparison program, thereby confirming the identity of the user of the wearable monitoring device. And to confirm whether the object meets the user's medical treatment process.

In an embodiment of the present invention, the object is one of a medical device, a sample container, and a drug packaging bag. The object tag is a Radio Frequency Identification (RFID) tag, a Near Field Communication (NFC) tag, or a bar code.

In an embodiment of the present invention, the monitoring system further includes: a sensing device having a directional antenna disposed in a specific space. When the wearable monitoring device enters a specific space, the sensing device detects the monitoring terminal communication module of the wearable monitoring device and activates the gate control mechanism of the specific space.

In an embodiment of the present invention, the monitoring system further includes: a mobile care vehicle, configured with a host, and the host includes a sensing module. When the sensing module does not detect the portable electronic device within the sensing range, the input unit of the host enters the locked mode.

In an embodiment of the present invention, the wearable monitoring device further includes: a physiological monitoring module, detecting physiological information of a user of the wearable monitoring device, and The message is written to the device tag. The portable electronic device uses the reading module to obtain the physiological information of the device tag.

The new medical monitoring system includes a cloud server, a communication network, a wearable monitoring device, an object, and a portable electronic device. The communication network includes a plurality of positioning nodes and at least one gateway node. The positioning nodes are respectively disposed on a plurality of fixed landmarks, and support the first communication protocol, and the gateway node supports the first communication protocol and the second communication protocol, respectively, communicating with the positioning node through the first communication protocol, and transmitting Two communication protocols are connected to the Internet. The wearable monitoring device comprises: a monitoring terminal communication module, supports the first communication protocol, uses the positioning node to perform the positioning procedure to obtain the location information, and transmits the location information to the cloud server through the communication network; the device label records the user information; And a physiological monitoring module that detects physiological information of the user of the wearable monitoring device and writes the physiological information to the device tag. An object with an object label that records information about the object. The portable electronic device comprises: a control terminal communication module, supports the first communication protocol, establishes a connection with the monitoring terminal communication module, and obtains identification information of the monitoring terminal communication module; the reading module is used to read the device label And obtaining user information, and reading the object label to obtain object information; and the wireless communication module is connected with the communication network, thereby connecting to the cloud server through the communication network, obtaining the location information from the cloud server, and the user information And the object information is transmitted to the cloud server via the communication network, and the cloud server performs the comparison program, thereby confirming the identity of the user of the wearable monitoring device and confirming whether the object conforms to the user's medical treatment process.

Based on the above, the wearable monitoring device can grasp the current position of the user at any time, and can avoid the medical sparseness by the step of confirming the identity before performing the medical behavior. Lost.

The above described features and advantages of the present invention will be more apparent from the following description.

110, 510‧‧‧ Cloud Server

120, 520‧‧‧Communication network

130, 530‧‧‧ wearable monitoring device

131‧‧‧Monitor communication module

132‧‧‧ device label

140, 540‧‧‧ portable electronic devices

141‧‧‧Control terminal communication module

142, 543‧‧‧ reading module

143‧‧‧Wireless communication module

201~203‧‧‧Location node

211‧‧‧gate node

221‧‧‧Internet

301~309‧‧‧ nodes

310, 311‧‧‧ mobile terminal devices

312, 313‧‧‧ Ethernet terminal devices

314, 315‧‧‧ Wi-Fi terminal devices

301~309‧‧‧ nodes

310, 311‧‧‧ mobile terminal devices

312, 313‧‧‧ Ethernet terminal devices

314, 315‧‧‧ Wi-Fi terminal devices

316‧‧‧Hive network

320‧‧‧IP core network

511‧‧‧ Drug Database

512‧‧‧User Database

531‧‧‧ switch

532‧‧‧Power supply module

533‧‧‧Microprocessor

534, 542‧‧‧ Bluetooth module

535, 545‧‧‧NFC tags

541‧‧ Wi-Fi module

544‧‧‧Processing unit

546‧‧‧Label Write Module

551‧‧‧Physical Monitoring Module

552‧‧‧Display unit

553‧‧‧ Directional lights

554‧‧‧Emergency button

555‧‧‧Light control button

556‧‧‧Sound output unit

810‧‧‧ objects

811‧‧‧ object label

1000‧‧‧ action nursing car

1010‧‧‧Host

D11~D16, D21~D25, D31~D35‧‧‧Equipment with Bluetooth module

M51‧‧‧ Drug Information

R52‧‧‧ User Information

S1~S5‧‧‧ Space

T11~T14, T21, T31~T33‧‧‧Articles with RFID/NFC tags

S401~S415‧‧‧Steps of monitoring method

S705~S730‧‧‧Steps based on the notification method of the monitoring system

S901~S925‧‧‧Based on the monitoring system's identity and object confirmation methods

1 is a block diagram of a monitoring system in accordance with a first embodiment of the present invention.

2 is a schematic diagram of a communication network architecture in accordance with a first embodiment of the present invention.

3 is a schematic diagram of an Internet of Things architecture in accordance with a first embodiment of the present invention.

4 is a flow chart of a monitoring method in accordance with a first embodiment of the present invention.

Figure 5 is a schematic illustration of a medical monitoring system in accordance with a second embodiment of the present invention.

FIG. 6 is a schematic diagram of the appearance of a wearable monitoring device according to a second embodiment of the present invention.

7 is a schematic diagram of a flow of a notification method based on a monitoring system according to a second embodiment of the present invention.

Figure 8 is a schematic illustration of a medical monitoring system in accordance with a third embodiment of the present invention.

9 is a schematic diagram of a flow of an identity and object confirmation method based on a monitoring system according to a third embodiment of the present invention.

Figure 10 is a schematic illustration of a mobile care vehicle in accordance with a third embodiment of the present invention.

First embodiment

1 is a block diagram of a monitoring system in accordance with a first embodiment of the present invention. Referring to FIG. 1 , the monitoring system includes a cloud server 110 , a communication network 120 , a wearable monitoring device 130 , and a portable electronic device 140 . The wearable monitoring device 130 and the portable electronic device 140 communicate with the cloud server 110 via the communication network 120.

2 is a schematic diagram of a communication network architecture in accordance with a first embodiment of the present invention. Referring to FIG. 2, the communication network 120 includes a plurality of positioning nodes 201-203 (only three are shown here, but not limited thereto) and a gateway node 211. These positioning nodes 201 to 203 are respectively disposed in a plurality of fixed landmarks. A fixed landmark is, for example, a device having a fixed position such as a lighting device, a home appliance, or an electronic device having a built-in wireless communication module. The positioning nodes 201 to 203 support the first communication protocol. The gateway node 211 can be disposed in a fixed landmark or as a mobile node. The gateway node 211 supports the first communication protocol and the second communication protocol. The gateway node 211 communicates with the respective positioning nodes 201-203 through the first communication protocol, and connects to the Internet 221 through the second communication protocol, and then connects to the cloud server 110 through the Internet 221. The first communication protocol is, for example, a Bluetooth protocol, a Zigbee protocol, or an ANT+ protocol. The second communication protocol is, for example, a wireless fidelity (Wi-Fi) communication protocol or a Power Line Communication (PLC) protocol. In this implementation, the Bluetooth communication protocol is used as the first communication protocol, and the Wi-Fi communication protocol is used as the second communication protocol.

Returning to FIG. 1, the wearable monitoring device 130 includes a monitoring terminal communication module 131 and a device tag 132. Here, the monitoring terminal communication module 131 is, for example, a Bluetooth module, that is, it supports a Bluetooth communication protocol (first communication protocol), and uses the above-mentioned positioning nodes 201 to 203. The location program is used to obtain its own location information, and the location information is transmitted to the cloud server 110 via the communication network 120. The device tag 132 is, for example, a radio frequency identification (RFID) tag or a near field communication (NFC) tag, and the like, and records user information.

The wearable monitoring device 130, for example, the monitoring terminal communication module 131 scans the positioning nodes in the vicinity thereof (for example, the positioning nodes 201 to 203), and obtains the coordinate positions of the positioning nodes 201 to 203 (because each positioning node is set in a fixed landmark) Signal strength (for example, the Received Signal-Strength Indicator (RSSI)). Thereby, the wearable monitoring device 130 can calculate by using the triangulation technology to obtain the position information of the current location.

The portable electronic device 140 includes a control terminal communication module 141, a reading module 142, and a wireless communication module 143. The control terminal communication module 141 is, for example, a Bluetooth module, that is, it supports a Bluetooth communication protocol (first communication protocol). In the portable electronic device 140, the control terminal communication module 141 is used to establish a connection with the monitoring terminal communication module 131, and the identification information of the monitoring terminal communication module 131 is obtained. The above identification information is, for example, a Bluetooth identity.

The reading module 143 is configured to read user information in the device tag 132. For example, in the case where the device tag 132 is implemented as an RFID chip, the reading module 143 is an RFID reader; in the case where the device tag 132 is implemented as an NFC wafer, the reading module 143 is an NFC reader. Alternatively, the reading module 143 can also integrate the RFID reader with the NFC reader, so that the portable electronic device 140 can read the RFID chip and can also read the NFC chip, which is not limited herein.

The wireless communication module 141 is, for example, a Wi-Fi module, that is, it supports a Wi-Fi communication protocol (second communication protocol). The portable electronic device 140 is connected to the Internet 221 by using the wireless communication module 141, and is then connected to the cloud server 110. Thereby, the portable electronic device 140 can obtain location information or other related information corresponding to the read identification information from the cloud server 110.

A further example is given below to illustrate the communication network architecture based on the present invention. Under the Internet, an Internet of Things (IOT) is used for explanation. 3 is a schematic diagram of an Internet of Things architecture in accordance with a first embodiment of the present invention. Referring to FIG. 3, in the present embodiment, the indoor light source diode (Light Emitting Diode) light source is used as a fixed landmark. In other embodiments, the fixed landmark may also be a solar street light, a street light, a solar street light, or a household appliance fixed in a house, and the household appliance may be a refrigerator, a television, a washing machine, a dishwasher, a printer, Microwave ovens, ovens, or electronic devices including built-in wireless communication modules.

Please refer to FIG. 3, basically, a gateway node (such as node 301) can be set up in the set space range (room or square 20 meters radius office) (such as space S1~S5) centering on the LED light source. ~303, 305). The gateway node is, for example, a device having a WI-FI module and a Bluetooth module, such as nodes 301-303; or a PLC chip and a Bluetooth module as a gateway node, such as node 305; or using mobile terminal device 310. Come to the gateway node. The gateway node communicates with an Internet Protocol (IP) core network 320.

In space S3, node 303 communicates with devices D11~D16 having Bluetooth modules using a Bluetooth protocol. Space S3 also includes node 309. node 309 is a device having an RFID/NFC reader and a Bluetooth module. The object T11~T14 having RFID/NFC tags around it is read through the node 309, and the node 309 communicates with the node 303 by using the Bluetooth protocol. Node 303 communicates with IP core network 320 through another Wi-Fi protocol (via gateway node or router) having a WI-FI module and a Bluetooth module.

In space S4, node 305 communicates with devices D21~D25 having Bluetooth modules using a Bluetooth protocol. Space S4 also includes nodes 307, 308, each of which is a device having an RFID/NFC reader and a Bluetooth module. The object T31 to T33 having the RFID/NFC tag around it is read through the node 307, and the object T21 having the RFID/NFC tag around it is read through the node 308. Nodes 307, 308 then communicate with node 305 using a Bluetooth protocol. Node 305 communicates with IP core network 320 via a Wi-Fi protocol through another PLC die and node 306 (gateway node or router) of the Bluetooth module.

In the space S5, the mobile terminal device 310 is used as a gateway node. This is because the mobile terminal device 310 includes a Bluetooth module, a Wi-Fi module, etc., and thus can function as a gateway node. The mobile terminal device 310 communicates with the devices D31 to D35 having the Bluetooth module, and the mobile terminal device 310 communicates with the IP core network 320 via the cellular network 316. The same can be analogized to other spaces.

The above bluetooth module may be a dual module, including a slave node and a master node. Gateway nodes (such as nodes 301~307) can be connected to other Bluetooth modules in a star network architecture. Some of the Bluetooth modules can have An NFC/RFID reader is used to read nearby devices with NFC tags or RFID tags. The results of the reader can be transmitted to the gateway node via the Bluetooth module and uploaded to the cloud server. 110. In addition, some Bluetooth modules can be built into electrical appliances, or contained in other light sources, or worn on people, such as positioning hand rings, wearable sensors (including blood glucose meters, electrocardiograms, Blood pressure monitor, brain wave meter, etc.). In addition, the NFC/RFID tag of the object can be read through a smart phone or a wearable sensor with a Bluetooth module. Smart phones can be connected to IP core network 320 via Wi-Fi modules or through communication modules such as 2G, 3G or 4G. The other mobile terminal devices 311 can also communicate with the IP core network 320 via the cellular network 316.

Alternatively, the Ethernet terminal devices 312, 313 communicate with the IP core network 320 in a wired manner. Alternatively, other Wi-Fi terminal devices 314, 315 can communicate directly with IP core network 320. For example, taking the communication network 120 installed in the hospital as an example, if a large amount of equipment or computer in the hospital is a Wi-Fi terminal device, it can be directly connected to the IP core network through a node having a Wi-Fi module. Road 320. If it is the Ethernet terminal device 312, 313, it can be directly connected to the IP core network 320 through a local area network (LAN).

The above Internet of Things has three modes of operation.

The first type: the monitoring terminal communication module 131 of the wearable monitoring device 130 is, for example, a single chip of the CC2540/CC2541 system using Texas Instruments (TI), and can continuously switch between the master node and the slave node. The wearable monitoring device 130 is configured as a slave node, which can be read by the master node in the Internet of Things, and the monitoring system can track and wear The location of the wearable device 130 is monitored and a guidance or emergency rescue or other location-based service (LBS) is provided based on the location. The method provided is that the wearable monitoring device 130 is connected by the Internet of Things, and the boot command is written by the speaker (also displayed by the display unit).

The second type: the portable electronic device 140 is configured as a master node, and directly reads the latitude, longitude and altitude data of the slave node of the Internet of Things, calculates the location of the portable electronic device 140, and transmits the location to the cloud server 110 through the Wi-Fi protocol. The cloud server 110 can track the location of the portable electronic device 140 and provide guidance or other geographic location services based on the location. Moreover, the portable electronic device 140 can also directly display the instant location of the portable electronic device 140 on the map in combination with the hospital map.

Third: the wearable monitoring device 130 and the portable electronic device 140 are combined. The wearable monitoring device 130 is used for positioning, and the message is transmitted by the cloud server 110 directly to the portable electronic device 140 through the Wi-Fi communication protocol. The wearable monitoring device 130 is configured such that the slave node can be read by the master node of the Internet of Things, and the cloud server 110 can track the location of the wearable monitoring device 130 and provide guidance or other geographic location services based on the location.

If the mobile device is to be equipped with various combinations of mobile devices, the preferred method is to have the nodes of the Internet of Things have dual modules at the same time, that is, the nodes of the positioning node and the gateway node include the slave node and the master node.

4 is a flow chart of a monitoring method in accordance with a first embodiment of the present invention. The location of the user using the wearable monitoring device 130 can be further controlled by the above communication network.

Referring to FIG. 1 and FIG. 4 simultaneously, in step S401, a communication network 120 is provided. The Internet of Things shown in FIG. 3 is formed by the communication network 120, the wearable monitoring device 130, the portable electronic device 140, and the like. Next, in step S405, the wearable monitoring device 130 uses the positioning node to perform a positioning procedure to obtain location information, and transmits the location information to the cloud server 110. Here, the location information may be calculated by the wearable monitoring device 130, or the location information may be calculated by the cloud server 110.

Specifically, in step A, in the wearable monitoring device 130, the Bluetooth master node of the monitoring terminal communication module 131 uses the scanning function to read the slave nodes in the scanning range thereof, and the transmitting and receiving power of the Bluetooth master node is The maximum level, while the time required for scanning is very short, can be as little as 1/20 second. Step B, using at least three positioning nodes (for example, disposed on the LED light source) to perform triangulation to determine a possible location of the Bluetooth master node (ie, the wearable monitoring device 130) within the scanning range, and may also be three More than one positioning node to improve its positioning accuracy.

Since the LED light source disposed on the ceiling or the wall has a high power, the wearable monitoring device 130 can effectively perform the Line of Sight (LOS) channel between the slave node and the master node without serious multipath Transmission, so its accuracy can be greatly improved. The appropriate correction may be performed according to the number of mobile characters (i.e., the user using the wearable monitoring device 130), or a fuzzy inference or a neural-like inference may be used to establish the model. In addition to the RSSI value, the power characteristics of the physical layer, ie channel response, can also be used to resolve multipath characteristics, so it can be used to achieve universal and accurate indoor positioning.

Next, in step S410, the portable electronic device 140 obtains the identification information of the wearable monitoring device 130 from the wearable monitoring device 130. For example, the portable electronic device 140 uses the control terminal communication module 142 to connect to the monitoring terminal communication module 131 for Bluetooth connection, thereby obtaining the Bluetooth identification code of the monitoring terminal communication module 131.

Then, in step S415, the portable electronic device 130 obtains the location information of the wearable monitoring device 130 from the cloud server 110 via the communication network 120 according to the identification information. In addition, the portable electronic device 130 can also directly connect to the cloud server 110 through the Internet through the wireless communication module 141, and then obtain the location information of the wearable monitoring device 130 according to the identification information. Accordingly, the person using the portable electronic device 130 can grasp the location information of the user using the wearable monitoring device 130 at all times.

The above-mentioned positioning function can be replaced by the original electric lamp (light bulb or tube) to become a LED light source with communication function. The LED light source has built-in circuit modules for communication functions of Bluetooth 4.0 or higher. Moreover, a router is provided, which has at least a communication module and a Wi-Fi module of Bluetooth 4.0 or higher. Scan the Bluetooth identification code (BTID) on the LED light source near it and the RSSI value it receives by the router, and send the data to the nearby gateway via the Wi-Fi module or The cloud server 110, then the cloud server 110 sends the calculated positioning information or knowledge to the user via the Wi-Fi module or to the relevant care or monitoring personnel.

The above monitoring system can be applied to medical care, and the medical monitoring system based on the above monitoring system is exemplified below.

Second embodiment

Figure 5 is a schematic illustration of a medical monitoring system in accordance with a second embodiment of the present invention. Referring to FIG. 5, the medical monitoring system includes a cloud server 510, a communication network 520, a wearable monitoring device 530, and a portable electronic device 540. The architecture of the communication network 520 is the same as that of the communication network 120 of the first embodiment. For the related description, refer to FIG. 2 and FIG. 3, and the cloud server 510, the wearable monitoring device 530, and the portable electronic device 540 are used. For the manner in which the communication network 120 communicates, reference may be made to the description of the first embodiment, and details are not described herein again.

In this embodiment, the medical staff can monitor the user (patient) who is equipped with the wearable monitoring device 530 by the portable electronic device 540. For example, when the user reports at the hospital counter, the wearable monitoring device 530 can be configured by the counter first, so that the cloud server 510 can monitor the location information of the user. The nursing staff of the nursing station can use the portable electronic device 540 to connect with the wearable monitoring device 530 of the user through the cloud server 510 to achieve immediate care of the ward management and the user (patient).

Based on the Internet of Things architecture shown in FIG. 3, the wearable monitoring device 530 worn by the user and the portable electronic device 540 (for example, a smart phone) worn by the medical staff pass through the communication network installed in the hospital. 520, relying on NFC / RFID readers, Bluetooth modules, Wi-Fi modules can communicate, without relying on 2G, 3G or 4G and other need to charge communication functions. All operations between the wearable monitoring device 530 and the portable electronic device 540 are operated in the hospital and do not need to be connected to the network outside the hospital, so that privacy can be effectively preserved.

The description of each component in the above medical monitoring system is described below.

The database in the cloud server 510 includes a drug database 511 and a user database 512. The drug database 511 stores a plurality of drug information M51. Each drug information M51 includes pharmacological classification, medication instructions or drug pictures. The user database 512 stores a plurality of user's respective user information R52, and the user information R52 records the user's medical record. Each medical record includes drug allergy information, prescription information or medical information.

The wearable monitoring device 530 is, for example, an electronic wristband for the user to wear on the wrist. The wearable monitoring device 530 includes a switch 531, a power supply module 532, a microprocessor 533, a Bluetooth module 534 (monitoring terminal communication module), an NFC tag 535 (device tag, and other embodiments may also use an RFID tag), The physiological monitoring module 551, the display unit 552, the direction light number 553 (including, for example, four directions of up, down, left, and right), the emergency button 554, the light control button 555, and the sound output unit 556.

The switch 531 is used to control whether the power supply module 532 is powered or not. The power supply module 532 is used to supply power to the wearable monitoring device 530 for operation. The microprocessor 533 is coupled to the direction indicator 553 to control the brightness of the direction indicator 533. When the path guidance information is received through the Bluetooth module 534, the microprocessor 533 can control the brightness of the four directions of the up, down, left, and right directions of the direction indicator 534 according to the path guidance information and the location information of the path. When the emergency button 554 is enabled, the help signal can be transmitted to the cloud server 510 or the portable electronic device 540 via the communication network 520. When the light control button 555 is enabled, the light control signal is transmitted to one of the lighting devices to turn the lighting device on or off. The sound output unit 556 is used to lose Sound signal. The display unit 556 is configured to display a prompt message. The physiological monitoring module 551 is configured to detect physiological information of the user of the wearable monitoring device 530 and write the physiological information into the memory of the NFC tag 535 or the Bluetooth module 534. The portable electronic device 540 can use the reading module 543 to obtain the physiological information in the NFC tag 535, or the Bluetooth module 542 can read the physiological information stored in the memory of the Bluetooth module 534, or query. The cloud server 510 obtains the physiological information of the user. The physiological monitoring module 551 includes a blood glucose meter, an electrocardiogram, a sphygmomanometer, a brain wave meter, and the like.

FIG. 6 is a schematic diagram of the appearance of a wearable monitoring device according to a second embodiment of the present invention. Referring to FIG. 6 , the wearable monitoring device 530 is, for example, a wrist-worn device, which is provided with a waterproof casing, and is provided with a power supply module 532 composed of a solar battery (or a charging circuit) and/or a lithium battery. The Bluetooth module 534, the physiological monitoring module 551, and the like may be additionally provided with an accelerometer. In addition, a switch 531, a display unit 552, a set of direction lights 553 (including, for example, four directions of up, down, left, and right), an emergency button 554, and a light control button 555 are disposed on the appearance of the wearable monitoring device 530. Sound output unit 556. The components of the wearable monitoring device 530 illustrated in FIG. 6 may be appropriately increased or decreased as appropriate. For example, in other embodiments, the wearable monitoring device 530 may not provide the direction light number 553 and the light control button 555, but the display unit 552 implements the functions of the direction light number 553 and the light control button 555.

When the user registers at the hospital counter, the user information corresponding to the user, such as the user number, is written in the NFC tag 535 of the wearable monitoring device 530, and the image capturing device such as a mobile phone can be further used to take a photo. The wearable monitoring device 530 to be used is implemented by Bluetooth protocol (or other communication protocol) In connection, a large-sized data such as a photo is written into the memory of the Bluetooth module 534 of the wearable monitoring device 530, and then the user wears the wearable monitoring device 530. When the caregiver is to perform a medical behavior, the caregiver can use the reading module 543 of the portable electronic device 540 to obtain the user information stored in the NFC tag 535 of the wearable monitoring device 530, and wear it with the user. The type monitoring device 530 establishes a Bluetooth connection, from which the Bluetooth identification code of the wearable monitoring device 530 can be obtained, and at the same time, photos and the like can be read for comparison. Especially before taking the medicine, getting an injection, or cutting the knife, the nursing staff should confirm the identity of the user.

The solar battery can be used as the power supply module 532 to effectively obtain the sunlight illumination obtained outdoors, and can be charged at any time, or can be charged by using a halogen lamp. If the power supply is insufficient, the user can be informed by a light emitting unit (not shown), for example, the light emitting unit may blink or the like. In addition, batteries can be used for power supply, in conjunction with rechargeable facilities. Moreover, the accelerometer can be used to know whether the user is gait stable and whether the nursing staff needs assistance.

The wearable monitoring device 530 can further output an incoming call ringtone or other audio signal through the sound output unit 556 (for example, a speaker), and the user can act on the wearable monitoring device 530 to listen to an audio signal or the like. The above indication may be that the gateway node (with a Bluetooth module and a Wi-Fi module) on the LED light source directly connects the wearable monitoring device 530 in the vicinity thereof, and then writes the data. In addition, the display unit 552 is, for example, a touch screen, and can display information transmitted by a caregiver. For example, when the path guidance information is received through the Bluetooth module 534, the microprocessor 533 displays the information according to the path guidance information and the location information. A navigation message is displayed on the display unit 552. In addition, the wearable monitoring device 530 can also transmit the physiological condition obtained by the physiological monitoring module 551 to the cloud server 510.

The portable electronic device 540 includes a Wi-Fi module 541, a Bluetooth module 542, a reading module 543, a processing unit 544, an NFC tag 545 (care tag), and a tag writing module 546. The Wi-Fi module 541, the Bluetooth module 542, and the reading module 543 have the same functions as the wireless communication module 141, the control terminal communication module 142, and the reading module 143 of the first embodiment, and the related description can be referred to. Description of the first embodiment. The NFC tag 545 is used to record the personnel information of the portable electronic device 540. The tag writing module 546 is used to change the content of the NFC tag 535 of the wearable monitoring device 530. The above contents are, for example, the time of the visit, the time of administration, the record of the drug, the record of the bed shift, the discharge record, and the like. After the content of the NFC tag 535 of the wearable monitoring device 530 is changed, the portable electronic device 540 can further transmit the personnel information and the updated content to the cloud server 510 via the communication network 520.

The processing unit 544 is configured to execute an application, through which the notification signal is transmitted to the wearable monitoring device 530, and the application is used to communicate with the cloud server 510. When the wearable monitoring device 530 is not within the communication range of the Bluetooth communication protocol of the portable electronic device 540, the portable electronic device 510 can be based on the identification information of the Bluetooth module 534 of the wearable monitoring device 530 (ie, the Bluetooth identification code). And sending a notification signal through the application, and transmitting the notification signal to the cloud server 510 via the communication network 520, and the cloud server 510 transmits the notification signal to the wearable monitoring device 530 according to the identification information via the communication network 520. on The notification signal is, for example, the time of arrival or the notification of the visit.

Taking the outpatient management application as an example, a clinic management application can be executed in the portable electronic device 540 (for example, a tablet or a smart phone) used by the nurse, and each doctor can see each doctor. Used to adjust the time of patient visits. Based on their own experience, the nurses conducted research and judgment based on the presence or absence of teaching, the proportion of newly diagnosed patients and returning patients, the number of examination items, and the number of patients who were remotely viewed, to help arrange for patients to come to the waiting room. The nurse uses the portable electronic device 540 to notify the patient to come to the hospital through a Wi-Fi protocol.

For example, FIG. 7 is a schematic diagram of a flow of a notification system based notification method according to a second embodiment of the present invention. In step S705, the wearable monitoring device 530 performs a positioning procedure using the communication network 520 to obtain its own location information. In step S710, the wearable monitoring device 530 uploads the location information to the cloud server 510 via the communication network 520. In addition, in other embodiments, after the wearable monitoring device 530 obtains the coordinate positions of the at least three fixed landmarks and the signal strength values (for example, the RSSI value) through the positioning nodes in the communication network 520, the coordinate positions are obtained. And the signal strength value is transmitted to the cloud server 510, and the cloud server 510 calculates the location information of the wearable monitoring device 530.

Then, in step S715, the portable electronic device 540 detects the wearable monitoring device 530 within the communication range of its Bluetooth module 542. For example, when the user arrives at the clinic, the wearable monitoring device 530 can first confirm the device with the portable electronic device 540 of the nurse, whereby the portable electronic device 540 can obtain the Bluetooth of the wearable monitoring device 530. Identification code or user information, etc. And will be called soon When the user of the wearable monitoring device 530 is reached, the nurse can use the portable electronic device 540 to know whether the user is currently waiting outside the clinic.

If the wearable monitoring device 530 is detected in the communication range, the portable electronic device 540 directly transmits the notification signal to the wearable monitoring device 530 through the Bluetooth communication protocol as shown in step S725. If the wearable monitoring device 530 is not detected in the communication range, the portable electronic device 540 transmits the user information or wearable monitoring of the user via the communication network 520 through the Wi-Fi module 541 as shown in step S720. The Bluetooth identification code and the notification signal of the device 530 are transmitted to the cloud server 510, and the cloud server 510 finds the location information of the corresponding wearable monitoring device 530 according to the user information or the Bluetooth identification code. Then, in step S730, the cloud server 510 transmits the notification signal to the wearable monitoring device 530 via the communication network 520 according to the location information to notify the user to come to the clinic.

In other embodiments, the portable electronic device 540 can also query and obtain the corresponding location information from the cloud server 510 according to the user information or the Bluetooth identifier. Then, the portable electronic device 540 transmits the location information according to the location information. The communication network 520 transmits a notification message to the wearable monitoring device 530.

The wearable monitoring device 530 can also be implemented by a smart phone. The smart phone can be used as a tool for assisting the visit, and only a visit application can be executed. In addition, the information services provided by many hospitals can be obtained through the above-mentioned visit application. Accordingly, it is convenient for the outpatient nurse to call the patient who is waiting for the patient. Moreover, with indoor positioning, users can go to each inspection room to check and know which check rooms are waiting for a small number of people. Even if they are already waiting, they can get the cloud servo of the hospital. The knowledge provided by the device 510 is more aware of its disease and its medical knowledge. Similarly, if you queue up for more than one person, you can also know your own ranking. In addition, through the above method, the user does not need to wait for a long time in the medical treatment room. As long as the above-mentioned medical application is opened, he can go to other places provided by the hospital, such as a consumer place, a post office, a bank, or a health education place.

For the schedule of appointments for appointments, the length of time for each patient’s visit has long been difficult to control, so patients often need to wait outside the clinic. If you can reduce the waiting time for patients and accompanying staff, not only It can greatly reduce the psychological burden and time schedule of patients, and can also greatly reduce the crowds in the hospital.

An outpatient management application can be executed in the portable electronic device 540 (for example, a tablet or a smart phone) used by the nurse. In the outpatient management application, the average visit time per patient is 5 minutes, the waiting time is 10 minutes, and the appointment time is based on a fixed time period. For example, 10 minutes per person, basically aiming at not allowing the person to make an appointment for more than ten minutes, that is, each person coming to the hospital for a maximum of 30 minutes. If the appointment time has not expired, join the on-site registration and insert the consultation according to the order of registration. Due to such regulations, the appointment can be placed within the first two hours as much as possible, so that the examinations can be completed within the time of the consultation. Also avoid checking the department's work timeout. The way to report is, for example, to swipe the health insurance card to the reader.

The use of the smart phone's visit application or the wearable monitoring device 530 can know the order of the number of the appointment visit and the number of the currently called number, according to which the user only needs a few minutes before the appointment time (for example, 3 minutes). Just arrive before you arrive. For those who have registered and signed the number on the spot, sort the plug-ins according to the order of registration, and look back at the scene after checking. The result is queued with the person who is registered and crossed in the field, but can be inserted first. In any case, the number of people who can stay on site forever (for example, no more than 2 people). Once the number of people on the site is less than 2, the outpatient nurse immediately informs the user by the notification method shown in Figure 7.

In addition, if the on-site registration is completed, the on-site registration person can use the smart phone's visit application or wearable monitoring device 530 to guide to the clinic. For example, the path guidance information can be transmitted by the cloud server 510 to the visitor application or the wearable monitoring device 530 of the smart phone. When the user arrives at the clinic, the NFC reader 535 (equivalent to the extracted number plate) of the smart phone or wearable monitoring device 530 can be read using the NFC reader outside the clinic. Through the communication network 520, the smart phone or the wearable monitoring device 530 can transmit its location information to the cloud server 510 at any time, and can also receive the call sent by the nurse's portable electronic device 540 through the communication network 520. In addition, the payment action can be performed through the NFC tag 535, whereby the time for payment can be shortened.

Furthermore, the above notification method can also be applied to a doctor's patrol room. In the case where the doctor conducts a patrol, and the patient just leaves, the doctor uses his portable electronic device 540 to connect to the cloud server 510 to inquire about the current location of the wearable monitoring device 530 worn by the patient. And transmitting a notification message to the portable electronic device 540 through the communication network 520, thereby informing the patient whether to wait for the doctor in the place, or moving to a designated place for medical treatment.

The portable electronic device 540 used by the medical staff can also be realized by smart glasses, and the medical diagnosis can be recorded through the smart glasses. The course of treatment. For example, smart glasses include a display, a photographic lens, an audio input and output, a gyroscope, an accelerometer, a Bluetooth module, a Wi-Fi module, and a Global Positioning System (GPS), which has the equivalent of a note. The computing power of a computer.

Third embodiment

Figure 8 is a schematic illustration of a medical monitoring system in accordance with a third embodiment of the present invention. Members having the same functions as those of the second embodiment will be given the same reference numerals in the third embodiment, and the related description will be omitted.

In a third embodiment, the medical monitoring system further includes an item 810. The object 810 has an object label 811 that records object information, and the object 810 is, for example, a medical device, a sample container, or a drug packaging bag. The object tag 811 is, for example, an RFID tag, an NFC tag, or a bar code (a two-dimensional bar code or a Quick Response Code (QR Code)). For important items to be tracked at any time, Bluetooth modules or NFC/RFID tags can be configured and can be reused. If it is not an object that needs to be tracked at any time, you can use a 2D barcode or a QR code. As a result, there will be no increase in costs.

For example, for a non-discarded object, particularly a mobile object or a small object, an NFC tag can be directly used as the object tag 811 for reading by the portable electronic device 540. In addition, items such as medical instruments and high-priced medical equipment that are not embedded in Bluetooth low-power modules can be labeled with NFC. For non-discarded objects such as large furniture, doors, windows, mirrors, photo frames, paintings, curtains, cabinets, folders, bookshelves, etc., it is not easy to use NFC communication technology to get close to the distance. For reading, it takes a long distance not to read the tag, so it can be integrated with the RFID tag. For disposable items (such as medicine boxes, sample sampling containers, blood transfusion bags, etc.), it is convenient to use a two-dimensional barcode sticker or to print a two-dimensional barcode on a paper cassette or the like. Accordingly, the portable electronic device 540 can be used for reading.

The patient is assigned a wearable monitoring device 530 at the nursing station during hospitalization, and the nursing staff is used to identify the patient identity by using the Bluetooth module 534 and the NFC tag 551 during the hospitalization, and can also determine whether the patient has a turn through the intermediary software. Bed and other transaction data. The information recorded in the wearable monitoring device 530 is changed or released when the patient is discharged from the hospital.

Specifically, the medical staff directly reads the Bluetooth identification code of the wearable monitoring device 530 of the patient and the user information recorded by the NFC tag 535 by using the portable electronic device 540, and reads the record recorded by the object tag of the object 810. Object information. Moreover, the portable electronic device 540 is connected to the cloud server 510 via the communication network 520 to query the user database 512 to obtain the medical record corresponding to the user information R52, thereby further confirming whether the object information meets the medical record. Process. If the item information does not meet the diagnosis and treatment process, the portable electronic device 540 further prompts the warning message to inform the medical staff.

In addition, the portable electronic device 540 can also transmit user information (and/or Bluetooth identification code) and object information to the cloud server 510 via the communication network 520 through the Wi-Fi module 541. The comparison program is executed by the cloud server 510, whereby the identity of the user of the wearable monitoring device 530 is confirmed, and it is confirmed whether the article 810 conforms to the medical procedure of the above-mentioned user.

9 is a schematic diagram of a flow of an identity and object confirmation method based on a monitoring system according to a third embodiment of the present invention. In step S901, the portable electronic device 540 reads the NFC tag 535 of the wearable monitoring device 530 by using the reading module 543, and the user information is obtained from the wearable monitoring device 530 as shown in step S903. Next, in step S905, the portable electronic device 540 transmits the user information to the cloud server 510 by using the Wi-Fi module 541.

In step S907, the portable electronic device 540 reads the object label 811 of the object 810 by using the reading module 543, and obtains the object information from the object 810 as shown in step S909. Next, in step S911, the portable electronic device 540 transmits the object information to the cloud server 510 by using the Wi-Fi module 541. The order of steps S901 to S905 and steps S907 to S911 described above may be exchanged, and is not limited herein.

In step S913, the cloud server 510 determines whether the object information conforms to the diagnosis and treatment process according to the user information. If yes, the cloud server 510 sends a correct message to the portable electronic device 540, as shown in step S915. Under this circumstance, the medical staff can be assured of relevant treatment for the patient. After the relevant diagnosis and treatment is performed, in step S917, the update content is written into the NFC tag 535 of the wearable monitoring device 530 by the tag writing module 546 of the portable electronic device 540. Moreover, in step S919, the Wi-Fi module 541 of the portable electronic device 540 transmits the personnel information of the medical staff (recorded in the NFC tag 545) and the updated content to the cloud server 510.

If the comparison result in step S913 does not match, the cloud server 510 sends an error message to the portable electronic device 540, as shown in step 921. In this case Next, the medical staff will stop the follow-up treatment of the patient. Then, in step S923, the portable electronic device 540 transmits a query request to the cloud server 510. In step S925, the cloud server 510 transmits the medical record related to the user information of the patient to the portable electronic device 540 for reference by the medical staff.

When the nursing staff is engaged in care and administration, the Bluetooth module 542 and the reading module 543 of the portable electronic device 540 are used to read the data of the Bluetooth module 534 and the NFC tag 535 of the wearable monitoring device 530 of the patient. And the obtained data is transmitted to the cloud server 510. The medical staff will first confirm the patient's identity and then check the patient's medical advice. Then, the two-dimensional barcode on the medicine bag is read by the two-dimensional barcode reader of the portable electronic device 540 (for example, integrated into the reading module 542) and transmitted to the cloud server 510. The cloud server 510 takes out the drug information M51 corresponding to the two-dimensional barcode from the drug database 511, and takes out the medical record (drug allergy information, prescription information, medical information) from the user database R52 corresponding to the user information R52. ) is displayed on the portable electronic device 540. The portable electronic device 540 checks whether the information of the object conforms to the medical information. If the doctor's message changes, the caregiver can get the information immediately, and change the drug contained in it, and sign it for confirmation. Due to the wide variety of drugs, or the similar appearance of some drugs, it is easy to make mistakes in identification. When the doctor's message appears on the screen of the portable electronic device 540, the name of the drug may be selected to display a picture of the drug on the screen for the caregiver to check. If the medicine and dosage are correct, the caregiver can select and record the medication from the screen. In addition, the nursing staff can also manually record patient-related information such as temperature and blood pressure during the care.

Before the medical staff wants to take the patient's body, blood transfusion, medication, etc. Through the above comparison method, the user identity and the diagnosis and treatment process are confirmed, and the action of taking the sample, blood transfusion, medication, and the like is performed after the comparison is confirmed. According to this, medical disputes can be avoided.

In addition, before the medical treatment is performed, the portable electronic device 540 of the medical staff directly reads the Bluetooth identification code of the wearable monitoring device 530 of the patient and the user information recorded by the NFC tag 535, and the user is accessed through the Wi-Fi module 541. The information and/or Bluetooth identification code is transmitted to the cloud server 510 via the communication network 520. The diagnosis is performed only after the cloud server 510 performs confirmation that the patient's identity is correct. The same is true before the operation, so that the wrong knife can be avoided. Moreover, the wearable monitoring device 530 of the patient periodically sends its latitude and longitude and altitude information to the cloud server 510, so that the family member can know that the patient is in the surgical process, and the current location is in the preparation room, the cutting room or the recovery room. Wait. Even if the wearable monitoring device 530 is completely covered with a tape, the broadcast can be effectively issued.

Furthermore, inspections of various medical instruments and equipment in hospitals, such as blood drawing, urine testing, X-ray, ultrasound, Magnetic Resonance Imaging (MRI), Computer Tomography (CT), etc., do not need to be The checklist, the patient only needs to configure the wearable monitoring device 530, and goes directly to the inspection office, where the Bluetooth identification code of the wearable monitoring device 530 is read by the Bluetooth reader for reporting. Thereby, the medical station can know through the communication network 520 whether the patient has been waiting at the inspection office. After the check is completed, the cloud server 510 can obtain the result and instruct the patient to go to the next station for examination.

The wearable monitoring device 530 can also be applied to access control security and epidemic disease monitoring: the wearable monitoring device 530 of the patient can send its latitude and longitude and high cost at any time. The cloud server 510 is sent to the cloud server 510. If the patient leaves the ward or the hospital, the display unit 552 on the wearable monitoring device 530 displays a prompt message to ask the patient to return to the ward. For patients with infectious or epidemic diseases, it is especially necessary to control their whereabouts.

Through the wearable monitoring device 530, the patient can also call the medical staff to assist at any time. For example, the patient broadcasts to the gateway node of each ward by pressing the emergency button 554 on the wearable monitoring device 530, thereby transmitting the distress signal to the portable electronic device 540 of the medical staff. According to this, the medical staff can immediately respond to the patient and, based on the position information obtained through the above method, rush to the patient's place for assistance, and improve the emergency button of the emergency button or toilet at the traditional bedside. Because the patient may not be able to reach the bed immediately or the emergency button that cannot reach the toilet.

The wearable monitoring device 530 can also be applied to a health check. Generally, there are usually many checkpoints that need to be sent to the health check. The examinee wears the wearable monitoring device 530, and the Bluetooth module 534 is connected to the communication network 520. The cloud server 510 transmits the path guidance information to the test through the communication network 520. The wearable monitoring device 530 of the person, for example, the microprocessor 533 of the wearable monitoring device 530 controls the light and dark of the direction light 553 according to the path guidance information and its position information to indicate that it goes to each check station. At the beginning of the inspection and inspection, the NFC tag 535 (or RFID tag) in the wearable monitoring device 530 of the inspector is read by the inspector's portable electronic device 540. The cloud server 510 regulates, especially the equipment is distributed in multiple floors or multiple places, how to ensure high circulation, no bottlenecks, and dynamic management.

The average user can use the Bluetooth identification code of his smart phone to apply to the disease. Control. For example, the visitor schedules the target of the disease on the Internet, the time period, and loads the Bluetooth identification code of the smart phone. After the patient enters the hospital door, the object can be guided through the Internet of Things as shown in FIG. The ward to visit the disease.

In addition, an inductive device having a directional antenna can be provided in a specific space. Thereby, when the wearable monitoring device 530 enters a specific space (for example, an ultrasonic chamber, an X-ray room, an MRT room, a CT room, etc.), the sensing device detects the Bluetooth module 534 of the wearable monitoring device 530 and activates Gate control mechanism for specific spaces. The area that the Bluetooth module reads can be specified by using a pointing antenna.

The above gate control mechanism utilizes a Bluetooth module (invisible Bluetooth gate) to control the personnel or objects to be accessed. For example, the physical gate is opened after the invisible bluetooth gate is determined to be correct, and then it is determined whether the person has actually entered the specific space, and the tracking of the entry person's whereabouts is started through the Internet of Things as shown in FIG.

In addition, a protective action car can be placed in the medical monitoring system. In general, nurses have a lot of manual work during the care process. Accordingly, if a full-featured mobile care vehicle is used in conjunction with the care station system to electronically input the data to the electronic device, the workload of the caregiver can be greatly reduced.

Figure 10 is a schematic illustration of a mobile care vehicle in accordance with a third embodiment of the present invention. The mobile care car 1000 is configured with a host 1010. The host 1010 is, for example, a computer. The host 1010 includes a sensing module (not shown, for example, disposed inside the host 1010). When the sensing module does not detect the portable electronic device 540 within the sensing range, the input unit of the host 1010 enters the locked mode.

When the caregiver leaves the range of the mobile care car 1000, the host 1010 on the mobile care car 1000 is automatically locked and cannot use the keyboard. When the caregiver enters the detection range, the unlocking action is automatically performed. This can prevent the computer's operation record from being affected by abnormal operation, protect the patient and the relevant information of the drug administration, and can avoid data corruption or error caused by the accidental contact of non-related personnel.

In addition, the host 1010 configured by the mobile care car 1000 can also be a smart phone or a tablet. The host 1010 includes an NFC reader (Reader), a 2D Bar-code Reader, and a wireless transmission device (integrated Bluetooth module and Wi-Fi module). The patient wears a wearable monitoring device 530. As for nursing staff, pharmacists and physicians, Bluetooth modules and NFC tags can be implanted on their identification cards, and Bluetooth modules and Wi-Fi modules can be built in the LED lights of each ward and aisle.

The Bluetooth module and the NFC tag are implanted on the identification cards of the nursing staff, the pharmacist and the doctor, and the information system platform for the nursing staff in the mobile care car 1000 is established, so that the nursing staff can exchange the drug cart in the pharmacy department. The characteristics of the exchange time, location and personnel of the pharmacy personnel and the nursing staff are automatically recorded by the characteristics of the Bluetooth module and the NFC tag.

For example, a patient who needs to be operated starts from entering the hospital. After completing the registration of the patient data, the medical staff assists the patient to wear the wearable monitoring device 530. When wearing, the monitoring system has performed the process status on the wearable monitoring device 530. Monitoring, the portable electronic device 540 retrieves relevant patient data from the cloud server 510, and performs a series of pre-operative confirmation operations in series, and the medical staff enters the cloud according to the department. The server 510 operates the nursing work flow and serially dispatches the work items. The monitoring system continuously monitors and displays the position and condition of the patient at the current stage of the operation.

When the operation is over, the medical staff will further confirm the location of the patient's process. When the patient is in the recovery room, the required injection, drip or medication can be clearly communicated by the medical staff through the monitoring system. The drugs and doses required to reduce the human error in the drug and patient recovery operations.

In addition, the above medical system can also be used in conjunction with an electronic device such as a computer in a nursing station. For example, when a patient A in a hospital bed has a doctor's note at this moment, the nursing staff of the nursing station can press the ward block where the patient A is located in the main operation interface of the nursing station computer. To confirm the doctor's note. The nursing station computer then transmits a message to Patient A's wearable monitoring device via its master communication module. At this time, in the main control operation interface of the nursing station computer, the doctor's note option regarding the operation interface of the patient A can be displayed as a light. Moreover, the music can be further played through a reminder device such as a speaker, thereby reminding the patient A to prepare early to save waiting time. In order to enhance the attention of the patient A, the reminding device may further include a prompt light in addition to the speaker, and the warning light is set at an obvious position and lights up to attract the attention of the patient A. The term "photograph" refers to any medical and nursing activities, such as dispensing medicine, visiting doctors, and treatment.

In summary, the above-mentioned monitoring system can improve medical operations, and errors caused by human inadvertence in the medical operation process can be made transparent by electronically changing the state of all steps in the operation process, so relevant execution and management personnel Can be quickly Get relevant information. In addition, the above-mentioned Internet of Things technology can effectively handle various management issues, especially the quality management can be comprehensively and immediately monitored and controlled. And the use of low-power Bluetooth module combined with Heterogeneous network communication technology to become the IoT medical cloud, can reduce the cost of the construction of the communication network, and easy to use without affecting the operation of hospital instruments.

The use of the above monitoring system includes at least the following advantages. 1. Service is immediate, and wearable monitoring devices can reduce the cost of care. 2. Medical disputes are reduced. 3. The medical staff can reduce the burden and have a happy work. 4, the hospital access control is strict, reducing the occurrence of small theft. 5, patients go to various departments to check, you can go and guide yourself, you can accurately control the efficiency of each department's visits, shorten the time of patient visits, increase the number of visits and circulation. 6. Significantly reduce medical negligence. Due to the use of the Internet of Things and NFC/RFID functions, it is possible to confirm the application of various services, so medical negligence is not easy to occur. 7, can be used as a robot's positioning system, can transport drugs, change clothes, paper medical records, food and so on. 8, can easily carry out clinical trials of various chronic disease drugs, increase hospital income, and may also reduce the cost of new drug development. 9. It is convenient to carry out clinical experiments of various medical methods, which can reduce the development cost of new medical methods. 10, the use of information technology can effectively simplify the process, improve the correctness of the data to reduce the error rate, can greatly improve the care quality of nursing staff, import Bluetooth / NFC operation process, wear wearable monitoring device after hospitalization, identification of relevant nursing staff The card also incorporates a Bluetooth module/NFC tag, which simplifies the identification process and records the person, time and affairs of the work, which can greatly improve the workflow.

Although the present invention has been disclosed above by way of example, it is not intended to limit the present. A new type, any person having ordinary knowledge in the technical field, can make some changes and refinements without departing from the spirit and scope of the present invention. Therefore, the scope of protection of the present invention is defined by the scope of the appended patent application. quasi.

110‧‧‧Cloud Server

120‧‧‧Communication network

130‧‧‧Wearing monitoring device

131‧‧‧Monitor communication module

132‧‧‧ device label

140‧‧‧Portable electronic devices

141‧‧‧Control terminal communication module

142‧‧‧Reading module

143‧‧‧Wireless communication module

Claims (14)

A monitoring system includes: a cloud server; a communication network comprising a plurality of positioning nodes and a gateway node, wherein the positioning nodes are respectively disposed on a plurality of fixed landmarks, and supports a first communication protocol, and the The gateway node supports the first communication protocol and a second communication protocol, respectively, communicating with the positioning nodes through the first communication protocol, and connecting to an internet network through the second communication protocol; a wearable monitoring device The method includes: a monitoring terminal communication module, supports the first communication protocol, uses the positioning nodes to perform a positioning procedure to obtain a location information, and transmits the location information to the cloud server through the communication network; and The device label records a user information; and a portable electronic device includes: a control terminal communication module, supports the first communication protocol, establishes a connection with the monitoring terminal communication module, and obtains the monitoring terminal communication mode a recognition information of the group; a reading module, reading the device tag to obtain the user information; and a wireless communication module supporting the second Agreement information, whereby the server is connected to the cloud, the cloud from the server to obtain the identification information corresponding to the location information. The monitoring system of claim 1, wherein each of the fixed landmarks is an electronic device of a lighting device or a household appliance or a built-in wireless communication module. The first communication protocol is one of a Bluetooth communication protocol, a group of bee communication protocols, and an ANT+ communication protocol, and the second communication protocol is a wireless fidelity communication protocol or a power line communication protocol. The monitoring system of claim 1, wherein the wearable monitoring device further comprises: a power supply module for supplying power to the wearable monitoring device; and a switch for controlling power supply of the power supply module; a display unit; and a microprocessor coupled to the display unit, wherein when receiving the path guidance information through the monitoring terminal communication module, the microprocessor displays the information according to the path and the location information A navigation message is displayed on the display unit. The monitoring system of claim 3, wherein the wearable monitoring device further comprises: an emergency button, when the emergency button is enabled, transmitting a distress signal to the cloud server or by using the communication network The portable electronic device; and a sound output unit that outputs an audio signal. The monitoring system of claim 1, wherein the portable electronic device further comprises: a processing unit, configured to execute an application, to transmit a notification signal to the wearable monitoring device through the application, and The application communicates with the cloud server; When the wearable monitoring device is not in a communication range of the first communication protocol of the portable electronic device, the portable electronic device transmits the application according to the identification information of the monitoring terminal communication module. The program sends the notification signal and transmits the notification signal to the cloud server via the communication network, and the cloud server transmits the notification signal to the wearable monitoring device according to the identification information via the communication network. The monitoring system of claim 5, wherein the notification signal includes a visit time or a visit notification. The monitoring system of claim 1, wherein the portable electronic device further comprises: a care label for recording a person information of the portable electronic device; and a label writing module for changing the wearable The content of the device label of the monitoring device, wherein the content includes at least one of a visit time, a medication time, a drug record, a bed transaction record, and a discharge record; wherein the portable electronic device is After changing the content of the device tag, the personnel information and the updated content are transmitted to the cloud server via the communication network. The monitoring system of claim 1, wherein the cloud server comprises: a drug database, storing a plurality of drug information, wherein the drug information comprises a pharmacological classification function, a medication description, and a drug image at least One of them; and a user database storing a medical record of each of the plurality of users, wherein the medical record includes a drug allergy information, a prescription information, and a medical information; wherein the cloud server receives the same from the portable electronic device When the user information of the wearable monitoring device is used, the user database is queried to obtain the medical record corresponding to the user information, and the medical record is transmitted to the portable electronic device through the communication network. The monitoring system of claim 1, further comprising: an object having an object label, wherein the object information is recorded, wherein the portable electronic device reads the object label through the reading module Obtaining the object information; wherein the portable electronic device transmits the user information and the object information to the cloud server via the wireless communication module, and the cloud server performs a comparison The program confirms the identity of a user of the wearable monitoring device and confirms whether the object conforms to the user's medical procedure. The monitoring system of claim 9, wherein the object is one of a medical device, a sample container and a drug packaging bag; the object tag is a radio frequency identification tag, a near field communication tag, and a bar code. one of them. The monitoring system of claim 1, further comprising: a sensing device having a pointing antenna disposed in a specific space; wherein the wearing device is in the specific space when the wearable monitoring device enters the specific space Detecting the monitoring terminal communication module of the wearable monitoring device and starting a gate management mechanism of the specific space. The monitoring system of claim 1, further comprising: a mobile care vehicle, configured with a host, the host includes a sensing module; wherein the sensing module detects within a sensing range The portable electronic device is less than the portable electronic device, so that an input unit of the host enters a locked mode. The monitoring system of claim 1, wherein the wearable monitoring device further comprises: a physiological monitoring module, detecting a physiological information of a user of the wearable monitoring device, and writing the physiological information And the device tag; wherein the portable electronic device uses the reading module to obtain the physiological information of the device tag. A medical monitoring system includes: a cloud server; a communication network comprising a plurality of positioning nodes and a gateway node, wherein the positioning nodes are respectively disposed on a plurality of fixed landmarks and support a first communication protocol, and The gateway node supports the first communication protocol and a second communication protocol, respectively, communicating with the positioning nodes through the first communication protocol, and connecting to an internet network through the second communication protocol; a wearable monitoring The device includes: a monitoring terminal communication module, supports the first communication protocol, and uses the nodes of the communication network to perform a positioning process to obtain a location information, and upload the location information to the cloud server through the communication network a device tag that records a user message; a physiological monitoring module detects a physiological information of a user of the wearable monitoring device and writes the physiological information to the device label; an object having an object label recording an object information; The portable electronic device includes: a control terminal communication module, supports the first communication protocol, and establishes a connection with the monitoring terminal communication module; a reading module reads the device tag to obtain the user information, and Reading the object tag to obtain the object information; and a wireless communication module, establishing a connection with the communication network, thereby connecting to the cloud server through the communication network, and obtaining the location information from the cloud server, and Transmitting the user information and the object information to the cloud server via the communication network, and the cloud server executes a comparison program to confirm the identity of the user of the wearable monitoring device and confirm the object Whether it meets the user's medical treatment process.