WO2017000296A1 - Temperature measurement device, central monitoring station, and temperature monitoring system and method therefor - Google Patents
Temperature measurement device, central monitoring station, and temperature monitoring system and method therefor Download PDFInfo
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- WO2017000296A1 WO2017000296A1 PCT/CN2015/083139 CN2015083139W WO2017000296A1 WO 2017000296 A1 WO2017000296 A1 WO 2017000296A1 CN 2015083139 W CN2015083139 W CN 2015083139W WO 2017000296 A1 WO2017000296 A1 WO 2017000296A1
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- temperature
- temperature measuring
- measuring device
- monitoring station
- central monitoring
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- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61B—DIAGNOSIS; SURGERY; IDENTIFICATION
- A61B5/00—Measuring for diagnostic purposes; Identification of persons
- A61B5/01—Measuring temperature of body parts ; Diagnostic temperature sensing, e.g. for malignant or inflamed tissue
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- G—PHYSICS
- G01—MEASURING; TESTING
- G01K—MEASURING TEMPERATURE; MEASURING QUANTITY OF HEAT; THERMALLY-SENSITIVE ELEMENTS NOT OTHERWISE PROVIDED FOR
- G01K11/00—Measuring temperature based upon physical or chemical changes not covered by groups G01K3/00, G01K5/00, G01K7/00 or G01K9/00
Definitions
- the invention relates to the technical field of temperature monitoring, in particular to a temperature measuring device, a central monitoring station, a temperature monitoring system and a method thereof.
- thermometer The effect of temperature on biology and the like is very large.
- the body temperature of a human body has a great influence on a patient's condition.
- the process of body temperature measurement is generally: an operator, such as a doctor, sends a thermometer to the patient, and then waits for a measurement result, and then the operator retrieves the thermometer, reads the body temperature value, and records the result.
- the used thermometer is recycled and reused.
- the hidden cost of reusing a thermometer is high. There is a risk of cross-infection in frequent contact between doctors and patients. At the same time, repeated use of thermometers between different patients is neither hygienic nor cross-infected.
- the technical problem to be solved by the present invention is to provide a temperature measuring device, a central monitoring station, a temperature monitoring system and a method thereof, which can automatically acquire the temperature of each object to be tested, and carry out the temperature of each object to be tested, such as the patient. Unified display for easy management.
- a technical solution adopted by the present invention is to provide a monitoring method for a temperature monitoring system, the monitoring method comprising: separately assigning a temperature measuring device to each object to be tested, so that each temperature measuring device The identification code identifies a corresponding object to be tested; the temperature of the object to be tested is measured by the temperature measuring device; the temperature measuring device transmits the temperature and the identification code to the central monitoring station; and the central monitoring station displays the temperature corresponding to each object to be tested.
- the step of measuring the temperature of the object to be tested by the temperature measuring device comprises: measuring the temperature of the object to be tested once every predetermined time by the temperature measuring device.
- the temperature measuring device and the central monitoring station form a mesh network
- the method further comprises: each temperature measuring device receiving data of the other temperature measuring device and further transmitting, so that the temperature measuring devices relay data to each other, the data includes temperature and An identification code;
- the step of transmitting the temperature and the identification code to the central monitoring station by the temperature measuring device comprises: each temperature measuring device transmitting the temperature and the identification code to other temperature measuring devices relayed with the temperature measuring device to pass other temperature measurement The device continues to transmit the temperature and identification code until it is transmitted to the central monitoring station.
- the data further includes a signal strength index
- the method further comprises: each temperature measuring device acquiring a signal strength index of the other temperature measuring device and further relaying the signal strength index to each other until being transmitted to the central monitoring station; the central monitoring station is The signal strength index is combined with a triangle algorithm to obtain the position of each temperature measuring device to locate the position of each object to be tested, wherein the magnitude of the signal strength index is related to the distance between the two temperature measuring devices that are relayed to each other.
- a temperature measuring device which includes: a temperature measuring module for measuring the temperature of an object to be tested; a storage module, and a temperature measuring module.
- the identification code is such that each object to be tested corresponds to an identification code; the transceiver module transmits the temperature and the identification code to the central monitoring station, and the central monitoring station displays the temperature corresponding to each object to be tested.
- the temperature measuring device and other temperature measuring devices and the central monitoring station form a mesh network, and the transceiver module further receives data of other temperature measuring devices and further transmits the data, so that the temperature measuring devices relay data to each other, and the data includes temperature and identification.
- the code wherein: the transceiver module transmits the temperature and the identification code to other temperature measuring devices relayed with the temperature measuring device to continue transmitting the temperature and the identification code through other temperature measuring devices until transmission to the central monitoring station.
- the data further includes a signal strength index
- the transceiver module further acquires the signal strength index of the other temperature measuring devices and relays the signal strength indexes to each other until transmission to the central monitoring station, so that the central monitoring station measures the temperature according to the signal strength index.
- the device is positioned, wherein the magnitude of the signal strength index is related to the distance of the two temperature measuring devices that are relayed to each other.
- a central monitoring station comprising: a transceiver module for receiving an identification code of a plurality of temperature measuring devices and a measured object to be tested The temperature, wherein the identification code of each temperature measuring device corresponds to an object to be tested; and the display module is configured to display a temperature corresponding to each object to be tested.
- the plurality of temperature measuring devices and the central monitoring station form a mesh network and relay data to each other;
- the transceiver module further receives a signal strength index between the two temperature measuring devices mutually relayed in the plurality of temperature measuring devices, wherein The magnitude of the signal strength index is related to the distance between the two temperature measuring devices that are relayed to each other;
- the central monitoring station further includes a processing module that acquires the position of each temperature measuring device according to the signal strength index and the triangle algorithm.
- a temperature monitoring system which includes a temperature measuring device and a central monitoring station, wherein the temperature measuring device includes:
- a temperature measuring module for measuring the temperature of an object to be tested
- a storage module configured to store an identification code of the temperature measurement module, so that each object to be tested corresponds to an identification code
- the first transceiver module transmits the temperature and the identification code to the central monitoring station, and the central monitoring station displays the temperature corresponding to each object to be tested;
- the central monitoring station includes:
- a second transceiver module configured to receive an identifier of the plurality of temperature measuring devices and a temperature of the object to be tested, wherein the identifier of each temperature measuring device corresponds to an object to be tested;
- a display module for displaying the temperature corresponding to each object to be tested.
- the temperature measuring device and the other temperature measuring device and the central monitoring station form a mesh network
- the first transceiver module further receives data of other temperature measuring devices and further transmits the data, so that the temperature measuring devices relay data to each other, and the data includes temperature And identification code, where:
- the first transceiver module transmits the temperature and identification code to other temperature measuring devices relayed with the temperature measuring device to continue transmitting the temperature and the identification code through other temperature measuring devices until transmission to the central monitoring station.
- the data further includes a signal strength index
- the first transceiver module further acquires a signal strength index of the other temperature measuring device and relays the signal strength index to each other until transmission to the central monitoring station, so that the central monitoring station according to the signal strength index
- the temperature measuring device performs positioning, wherein the magnitude of the signal strength index is related to the distance of the two temperature measuring devices that are relayed to each other.
- the plurality of temperature measuring devices and the central monitoring station form a mesh network, and relay data to each other;
- the second transceiver module further receives a signal strength index between two temperature measuring devices that are mutually relayed in the plurality of temperature measuring devices, wherein the magnitude of the signal strength index is related to the distance between the two temperature measuring devices that are mutually relayed;
- the central monitoring station further includes a processing module that acquires the position of each temperature measuring device according to a signal strength index in combination with a triangular algorithm.
- the invention has the beneficial effects that the temperature monitoring system of the present invention first assigns a temperature measuring device to each object to be tested, so that the identification code of each temperature measuring device identifies a corresponding waiting to be determined. The object is measured, and then the temperature of the object to be tested is measured by the temperature measuring device, and the temperature and the identification code are transmitted to the central monitoring station, and the central monitoring station displays the temperature corresponding to each object to be tested. Therefore, the present invention can automatically measure the temperature of the object to be tested by the temperature measuring device corresponding to the object to be tested, and when the body temperature of the human body is measured, the phenomenon that the user needs to perform the measurement by the user is avoided. The user experience can be improved; on the other hand, the central monitoring station uniformly displays the temperature of each object to be tested, which is convenient for management.
- FIG. 1 is a schematic structural diagram of a temperature monitoring system according to an embodiment of the present invention.
- FIG 2 is a schematic structural view of the temperature measuring device shown in Figure 1;
- FIG 3 is a schematic structural view of the central monitoring station shown in Figure 1;
- FIG. 4 is a schematic diagram showing the positioning of a temperature monitoring system according to an embodiment of the present invention.
- Figure 5 is a flow chart of a monitoring method of the temperature monitoring system.
- FIG. 1 is a schematic structural diagram of a temperature monitoring system according to an embodiment of the present invention.
- the temperature monitoring system 100 of the present invention includes a central monitoring station 50 and a plurality of temperature measuring devices, such as the temperature measuring devices 10, 20, 30, and 40 shown in FIG.
- FIG. 2 and FIG. 3 are structural diagrams of the temperature measuring device and the central monitoring station shown in FIG. 1, respectively.
- the structure of the temperature measuring device 10 shown in Fig. 1 of the present invention is illustrated in detail in Fig. 2 of the present invention.
- the temperature measuring device 10 includes a temperature measuring module 11, a storage module 12, and a transceiver module 13.
- the central monitoring station 50 includes a transceiver module 51 and a display module 52.
- the temperature measuring module 11 is configured to measure the temperature of an object to be tested.
- the storage module 12 stores the identification code of the temperature measuring module 11 such that each object to be tested corresponds to an identification code.
- the transceiver module 13 transmits the temperature and identification code to the central monitoring station 50.
- the transceiver module 51 of the central monitoring station 50 receives the identification code transmitted by the temperature measuring device 10 and the temperature of the object to be measured measured. It should be noted that the transceiver module 51 also receives the identification code and temperature transmitted by the other plurality of temperature measuring devices 20, 30, and 40.
- the display module 52 displays the temperature corresponding to each object to be tested.
- the present invention can automatically measure the temperature of the object to be tested by the temperature measuring device corresponding to the object to be tested, and the central monitoring station uniformly displays the temperature of each object to be tested, which is convenient for management.
- the temperature monitoring system 100 of the present embodiment can be applied to any occasion where temperature measurement is required, such as in a cold storage for food preservation, or in a hospital. If applied in a hospital, the temperature measuring device 10 can be attached to the patient, each patient corresponds to a temperature measuring device 10, and the temperature measuring device 10 is disposable, thus avoiding the crossover between the patients. The risk of infection. On the other hand, since the temperature measuring device 10 is directly disposed on the patient to measure the body temperature of the human body, the user does not need to operate the user personally, so that the user's experience can be improved.
- the temperature measuring device 10 and other temperature measuring devices 20, 30 and 40 and the central monitoring station 50 constitute a mesh network.
- the temperature monitoring system 100 is preferably applied in a mesh network.
- any wireless device node can simultaneously act as an AP (Access). Point, access point) and router, each node in the network can send and receive signals, and each node can directly communicate with one or more peer nodes. If the nearest AP is congested due to excessive traffic, the data can be automatically rerouted to a neighboring node with less traffic. And so on, the packet can continue to be routed to the next node closest to it according to the network, until it reaches the final destination. This allows multi-hop access.
- AP Access
- Point access point
- router each node in the network can send and receive signals, and each node can directly communicate with one or more peer nodes. If the nearest AP is congested due to excessive traffic, the data can be automatically rerouted to a neighboring node with less traffic. And so on, the packet can continue to be route
- the temperature measuring device 10 is a device that is provided on the basis of the Bluetooth chip and has a function of transmitting and measuring temperature. Therefore, the temperature monitoring system 100 of the embodiment of the present invention is specifically applied to a mesh network that transmits by Bluetooth.
- the temperature measuring device 10 and other temperature measuring devices 20, 30 and 40 and the central monitoring station 50 relay data to each other in the mesh network. As shown in FIG. 1, the temperature measuring device 10 is relayed with the temperature measuring devices 20, 30 and 40, respectively, and the temperature measuring device 20 is further relayed with the temperature measuring device 30, which in turn is associated with the temperature measuring device 40 and the center, respectively.
- the monitoring station 50 relays and the temperature measuring device 40 is in turn relayed with the central monitoring station 50. Since the temperature measuring device and the central monitoring station in the temperature monitoring system 100 relay data to each other, the temperature monitoring system 100 can transmit data using a low power wireless technology.
- the transceiver module 13 of the temperature measuring device 10 further receives data of other temperature measuring devices and further transmits the data, so that the temperature measuring devices relay data to each other.
- the temperature measuring device 10 further includes a processing module 14, and the processing module 14 performs corresponding processing on the data received by the transceiver module 13, for example, compressing the data received by the transceiver module 13 and its own data, and then The transceiver module 13 sends out.
- the data includes temperature and identification code.
- the transceiver module 13 transmits the temperature and identification code to other temperature measuring devices relayed with the temperature measuring device 10 to continue transmitting the temperature and identification code by other temperature measuring devices until transmission to the central monitoring station 50.
- the transceiver module 13 of the temperature measuring device 10 first transmits the identification code of the temperature measuring device 10 and its measured temperature to the temperature measuring devices 20, 30 and 40 that are mutually relayed with the temperature measuring device 10.
- the temperature measuring devices 20, 30 and 40 continue to transmit the temperature and identification code of the temperature measuring device 10 to other temperature measuring devices that are relayed to each other.
- the temperature measuring devices 30 and 40 and the central monitoring station 50 are mutually relayed. Therefore, the temperature measuring devices 30 and 40 also transmit the temperature and identification code of the temperature measuring device 10 to the central monitoring station 50.
- the temperature measuring devices 20, 30, and 40 also transmit the temperature and identification code measured by themselves when transmitting the temperature and the identification code of the temperature measuring device 10. Therefore, the central monitoring station 50 can receive the temperature and identification code of all of the temperature measuring devices 10, 20, 30, and 40.
- the central monitoring station 50 further processes each object to be tested and its temperature in addition to the temperature corresponding to each object to be tested through the display module 52.
- the central monitoring station 50 further includes a processing module 53.
- the processing module 53 analyzes the identifier and the temperature received by the transceiver module 51, and specifically includes the following analysis:
- the temperature threshold may be 37.5 degrees. If the processing module 53 finds that the body temperature of the patient to be tested is equal to or greater than the temperature threshold of 37.5 degrees, an alarm is given.
- the temperature threshold can also vary depending on the object to be tested. For example, in a hospital, patients with different conditions can set different temperature thresholds. For patients with severe disease or temperature affecting the disease, the corresponding temperature threshold can be set lower. On the contrary, the condition is lighter. Or the temperature threshold of the patient whose temperature has little effect on the condition can be set higher.
- the process of setting different temperature thresholds for different objects to be tested may be: first setting different temperature thresholds according to different objects to be tested, and then storing the temperature thresholds in the central detecting station 50, after receiving the temperature measuring device 10 When the identification code and temperature transmitted by the transceiver module 13 are compared, the temperature of the temperature measuring device is compared with its corresponding temperature threshold.
- the alarm of the embodiment can be audible alarm through an external speaker, or can be alarmed by means of discoloration or flickering of the externally connected lamp, and can also be alarmed by a special display of the display module 52, such as discoloration or zooming or jumping.
- the embodiment of the present invention does not limit the manner of alarming.
- the temperature measuring module 11 measures the temperature of the object to be tested once every predetermined time, that is, the temperature measuring device 11 periodically measures the temperature of the object to be tested, and the transceiver module 13 also periodically transmits the object. These temperatures are to the central monitoring station 50.
- the processing module 53 of the central monitoring station 50 arranges the received temperatures in chronological order to produce a temperature trend map corresponding to each object to be tested, and then displays it by the display module 52.
- the temperature trend graph for example, to analyze the rise and fall of the temperature in the temperature trend graph. If the rising or falling amplitude exceeds a preset rising threshold or falling threshold, the temperature is highlighted. It should be understood that the identification of the temperature rise and the identification of the temperature drop should be differentiated.
- the temperature trend graph can also be analyzed to form a medical body temperature unit.
- the present invention can transmit the temperature of each object to be tested through the mesh network, and then display and uniformly process the temperature of each object to be tested, which is convenient for management.
- the temperature monitoring system 100 of the present invention can greatly improve the user experience.
- the embodiment of the present invention further provides a solution for determining the position of the object to be tested, which is for managing the object to be tested, in particular A subject with mobility capability, such as a patient in a hospital, will provide great convenience, thereby improving management capabilities.
- a subject with mobility capability such as a patient in a hospital
- the data received by the temperature measuring device in this embodiment further includes a signal strength index.
- the transceiver module of the temperature measuring device further acquires the signal strength indexes of the other temperature measuring devices and relays the signal strength indexes to each other until being transmitted to the central monitoring station 50, so that the central monitoring station 50 according to the signal strength index to the temperature measuring device Positioning.
- the magnitude of the signal strength index is related to the distance between the two temperature measuring devices that are relayed to each other. If the distance is larger, the signal strength index is smaller, and vice versa.
- the signal strength index should refer to the signal strength between the two temperature measuring devices. As shown in FIG. 1, the signal intensity indices between the temperature measuring device 10 and the temperature measuring devices 20, 30, and 40 are I8, I5, and I6, respectively. The signal strength index between the temperature measuring devices 20 and 30 is I7, the signal strength indices between the temperature measuring device 30 and the temperature measuring device 40 and the central monitoring station 50 are I3 and I1, and the temperature measuring device 40 and the central monitoring station 50 The signal strength index is I2.
- the transceiver module 51 of the central monitoring station 50 receives the signal strength index between the two temperature measuring devices that are mutually relayed among the plurality of temperature measuring devices 10, 20, 30, and 40, and transmits the signal strength indices to the processing module. 53.
- the processing module 53 acquires the position of each temperature measuring device according to the signal strength index in combination with the triangle algorithm to locate the position of each object to be tested.
- FIG. 4 is a schematic diagram of the positioning of the temperature monitoring system 100 according to an embodiment of the present invention.
- the transceiver module 51 of the central monitoring station 50 receives a signal strength index between every two temperature measuring devices, such as I1, I2, I3, I5, I6, and I7 shown in FIG. I8.
- the processing module 53 calculates the corresponding distances of the signal strength indexes, and then obtains the distance between the adjacent two temperature measuring devices as shown in FIG. 4 or the temperature measuring device and the central monitoring station according to the triangle algorithm. D1, d2, d3, d5, d6, d7 and d8.
- the position of the central detecting station 50 and one of the temperature measuring devices, for example 40, in the temperature monitoring system 100 is first determined.
- the central monitoring station 50 is the origin of the coordinate system, and its coordinates are ( 0, 0)
- the coordinate position of the temperature measuring device 40 is obtained at the same time, for example, (x1, y1).
- the coordinate position of the temperature measuring device 30 can be derived, for example, (x2, y2).
- the coordinate positions of the temperature measuring devices 10 and 20 can be calculated.
- the actual position is corresponding to the coordinate system, and the actual positions of the temperature measuring devices 10, 20, 30, and 40 can be known based on the corresponding relationship.
- each temperature measuring device is correspondingly disposed on an object to be tested
- the embodiment of the present invention can know the actual position of the object to be tested. Therefore, when the temperature of the object to be tested is abnormal, the position of the object to be tested is provided in time, which facilitates the processing of the object to be tested. For example, in a hospital, if a patient's temperature is significantly increased or decreased, the patient can be quickly found to treat it, thereby greatly ensuring the therapeutic effect.
- the data sent by the embodiment of the present invention further includes a key. That is, each temperature measuring device further receives a corresponding key for decrypting the encrypted data information in addition to the temperature, identification code and signal strength index of the temperature measuring device that is relayed to each other.
- the key, the identification code, the temperature, and the signal strength index may be compressed and packaged and sent together.
- the embodiment of the present invention can identify different temperatures of objects to be tested, and can also locate different objects to be tested.
- FIG. 5 is a flowchart of a temperature monitoring method according to an embodiment of the present invention, and the method includes the following steps:
- Step S1 A temperature measuring device is respectively assigned to each object to be tested, so that the identification code of each temperature measuring device identifies a corresponding object to be tested.
- Step S2 The temperature of the object to be tested is measured by a temperature measuring device.
- the step is specifically: the temperature measuring device measures the temperature of the object to be tested once every predetermined time. Thereby, the temperature of the object to be tested can be comprehensively monitored.
- Step S3 The temperature measuring device transmits the temperature and the identification code to the central monitoring station.
- the plurality of temperature measuring devices and the central monitoring station form a mesh network, which is preferably a mesh network.
- the details are as described above, and are not described here.
- each temperature measuring device of the embodiment further receives data of other mutually relayed temperature measuring devices and further transmits the data, so that the temperature measuring devices relay data to each other, the data including temperature, identification code, and signal strength. Index and key data.
- the data can be packaged and compressed into data packets for transmission.
- each temperature measuring device transmits the temperature, the identification code, the signal strength index, and the data packet of the key to other temperature measuring devices that are mutually relayed to continue transmitting the data packet through other temperature measuring devices until Transfer to the central monitoring station.
- Step S4 The central monitoring station displays the temperature corresponding to each object to be tested.
- the step is specifically: the central monitoring station receives the data packet transmitted by the temperature measuring device, and displays and processes the data of the data packet. Specifically, the temperature of each object to be tested is displayed, and the analysis is performed according to the displayed temperature. The specific analysis process is as described above, and is not described here.
- the position of each temperature measuring device is obtained according to the signal strength index combined with the triangle algorithm, and each temperature measuring device is positioned to locate the position of each object to be tested.
- the magnitude of the signal strength index is related to the distance between the two temperature measuring devices that are relayed to each other. The specific positioning process is as described above, and will not be described here.
- the embodiment of the present invention can identify different temperatures of objects to be tested, and can also locate different objects to be tested.
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Abstract
A monitoring method for a temperature monitoring system. The monitoring method comprises: allocate a temperature measurement device (10, 20, 30, 40) to each to-be-measured object, so that an identification code of each temperature measurement device (10, 20, 30, 40) identifies a corresponding to-be-measured object; measure the temperature of the to-be-measured object by means of the temperature measurement device (10, 20, 30, 40); the temperature measurement device (10, 20, 30, 40) transmits the temperature and the identification code to the central monitoring station (50); and the central monitoring station (50) displays the temperature corresponding to each to-be-measured object. The temperatures of to-be-measured objects are automatically measured by means of the temperature measurement devices (10, 20, 30, 40) that are in a one-to-one correspondence with to the to-be-measured objects; in another aspect, the central monitoring station (50) displays the temperatures of all the to-be-measured objects in a unified manner, thereby facilitating the management. Also provided are a temperature measurement device, a central monitoring station, and a temperature monitoring system.
Description
【技术领域】[Technical Field]
本发明涉及温度监测技术领域,尤其是涉及一种温度测量装置、中央监测站、温度监测系统及其方法。The invention relates to the technical field of temperature monitoring, in particular to a temperature measuring device, a central monitoring station, a temperature monitoring system and a method thereof.
【背景技术】 【Background technique】
温度对生物等的影响是非常巨大的,例如在医院中,人体的体温对患者的病情影响非常大。目前体温测量的过程一般是:由操作者,例如医生发给患者体温计,然后等待获得一次测量结果,然后由操作者取回体温计,读取体温数值和记录结果。使用过的体温计经回收消毒后再重复使用。重复使用体温计需消毒的隐性成本很高。并且医患之间频繁接触存在交叉感染风险,同时,不同患者之间重复使用体温计既不卫生也存在交叉感染风险。进一步的,人工操作费事费力繁琐低效易出错。每次测体温时需要患者配合既不方便又打扰患者休息。更进一步的,体温数据无法连接到医院的其它信息系统,进行统一显示所有患者的温度。The effect of temperature on biology and the like is very large. For example, in a hospital, the body temperature of a human body has a great influence on a patient's condition. At present, the process of body temperature measurement is generally: an operator, such as a doctor, sends a thermometer to the patient, and then waits for a measurement result, and then the operator retrieves the thermometer, reads the body temperature value, and records the result. The used thermometer is recycled and reused. The hidden cost of reusing a thermometer is high. There is a risk of cross-infection in frequent contact between doctors and patients. At the same time, repeated use of thermometers between different patients is neither hygienic nor cross-infected. Further, manual operation is laborious, cumbersome, inefficient, and error-prone. It is neither convenient nor disturbing the patient's rest to take the patient's cooperation every time the body temperature is measured. Further, the body temperature data cannot be connected to other information systems in the hospital to uniformly display the temperature of all patients.
【发明内容】 [Summary of the Invention]
本发明主要解决的技术问题是提供一种温度测量装置、中央监测站、温度监测系统及其方法,能够自动获取每个待测对象的温度,并将每个待测对象,例如患者的温度进行统一显示,方便管理。The technical problem to be solved by the present invention is to provide a temperature measuring device, a central monitoring station, a temperature monitoring system and a method thereof, which can automatically acquire the temperature of each object to be tested, and carry out the temperature of each object to be tested, such as the patient. Unified display for easy management.
为解决上述技术问题,本发明采用的一个技术方案是:提供一种温度监测系统的监测方法,该监测方法包括:给每一待测对象分别分配一温度测量装置,以使每一温度测量装置的识别码标识一个对应的待测对象;通过温度测量装置测量待测对象的温度;温度测量装置将温度和识别码传输到中央监测站;中央监测站显示每个待测对象对应的温度。In order to solve the above technical problem, a technical solution adopted by the present invention is to provide a monitoring method for a temperature monitoring system, the monitoring method comprising: separately assigning a temperature measuring device to each object to be tested, so that each temperature measuring device The identification code identifies a corresponding object to be tested; the temperature of the object to be tested is measured by the temperature measuring device; the temperature measuring device transmits the temperature and the identification code to the central monitoring station; and the central monitoring station displays the temperature corresponding to each object to be tested.
其中,通过温度测量装置测量待测对象的温度的步骤包括:温度测量装置每个预定时间测量一次待测对象的温度。Wherein the step of measuring the temperature of the object to be tested by the temperature measuring device comprises: measuring the temperature of the object to be tested once every predetermined time by the temperature measuring device.
其中,温度测量装置以及中央监测站构成网状网络,方法进一步包括:每一温度测量装置接收其他温度测量装置的数据并进一步传输,使得温度测量装置之间互相中继传输数据,数据包括温度和识别码;温度测量装置将温度和识别码传输到中央监测站的步骤包括:每一温度测量装置将温度和识别码传输到与温度测量装置中继的其他温度测量装置中,以通过其他温度测量装置将温度和识别码继续传输,直到传输到中央监测站中。Wherein, the temperature measuring device and the central monitoring station form a mesh network, and the method further comprises: each temperature measuring device receiving data of the other temperature measuring device and further transmitting, so that the temperature measuring devices relay data to each other, the data includes temperature and An identification code; the step of transmitting the temperature and the identification code to the central monitoring station by the temperature measuring device comprises: each temperature measuring device transmitting the temperature and the identification code to other temperature measuring devices relayed with the temperature measuring device to pass other temperature measurement The device continues to transmit the temperature and identification code until it is transmitted to the central monitoring station.
其中,数据进一步包括信号强度指数,方法进一步包括:每一温度测量装置获取其他温度测量装置的信号强度指数并进一步将信号强度指数互相中继传输,直到传输到中央监测站中;中央监测站根据信号强度指数结合三角形算法获取每个温度测量装置的位置,以定位每个待测对象的位置,其中,信号强度指数的大小与互相中继的两温度测量装置的距离相关。Wherein, the data further includes a signal strength index, and the method further comprises: each temperature measuring device acquiring a signal strength index of the other temperature measuring device and further relaying the signal strength index to each other until being transmitted to the central monitoring station; the central monitoring station is The signal strength index is combined with a triangle algorithm to obtain the position of each temperature measuring device to locate the position of each object to be tested, wherein the magnitude of the signal strength index is related to the distance between the two temperature measuring devices that are relayed to each other.
为解决上述技术问题,本发明采用的另一个技术方案是:提供一种温度测量装置,该温度测量装置包括:温度测量模块,用于测量一待测对象的温度;存储模块,存储温度测量模块的识别码,使得每个待测对象对应一个识别码;收发模块,将温度和识别码传输到中央监测站,由中央监测站显示每个待测对象对应的温度。In order to solve the above technical problem, another technical solution adopted by the present invention is to provide a temperature measuring device, which includes: a temperature measuring module for measuring the temperature of an object to be tested; a storage module, and a temperature measuring module. The identification code is such that each object to be tested corresponds to an identification code; the transceiver module transmits the temperature and the identification code to the central monitoring station, and the central monitoring station displays the temperature corresponding to each object to be tested.
其中,温度测量装置和其他温度测量装置以及中央监测站构成网状网络,收发模块进一步接收其他温度测量装置的数据并进一步传输,使得温度测量装置之间互相中继传输数据,数据包括温度和识别码,其中:收发模块将温度和识别码传输到与温度测量装置中继的其他温度测量装置中,以通过其他温度测量装置将温度和识别码继续传输,直到传输到中央监测站。The temperature measuring device and other temperature measuring devices and the central monitoring station form a mesh network, and the transceiver module further receives data of other temperature measuring devices and further transmits the data, so that the temperature measuring devices relay data to each other, and the data includes temperature and identification. The code, wherein: the transceiver module transmits the temperature and the identification code to other temperature measuring devices relayed with the temperature measuring device to continue transmitting the temperature and the identification code through other temperature measuring devices until transmission to the central monitoring station.
其中,数据进一步包括信号强度指数,收发模块进一步获取其他温度测量装置的信号强度指数并将信号强度指数互相中继传输,直到传输到中央监测站中,使得中央监测站根据信号强度指数对温度测量装置进行定位,其中,信号强度指数的大小与互相中继的两温度测量装置的距离相关。The data further includes a signal strength index, and the transceiver module further acquires the signal strength index of the other temperature measuring devices and relays the signal strength indexes to each other until transmission to the central monitoring station, so that the central monitoring station measures the temperature according to the signal strength index. The device is positioned, wherein the magnitude of the signal strength index is related to the distance of the two temperature measuring devices that are relayed to each other.
为解决上述技术问题,本发明采用的又一个技术方案是:提供一种中央监测站,该中央监测站包括:收发模块,用于接收多个温度测量装置的识别码和其测量的待测对象的温度,其中,每一温度测量装置的识别码和一待测对象对应;显示模块,用于显示每个待测对象对应的温度。In order to solve the above technical problem, another technical solution adopted by the present invention is to provide a central monitoring station, the central monitoring station comprising: a transceiver module for receiving an identification code of a plurality of temperature measuring devices and a measured object to be tested The temperature, wherein the identification code of each temperature measuring device corresponds to an object to be tested; and the display module is configured to display a temperature corresponding to each object to be tested.
其中,多个温度测量装置以及中央监测站构成网状网络,并互相中继传输数据;收发模块进一步接收多个温度测量装置中互相中继的两个温度测量装置之间的信号强度指数,其中,信号强度指数的大小与互相中继的两温度测量装置的距离相关;中央监测站进一步包括处理模块,处理模块根据信号强度指数结合三角形算法获取每个温度测量装置的位置。Wherein, the plurality of temperature measuring devices and the central monitoring station form a mesh network and relay data to each other; the transceiver module further receives a signal strength index between the two temperature measuring devices mutually relayed in the plurality of temperature measuring devices, wherein The magnitude of the signal strength index is related to the distance between the two temperature measuring devices that are relayed to each other; the central monitoring station further includes a processing module that acquires the position of each temperature measuring device according to the signal strength index and the triangle algorithm.
为解决上述技术问题,本发明采用的又一个技术方案是:提供一种温度监测系统,该温度监测系统包括温度测量装置和中央监测站,其中,温度测量装置包括:In order to solve the above technical problem, another technical solution adopted by the present invention is to provide a temperature monitoring system, which includes a temperature measuring device and a central monitoring station, wherein the temperature measuring device includes:
温度测量模块,用于测量一待测对象的温度;a temperature measuring module for measuring the temperature of an object to be tested;
存储模块,存储温度测量模块的识别码,使得每个待测对象对应一个识别码;a storage module, configured to store an identification code of the temperature measurement module, so that each object to be tested corresponds to an identification code;
第一收发模块,将温度和识别码传输到中央监测站,由中央监测站显示每个待测对象对应的温度;The first transceiver module transmits the temperature and the identification code to the central monitoring station, and the central monitoring station displays the temperature corresponding to each object to be tested;
中央监测站包括:The central monitoring station includes:
第二收发模块,用于接收多个温度测量装置的识别码和其测量的待测对象的温度,其中,每一温度测量装置的识别码和一待测对象对应;a second transceiver module, configured to receive an identifier of the plurality of temperature measuring devices and a temperature of the object to be tested, wherein the identifier of each temperature measuring device corresponds to an object to be tested;
显示模块,用于显示每个待测对象对应的温度。A display module for displaying the temperature corresponding to each object to be tested.
其中,温度测量装置和其他温度测量装置以及中央监测站构成网状网络,第一收发模块进一步接收其他温度测量装置的数据并进一步传输,使得温度测量装置之间互相中继传输数据,数据包括温度和识别码,其中:Wherein, the temperature measuring device and the other temperature measuring device and the central monitoring station form a mesh network, and the first transceiver module further receives data of other temperature measuring devices and further transmits the data, so that the temperature measuring devices relay data to each other, and the data includes temperature And identification code, where:
第一收发模块将温度和识别码传输到与温度测量装置中继的其他温度测量装置中,以通过其他温度测量装置将温度和识别码继续传输,直到传输到中央监测站。The first transceiver module transmits the temperature and identification code to other temperature measuring devices relayed with the temperature measuring device to continue transmitting the temperature and the identification code through other temperature measuring devices until transmission to the central monitoring station.
其中,数据进一步包括信号强度指数,第一收发模块进一步获取其他温度测量装置的信号强度指数并将信号强度指数互相中继传输,直到传输到中央监测站中,使得中央监测站根据信号强度指数对温度测量装置进行定位,其中,信号强度指数的大小与互相中继的两温度测量装置的距离相关。The data further includes a signal strength index, and the first transceiver module further acquires a signal strength index of the other temperature measuring device and relays the signal strength index to each other until transmission to the central monitoring station, so that the central monitoring station according to the signal strength index The temperature measuring device performs positioning, wherein the magnitude of the signal strength index is related to the distance of the two temperature measuring devices that are relayed to each other.
其中,多个温度测量装置以及中央监测站构成网状网络,并互相中继传输数据;Wherein, the plurality of temperature measuring devices and the central monitoring station form a mesh network, and relay data to each other;
第二收发模块进一步接收多个温度测量装置中互相中继的两个温度测量装置之间的信号强度指数,其中,信号强度指数的大小与互相中继的两温度测量装置的距离相关;The second transceiver module further receives a signal strength index between two temperature measuring devices that are mutually relayed in the plurality of temperature measuring devices, wherein the magnitude of the signal strength index is related to the distance between the two temperature measuring devices that are mutually relayed;
中央监测站进一步包括处理模块,处理模块根据信号强度指数结合三角形算法获取每个温度测量装置的位置。The central monitoring station further includes a processing module that acquires the position of each temperature measuring device according to a signal strength index in combination with a triangular algorithm.
本发明的有益效果是:区别于现有技术的情况,本发明的温度监测系统首先给每一待测对象分别分配一温度测量装置,以使每一温度测量装置的识别码标识一个对应的待测对象,然后通过温度测量装置测量待测对象的温度,并将温度和识别码传输到中央监测站,中央监测站显示每个待测对象对应的温度。因此,本发明可以通过与待测对象一一对应的温度测量装置自动测量待测对象的温度,当测量的是人体的体温时,避免了现有技术的需要用户自己操作进行测量的现象,因此可以提高用户的体验;另一方面,中央监测站对每个待测对象的温度统一显示,方便管理。The invention has the beneficial effects that the temperature monitoring system of the present invention first assigns a temperature measuring device to each object to be tested, so that the identification code of each temperature measuring device identifies a corresponding waiting to be determined. The object is measured, and then the temperature of the object to be tested is measured by the temperature measuring device, and the temperature and the identification code are transmitted to the central monitoring station, and the central monitoring station displays the temperature corresponding to each object to be tested. Therefore, the present invention can automatically measure the temperature of the object to be tested by the temperature measuring device corresponding to the object to be tested, and when the body temperature of the human body is measured, the phenomenon that the user needs to perform the measurement by the user is avoided. The user experience can be improved; on the other hand, the central monitoring station uniformly displays the temperature of each object to be tested, which is convenient for management.
【附图说明】 [Description of the Drawings]
图1是本发明实施例提供的一种温度监测系统的结构示意图;1 is a schematic structural diagram of a temperature monitoring system according to an embodiment of the present invention;
图2是图1所示的温度测量装置的结构示意图;Figure 2 is a schematic structural view of the temperature measuring device shown in Figure 1;
图3是图1所示的中央监测站的结构示意图;Figure 3 is a schematic structural view of the central monitoring station shown in Figure 1;
图4是本发明实施例的温度监测系统的定位原理图;4 is a schematic diagram showing the positioning of a temperature monitoring system according to an embodiment of the present invention;
图5是温度监测系统的监测方法的流程图。Figure 5 is a flow chart of a monitoring method of the temperature monitoring system.
【具体实施方式】【detailed description】
请参阅图1,图1是本发明实施例提供的一种温度监测系统的结构示意图。如图1所示,本发明的温度监测系统100包括中央监测站50和多个温度测量装置,例如图1所示的温度测量装置10、20、30以及40。Please refer to FIG. 1. FIG. 1 is a schematic structural diagram of a temperature monitoring system according to an embodiment of the present invention. As shown in FIG. 1, the temperature monitoring system 100 of the present invention includes a central monitoring station 50 and a plurality of temperature measuring devices, such as the temperature measuring devices 10, 20, 30, and 40 shown in FIG.
请参阅图2和图3所示,图2和图3分别是图1所示的温度测量装置和中央监测站的结构示意图。其中,由于多个温度测量装置的结构都相同,由此本发明的图2举例图1所示的温度测量装置10的结构进行详述。Referring to FIG. 2 and FIG. 3, FIG. 2 and FIG. 3 are structural diagrams of the temperature measuring device and the central monitoring station shown in FIG. 1, respectively. Here, since the structures of the plurality of temperature measuring devices are the same, the structure of the temperature measuring device 10 shown in Fig. 1 of the present invention is illustrated in detail in Fig. 2 of the present invention.
如图2和图3所示,温度测量装置10包括温度测量模块11、存储模块12以及收发模块13。中央监测站50包括收发模块51和显示模块52。As shown in FIGS. 2 and 3, the temperature measuring device 10 includes a temperature measuring module 11, a storage module 12, and a transceiver module 13. The central monitoring station 50 includes a transceiver module 51 and a display module 52.
其中,温度测量模块11用于测量一待测对象的温度。存储模块12存储温度测量模块11的识别码,使得每个待测对象对应一个识别码。收发模块13将温度和识别码传输到中央监测站50。The temperature measuring module 11 is configured to measure the temperature of an object to be tested. The storage module 12 stores the identification code of the temperature measuring module 11 such that each object to be tested corresponds to an identification code. The transceiver module 13 transmits the temperature and identification code to the central monitoring station 50.
中央监测站50的收发模块51接收温度测量装置10发送的识别码和其测量的待测对象的温度。值得注意的是,收发模块51还接收其他的多个温度测量装置20、30以及40发送的识别码和温度。显示模块52显示每个待测对象对应的温度。The transceiver module 51 of the central monitoring station 50 receives the identification code transmitted by the temperature measuring device 10 and the temperature of the object to be measured measured. It should be noted that the transceiver module 51 also receives the identification code and temperature transmitted by the other plurality of temperature measuring devices 20, 30, and 40. The display module 52 displays the temperature corresponding to each object to be tested.
因此,本发明可以通过与待测对象一一对应的温度测量装置自动测量待测对象的温度,中央监测站对每个待测对象的温度统一显示,方便管理。本实施例的温度监测系统100可以应用在任何需要测量温度的场合,例如应用在食物保鲜的冷库中,或者应用在医院中。若应用在医院时,温度测量装置10可以粘贴在患者的身上,每个病人对应一个温度测量装置10,并且温度测量装置10是一次性的,这样就避免了患者之间交叉使用而存在的交叉感染的风险。另一方面,由于温度测量装置10直接设置在患者身上测量人体的体温,测量时不需要用户亲自操作,因此可以提高用户的体验。Therefore, the present invention can automatically measure the temperature of the object to be tested by the temperature measuring device corresponding to the object to be tested, and the central monitoring station uniformly displays the temperature of each object to be tested, which is convenient for management. The temperature monitoring system 100 of the present embodiment can be applied to any occasion where temperature measurement is required, such as in a cold storage for food preservation, or in a hospital. If applied in a hospital, the temperature measuring device 10 can be attached to the patient, each patient corresponds to a temperature measuring device 10, and the temperature measuring device 10 is disposable, thus avoiding the crossover between the patients. The risk of infection. On the other hand, since the temperature measuring device 10 is directly disposed on the patient to measure the body temperature of the human body, the user does not need to operate the user personally, so that the user's experience can be improved.
本实施例中,温度测量装置10和其他温度测量装置20、30和40以及中央监测站50构成网状网络。温度监测系统100优选应用在mesh网络中。在mesh网络中,任何无线设备节点都可以同时作为AP(Access
Point,接入点)和路由器,网络中的每个节点都可以发送和接收信号,每个节点都可以与一个或者多个对等节点进行直接通信。如果最近的AP由于流量过大而导致拥塞的话,那么数据可以自动重新路由到一个通信流量较小的邻近节点进行传输。依此类推,数据包还可以根据网络的情况,继续路由到与之最近的下一个节点进行传输,直到到达最终目的地为止。这样即可实现多跳访问。In the present embodiment, the temperature measuring device 10 and other temperature measuring devices 20, 30 and 40 and the central monitoring station 50 constitute a mesh network. The temperature monitoring system 100 is preferably applied in a mesh network. In a mesh network, any wireless device node can simultaneously act as an AP (Access).
Point, access point) and router, each node in the network can send and receive signals, and each node can directly communicate with one or more peer nodes. If the nearest AP is congested due to excessive traffic, the data can be automatically rerouted to a neighboring node with less traffic. And so on, the packet can continue to be routed to the next node closest to it according to the network, until it reaches the final destination. This allows multi-hop access.
其中,温度测量装置10是为蓝牙芯片为基础设置的同时具有发送功能和测量温度功能的装置,因此本发明实施例的温度监测系统100具体是应用在以蓝牙进行传输的mesh网络中。温度测量装置10和其他温度测量装置20、30和40以及中央监测站50在mesh网络中相互中继传输数据。如图1所示,温度测量装置10分别与温度测量装置20、30和40中继,温度测量装置20又进一步与温度测量装置30中继,温度测量装置30又分别与温度测量装置40以及中央监测站50中继,温度测量装置40又与中央监测站50中继。由于温度监测系统100中的温度测量装置和中央监测站互相中继传输数据,使得温度监测系统100可以低功耗的无线技术来传输数据。The temperature measuring device 10 is a device that is provided on the basis of the Bluetooth chip and has a function of transmitting and measuring temperature. Therefore, the temperature monitoring system 100 of the embodiment of the present invention is specifically applied to a mesh network that transmits by Bluetooth. The temperature measuring device 10 and other temperature measuring devices 20, 30 and 40 and the central monitoring station 50 relay data to each other in the mesh network. As shown in FIG. 1, the temperature measuring device 10 is relayed with the temperature measuring devices 20, 30 and 40, respectively, and the temperature measuring device 20 is further relayed with the temperature measuring device 30, which in turn is associated with the temperature measuring device 40 and the center, respectively. The monitoring station 50 relays and the temperature measuring device 40 is in turn relayed with the central monitoring station 50. Since the temperature measuring device and the central monitoring station in the temperature monitoring system 100 relay data to each other, the temperature monitoring system 100 can transmit data using a low power wireless technology.
温度测量装置10的收发模块13进一步接收其他温度测量装置的数据并进一步传输,使得温度测量装置之间互相中继传输数据。具体地,温度测量装置10还包括处理模块14,处理模块14将收发模块13接收到的数据进行相应的处理,例如,将收发模块13接收到的数据和自身的数据进行压缩处理,然后再由收发模块13发送出去。其中,数据包括温度和识别码。收发模块13将温度和识别码传输到与温度测量装置10中继的其他温度测量装置中,以通过其他温度测量装置将温度和识别码继续传输,直到传输到中央监测站50。The transceiver module 13 of the temperature measuring device 10 further receives data of other temperature measuring devices and further transmits the data, so that the temperature measuring devices relay data to each other. Specifically, the temperature measuring device 10 further includes a processing module 14, and the processing module 14 performs corresponding processing on the data received by the transceiver module 13, for example, compressing the data received by the transceiver module 13 and its own data, and then The transceiver module 13 sends out. Among them, the data includes temperature and identification code. The transceiver module 13 transmits the temperature and identification code to other temperature measuring devices relayed with the temperature measuring device 10 to continue transmitting the temperature and identification code by other temperature measuring devices until transmission to the central monitoring station 50.
如图1所示,温度测量装置10的收发模块13首先将温度测量装置10的识别码和其测得的温度发送到与温度测量装置10互相中继的温度测量装置20、30和40中。温度测量装置20、30和40继续将温度测量装置10的温度和识别码发送到与其互相中继的其他温度测量装置中。如图1所示,温度测量装置30和40与中央监测站50互相中继,因此,温度测量装置30和40也会将温度测量装置10的温度和识别码发送到中央监测站50中。值得注意的是,温度测量装置20、30和40在发送温度测量装置10的温度和识别码时,也会将自身测量得到的温度和识别码发送出去。因此,中央监测站50能接收到所有温度测量装置10、20、30以及40的温度和识别码。As shown in FIG. 1, the transceiver module 13 of the temperature measuring device 10 first transmits the identification code of the temperature measuring device 10 and its measured temperature to the temperature measuring devices 20, 30 and 40 that are mutually relayed with the temperature measuring device 10. The temperature measuring devices 20, 30 and 40 continue to transmit the temperature and identification code of the temperature measuring device 10 to other temperature measuring devices that are relayed to each other. As shown in FIG. 1, the temperature measuring devices 30 and 40 and the central monitoring station 50 are mutually relayed. Therefore, the temperature measuring devices 30 and 40 also transmit the temperature and identification code of the temperature measuring device 10 to the central monitoring station 50. It is to be noted that the temperature measuring devices 20, 30, and 40 also transmit the temperature and identification code measured by themselves when transmitting the temperature and the identification code of the temperature measuring device 10. Therefore, the central monitoring station 50 can receive the temperature and identification code of all of the temperature measuring devices 10, 20, 30, and 40.
中央监测站50除了通过显示模块52显示每个待测对象对应的温度之外,还进一步对每个待测对象和其温度进行处理。具体的,中央监测站50进一步包括处理模块53。处理模块53将收发模块51接收到的识别码和温度进行分析,具体包括以下几种分析:The central monitoring station 50 further processes each object to be tested and its temperature in addition to the temperature corresponding to each object to be tested through the display module 52. Specifically, the central monitoring station 50 further includes a processing module 53. The processing module 53 analyzes the identifier and the temperature received by the transceiver module 51, and specifically includes the following analysis:
第一种:分析温度是否超出预设的温度阈值,并在超出预设的阈值时进行报警提醒。例如,若温度监测系统100应用于医院当中,测量的温度为人体的体温,则温度阈值可以为37.5度。若处理模块53发现待测的患者的体温等于或大于温度阈值37.5度,则进行报警提醒。温度阈值还可以根据不同的待测对象而不同。例如,在医院中,不同的病情的患者可以设置不同的温度阈值,病情较重的或温度对病情影响很大的患者,其对应的温度阈值可以设置得较低,相反的,病情较轻的或温度对病情影响不大的患者,其对应的温度阈值可以设置得较高。First: Analyze whether the temperature exceeds the preset temperature threshold and alert you when the preset threshold is exceeded. For example, if the temperature monitoring system 100 is used in a hospital and the measured temperature is the body temperature of the human body, the temperature threshold may be 37.5 degrees. If the processing module 53 finds that the body temperature of the patient to be tested is equal to or greater than the temperature threshold of 37.5 degrees, an alarm is given. The temperature threshold can also vary depending on the object to be tested. For example, in a hospital, patients with different conditions can set different temperature thresholds. For patients with severe disease or temperature affecting the disease, the corresponding temperature threshold can be set lower. On the contrary, the condition is lighter. Or the temperature threshold of the patient whose temperature has little effect on the condition can be set higher.
其中,不同的待测对象设置不同温度阈值的过程可以为:首先根据不同的待测对象设置不同的温度阈值,然后将该温度阈值存储在中央检测站50当中,在接收到温度测量装置10的收发模块13发送的识别码和温度时,将温度测量装置的温度和其对应的温度阈值进行比较。The process of setting different temperature thresholds for different objects to be tested may be: first setting different temperature thresholds according to different objects to be tested, and then storing the temperature thresholds in the central detecting station 50, after receiving the temperature measuring device 10 When the identification code and temperature transmitted by the transceiver module 13 are compared, the temperature of the temperature measuring device is compared with its corresponding temperature threshold.
本实施例的报警可以通过外部扬声器进行声音报警,也可以通过外部连接的灯的变色或闪烁等方式进行报警,还可以通过显示模块52的特殊显示,例如变色或缩放或跳动等方式进行报警。本发明实施例不对报警的方式进行限制。The alarm of the embodiment can be audible alarm through an external speaker, or can be alarmed by means of discoloration or flickering of the externally connected lamp, and can also be alarmed by a special display of the display module 52, such as discoloration or zooming or jumping. The embodiment of the present invention does not limit the manner of alarming.
第二种:分析每个待测对象的多个温度。在该种方式中,每个预定时间,温度测量模块11就测量一次待测对象的温度,即温度测量装置11周期性的测量待测对象的温度,并且收发模块13也同样周期性的发送该些温度到中央监测站50。中央监测站50的处理模块53对接收到的温度按照时间顺序进行排列,制作出每个待测对象对应的温度趋势图,然后由显示模块52显示出来。Second: Analyze multiple temperatures of each object to be tested. In this manner, the temperature measuring module 11 measures the temperature of the object to be tested once every predetermined time, that is, the temperature measuring device 11 periodically measures the temperature of the object to be tested, and the transceiver module 13 also periodically transmits the object. These temperatures are to the central monitoring station 50. The processing module 53 of the central monitoring station 50 arranges the received temperatures in chronological order to produce a temperature trend map corresponding to each object to be tested, and then displays it by the display module 52.
进一步的,还可以对温度趋势图进行分析,例如分析温度趋势图中的温度的上升和下降情况。若上升幅度或下降幅度超过预设的上升阈值或下降阈值,则对该温度进行一突出的标识。应理解,温度上升的标识和温度下降的标识应该有所区分。Further, it is also possible to analyze the temperature trend graph, for example, to analyze the rise and fall of the temperature in the temperature trend graph. If the rising or falling amplitude exceeds a preset rising threshold or falling threshold, the temperature is highlighted. It should be understood that the identification of the temperature rise and the identification of the temperature drop should be differentiated.
进一步的,还可以对温度趋势图进行分析,以形成医疗体温单等。Further, the temperature trend graph can also be analyzed to form a medical body temperature unit.
因此,本发明可以通过mesh网络对每一个待测对象的温度进行传输,然后对每个待测对象的温度进行显示和统一处理,方便管理。特别是在医院这种待测对象为人,其可以移动的个体来说,本发明的温度监测系统100能够大大的提高用户的体验。Therefore, the present invention can transmit the temperature of each object to be tested through the mesh network, and then display and uniformly process the temperature of each object to be tested, which is convenient for management. Especially in the hospital where the object to be tested is a person, and the individual who can move, the temperature monitoring system 100 of the present invention can greatly improve the user experience.
进一步的,为了在获取了待测对象的温度后,根据温度对待测对象进行进一步的管理,本发明实施例还提供了一种确定待测对象位置的方案,这对于管理待测对象,特别是具有移动能力的待测对象,例如医院中的患者来说将提供很大的便利,从而提高了管理能力。具体定位过程将在下文进行详述。Further, in order to further manage the object to be tested according to the temperature after the temperature of the object to be tested is obtained, the embodiment of the present invention further provides a solution for determining the position of the object to be tested, which is for managing the object to be tested, in particular A subject with mobility capability, such as a patient in a hospital, will provide great convenience, thereby improving management capabilities. The specific positioning process will be detailed below.
本实施中的温度测量装置接收到的数据还包括信号强度指数。具体的,温度测量装置的收发模块进一步获取其他温度测量装置的信号强度指数并将信号强度指数互相中继传输直到传输到中央监测站50中,使得中央监测站50根据信号强度指数对温度测量装置进行定位。其中,信号强度指数的大小与互相中继的两温度测量装置的距离相关。如该距离越大,信号强度指数就越小,反之亦然。The data received by the temperature measuring device in this embodiment further includes a signal strength index. Specifically, the transceiver module of the temperature measuring device further acquires the signal strength indexes of the other temperature measuring devices and relays the signal strength indexes to each other until being transmitted to the central monitoring station 50, so that the central monitoring station 50 according to the signal strength index to the temperature measuring device Positioning. Wherein, the magnitude of the signal strength index is related to the distance between the two temperature measuring devices that are relayed to each other. If the distance is larger, the signal strength index is smaller, and vice versa.
应理解,信号强度指数应该是指两温度测量装置之间的信号强度。如图1所示,温度测量装置10和温度测量装置20、30以及40之间的信号强度指数分别为I8、I5以及I6。温度测量装置20和30之间的信号强度指数为I7,温度测量装置30分别与温度测量装置40和中央监测站50之间的信号强度指数为I3和I1,温度测量装置40与中央监测站50的信号强度指数为I2。It should be understood that the signal strength index should refer to the signal strength between the two temperature measuring devices. As shown in FIG. 1, the signal intensity indices between the temperature measuring device 10 and the temperature measuring devices 20, 30, and 40 are I8, I5, and I6, respectively. The signal strength index between the temperature measuring devices 20 and 30 is I7, the signal strength indices between the temperature measuring device 30 and the temperature measuring device 40 and the central monitoring station 50 are I3 and I1, and the temperature measuring device 40 and the central monitoring station 50 The signal strength index is I2.
中央监测站50的收发模块51接收到多个温度测量装置10、20、30以及40中互相中继的两个温度测量装置之间的信号强度指数后,将该些信号强度指数传输到处理模块53。处理模块53根据信号强度指数结合三角形算法获取每个温度测量装置的位置,以定位每个待测对象的位置。The transceiver module 51 of the central monitoring station 50 receives the signal strength index between the two temperature measuring devices that are mutually relayed among the plurality of temperature measuring devices 10, 20, 30, and 40, and transmits the signal strength indices to the processing module. 53. The processing module 53 acquires the position of each temperature measuring device according to the signal strength index in combination with the triangle algorithm to locate the position of each object to be tested.
本实施例将举例对处理模块53进行定位的过程进行介绍,具体举例待测对象是医院当中的患者。请参阅图1和图4,其中,图4是本发明实施例的温度监测系统100的定位原理图。如图1和图4所示,中央监测站50的收发模块51接收到每两个温度测量装置之间的信号强度指数,如图1所示的I1、I2、I3、I5、I6、I7以及I8。处理模块53将该些信号强度指数算出其对应的距离,然后根据三角形算法得到如图4所示的相邻的两个温度测量装置之间或者温度测量装置与中央监测站之间的距离分别为d1、d2、d3、d5、d6、d7以及d8。This embodiment describes an example of the process of positioning the processing module 53. Specifically, the object to be tested is a patient in a hospital. Please refer to FIG. 1 and FIG. 4, wherein FIG. 4 is a schematic diagram of the positioning of the temperature monitoring system 100 according to an embodiment of the present invention. As shown in FIG. 1 and FIG. 4, the transceiver module 51 of the central monitoring station 50 receives a signal strength index between every two temperature measuring devices, such as I1, I2, I3, I5, I6, and I7 shown in FIG. I8. The processing module 53 calculates the corresponding distances of the signal strength indexes, and then obtains the distance between the adjacent two temperature measuring devices as shown in FIG. 4 or the temperature measuring device and the central monitoring station according to the triangle algorithm. D1, d2, d3, d5, d6, d7 and d8.
本发明实施例中,首先确定温度监测系统100中的中央检测站50和其中一个温度测量装置,例如40的位置,例如图4所示,中央监测站50为坐标系的原点,其坐标为(0,0),同时获得温度测量装置40的坐标位置,例如为(x1,y1)。然后根据中央监测站50、温度测量装置40以及30的三角形关系,结合中央监测站50和温度测量装置40的坐标关系,可以推算出温度测量装置30的坐标位置,例如为(x2,y2)。依次类推,可以计算出温度测量装置10和20的坐标位置。在实际应用中,再将实际的位置与坐标系对应,则根据该对应关系即能获知温度测量装置10、20、30以及40的实际位置了。In the embodiment of the present invention, the position of the central detecting station 50 and one of the temperature measuring devices, for example 40, in the temperature monitoring system 100 is first determined. For example, as shown in FIG. 4, the central monitoring station 50 is the origin of the coordinate system, and its coordinates are ( 0, 0), the coordinate position of the temperature measuring device 40 is obtained at the same time, for example, (x1, y1). Then, based on the triangular relationship between the central monitoring station 50 and the temperature measuring devices 40 and 30, in conjunction with the coordinate relationship between the central monitoring station 50 and the temperature measuring device 40, the coordinate position of the temperature measuring device 30 can be derived, for example, (x2, y2). By analogy, the coordinate positions of the temperature measuring devices 10 and 20 can be calculated. In the actual application, the actual position is corresponding to the coordinate system, and the actual positions of the temperature measuring devices 10, 20, 30, and 40 can be known based on the corresponding relationship.
由于每个温度测量装置对应设置在一个待测对象上,因此本发明实施例可以知道待测对象的实际位置。由此可以在待测对象的温度发生异常时,及时提供待测对象的位置,给后续的对待测对象的处理工作提供了便利。例如在医院当中,如发现某一患者的温度出现较大幅度的升高或降低,则可以快速找到该患者,以对其进行治疗,由此可以极大的保证了治疗的效果。Since each temperature measuring device is correspondingly disposed on an object to be tested, the embodiment of the present invention can know the actual position of the object to be tested. Therefore, when the temperature of the object to be tested is abnormal, the position of the object to be tested is provided in time, which facilitates the processing of the object to be tested. For example, in a hospital, if a patient's temperature is significantly increased or decreased, the patient can be quickly found to treat it, thereby greatly ensuring the therapeutic effect.
进一步的,本发明实施例发送的数据还包括密匙。即每个温度测量装置在接收到与其互相中继的温度测量装置的温度、识别码和信号强度指数外,还进一步接收到对应的密匙,用于对加密的数据信息解密。优选的,本发明实施例可以将密匙、识别码、温度和信号强度指数进行压缩打包后一起发送。Further, the data sent by the embodiment of the present invention further includes a key. That is, each temperature measuring device further receives a corresponding key for decrypting the encrypted data information in addition to the temperature, identification code and signal strength index of the temperature measuring device that is relayed to each other. Preferably, in the embodiment of the present invention, the key, the identification code, the temperature, and the signal strength index may be compressed and packaged and sent together.
承前所述,本发明实施例既可以识别不同的待测对象的温度,也可以对不同的待测对象进行定位。As described above, the embodiment of the present invention can identify different temperatures of objects to be tested, and can also locate different objects to be tested.
本发明实施例还提供了一种温度监测系统的监测方法,该方法应用在前文所述的温度监测系统100上。请参阅图5所示,图5是本发明实施例的温度监测方法的流程图,该方法包括以下步骤:The embodiment of the invention also provides a monitoring method of the temperature monitoring system, which is applied to the temperature monitoring system 100 described above. Referring to FIG. 5, FIG. 5 is a flowchart of a temperature monitoring method according to an embodiment of the present invention, and the method includes the following steps:
步骤S1:给每一待测对象分别分配一温度测量装置,以使每一温度测量装置的识别码标识一个对应的待测对象。Step S1: A temperature measuring device is respectively assigned to each object to be tested, so that the identification code of each temperature measuring device identifies a corresponding object to be tested.
步骤S2:通过温度测量装置测量待测对象的温度。Step S2: The temperature of the object to be tested is measured by a temperature measuring device.
本步骤具体为:温度测量装置每个预定时间测量一次待测对象的温度。从而可以全面监测待测对象的温度。The step is specifically: the temperature measuring device measures the temperature of the object to be tested once every predetermined time. Thereby, the temperature of the object to be tested can be comprehensively monitored.
步骤S3:温度测量装置将温度和识别码传输到中央监测站。Step S3: The temperature measuring device transmits the temperature and the identification code to the central monitoring station.
多个温度测量装置以及中央监测站构成网状网络,优选为mesh网络,具体介绍如前文所述,在此不再赘述。The plurality of temperature measuring devices and the central monitoring station form a mesh network, which is preferably a mesh network. The details are as described above, and are not described here.
并且,本实施例的每一温度测量装置进一步接收其他的互相中继的温度测量装置的数据并进一步传输,使得温度测量装置之间互相中继传输数据,该数据包括温度、识别码、信号强度指数以及密匙等数据。其中,该些数据可以打包压缩成数据包后传输。Moreover, each temperature measuring device of the embodiment further receives data of other mutually relayed temperature measuring devices and further transmits the data, so that the temperature measuring devices relay data to each other, the data including temperature, identification code, and signal strength. Index and key data. The data can be packaged and compressed into data packets for transmission.
具体的,每一温度测量装置将温度、识别码、信号强度指数以及密匙的数据包传输到与其互相中继的其他温度测量装置中,以通过其他温度测量装置将该数据包继续传输,直到传输到中央监测站中。Specifically, each temperature measuring device transmits the temperature, the identification code, the signal strength index, and the data packet of the key to other temperature measuring devices that are mutually relayed to continue transmitting the data packet through other temperature measuring devices until Transfer to the central monitoring station.
步骤S4:中央监测站显示每个待测对象对应的温度。Step S4: The central monitoring station displays the temperature corresponding to each object to be tested.
本步骤具体为:中央监测站接收温度测量装置传输的数据包,并显示和处理该数据包的数据。具体为:显示每个待测对象的温度,并根据显示的温度进行分析,具体分析过程如前文所述,在此不再赘述。另一方面还根据信号强度指数结合三角形算法获取每个温度测量装置的位置,实现对每个温度测量装置进行定位,以定位每一待测对象的位置。其中,信号强度指数的大小与互相中继的两温度测量装置的距离相关。具体定位过程如前文所述,在此不再赘述The step is specifically: the central monitoring station receives the data packet transmitted by the temperature measuring device, and displays and processes the data of the data packet. Specifically, the temperature of each object to be tested is displayed, and the analysis is performed according to the displayed temperature. The specific analysis process is as described above, and is not described here. On the other hand, the position of each temperature measuring device is obtained according to the signal strength index combined with the triangle algorithm, and each temperature measuring device is positioned to locate the position of each object to be tested. Wherein, the magnitude of the signal strength index is related to the distance between the two temperature measuring devices that are relayed to each other. The specific positioning process is as described above, and will not be described here.
综上所述,本发明实施例既可以识别不同的待测对象的温度,也可以对不同的待测对象进行定位。In summary, the embodiment of the present invention can identify different temperatures of objects to be tested, and can also locate different objects to be tested.
以上所述仅为本发明的实施例,并非因此限制本发明的专利范围,凡是利用本发明说明书及附图内容所作的等效结构或等效流程变换,或直接或间接运用在其他相关的技术领域,均同理包括在本发明的专利保护范围内。
The above is only the embodiment of the present invention, and is not intended to limit the scope of the invention, and the equivalent structure or equivalent process transformation of the present invention and the contents of the drawings may be directly or indirectly applied to other related technologies. The fields are all included in the scope of patent protection of the present invention.
Claims (13)
- 一种温度监测系统的监测方法,其中,所述监测方法包括:A monitoring method of a temperature monitoring system, wherein the monitoring method comprises:给每一待测对象分别分配一温度测量装置,以使每一所述温度测量装置的识别码标识一个对应的待测对象;Each of the objects to be tested is respectively assigned a temperature measuring device, so that the identification code of each of the temperature measuring devices identifies a corresponding object to be tested;通过所述温度测量装置测量所述待测对象的温度;Measuring, by the temperature measuring device, a temperature of the object to be tested;所述温度测量装置将所述温度和所述识别码传输到中央监测站;The temperature measuring device transmits the temperature and the identification code to a central monitoring station;所述中央监测站显示每个待测对象对应的温度。The central monitoring station displays the temperature corresponding to each object to be tested.
- 根据权利要求1所述的监测方法,其中,所述通过所述温度测量装置测量所述待测对象的温度的步骤包括:The monitoring method according to claim 1, wherein the measuring the temperature of the object to be tested by the temperature measuring device comprises:所述温度测量装置每个预定时间测量一次所述待测对象的温度。The temperature measuring device measures the temperature of the object to be tested once every predetermined time.
- 根据权利要求1所述的监测方法,其中,所述温度测量装置以及中央监测站构成网状网络,所述方法进一步包括:The monitoring method according to claim 1, wherein the temperature measuring device and the central monitoring station constitute a mesh network, the method further comprising:每一温度测量装置接收其他温度测量装置的数据并进一步传输,使得所述温度测量装置之间互相中继传输所述数据,所述数据包括所述温度和所述识别码;Each temperature measuring device receives data of the other temperature measuring device and further transmits the data, so that the temperature measuring device relays the data to each other, the data including the temperature and the identification code;所述温度测量装置将所述温度和所述识别码传输到中央监测站的步骤包括:The step of the temperature measuring device transmitting the temperature and the identification code to the central monitoring station includes:每一所述温度测量装置将所述温度和所述识别码传输到与所述温度测量装置中继的所述其他温度测量装置中,以通过所述其他温度测量装置将所述温度和所述识别码继续传输,直到传输到所述中央监测站中。Each of the temperature measuring devices transmits the temperature and the identification code to the other temperature measuring device relayed with the temperature measuring device to pass the temperature and the The identification code continues to be transmitted until it is transmitted to the central monitoring station.
- 根据权利要求3所述的监测方法,其中,数据进一步包括信号强度指数,所述方法进一步包括:The monitoring method of claim 3, wherein the data further comprises a signal strength index, the method further comprising:每一所述温度测量装置获取所述其他温度测量装置的信号强度指数并进一步将信号强度指数互相中继传输,直到传输到所述中央监测站中;Each of the temperature measuring devices acquires a signal strength index of the other temperature measuring device and further relays the signal strength index to each other until transmission to the central monitoring station;所述中央监测站根据所述信号强度指数结合三角形算法获取每个所述温度测量装置的位置,以定位每个所述待测对象的位置,其中,所述信号强度指数的大小与互相中继的两温度测量装置的距离相关。The central monitoring station acquires a position of each of the temperature measuring devices according to the signal strength index in combination with a triangle algorithm to locate a position of each of the objects to be tested, wherein the magnitude of the signal strength index is mutually relayed The distance between the two temperature measuring devices is related.
- 一种温度测量装置,其中,所述温度测量装置包括:A temperature measuring device, wherein the temperature measuring device comprises:温度测量模块,用于测量一待测对象的温度;a temperature measuring module for measuring the temperature of an object to be tested;存储模块,存储所述温度测量模块的识别码,使得每个所述待测对象对应一个识别码;a storage module, configured to store an identifier of the temperature measurement module, such that each of the objects to be tested corresponds to an identification code;收发模块,将所述温度和所述识别码传输到中央监测站,由所述中央监测站显示每个待测对象对应的温度。The transceiver module transmits the temperature and the identification code to a central monitoring station, and the central monitoring station displays a temperature corresponding to each object to be tested.
- 根据权利要求5所述的温度测量装置,其中,所述温度测量装置和其他温度测量装置以及中央监测站构成网状网络,所述收发模块进一步接收所述其他温度测量装置的数据并进一步传输,使得所述温度测量装置之间互相中继传输所述数据,所述数据包括所述温度和所述识别码,其中: The temperature measuring device according to claim 5, wherein said temperature measuring device and other temperature measuring devices and a central monitoring station form a mesh network, said transceiver module further receiving data of said other temperature measuring device and further transmitting, Having the temperature measuring devices relay the data to each other, the data including the temperature and the identification code, wherein:所述收发模块将所述温度和所述识别码传输到与所述温度测量装置中继的所述其他温度测量装置中,以通过所述其他温度测量装置将所述温度和所述识别码继续传输,直到传输到所述中央监测站。The transceiver module transmits the temperature and the identification code to the other temperature measuring device relayed with the temperature measuring device to continue the temperature and the identification code by the other temperature measuring device Transfer until transmission to the central monitoring station.
- 根据权利要求6所述的温度测量装置,其中,所述数据进一步包括信号强度指数,所述收发模块进一步获取所述其他温度测量装置的信号强度指数并将信号强度指数互相中继传输,直到传输到所述中央监测站中,使得所述中央监测站根据所述信号强度指数对所述温度测量装置进行定位,其中,所述信号强度指数的大小与互相中继的两温度测量装置的距离相关。The temperature measuring device according to claim 6, wherein said data further comprises a signal strength index, said transceiver module further acquiring signal strength indices of said other temperature measuring devices and relaying signal strength indices to each other until transmission Going to the central monitoring station, causing the central monitoring station to locate the temperature measuring device according to the signal strength index, wherein the magnitude of the signal strength index is related to the distance between two temperature measuring devices that are mutually relayed .
- 一种中央监测站,其中,所述中央监测站包括:A central monitoring station, wherein the central monitoring station comprises:收发模块,用于接收多个温度测量装置的识别码和其测量的待测对象的温度,其中,每一所述温度测量装置的识别码和一所述待测对象对应;a transceiver module, configured to receive an identifier of the plurality of temperature measuring devices and a temperature of the object to be tested, wherein the identifier of each of the temperature measuring devices corresponds to an object to be tested;显示模块,用于显示每个待测对象对应的温度。A display module for displaying the temperature corresponding to each object to be tested.
- 根据权利要求8所述的中央监测站,其中,所述多个温度测量装置以及所述中央监测站构成网状网络,并互相中继传输数据;The central monitoring station according to claim 8, wherein said plurality of temperature measuring devices and said central monitoring station form a mesh network and relay data to each other;所述收发模块进一步接收所述多个温度测量装置中互相中继的两个温度测量装置之间的信号强度指数,其中,所述信号强度指数的大小与互相中继的两温度测量装置的距离相关;The transceiver module further receives a signal strength index between two temperature measuring devices that are mutually relayed among the plurality of temperature measuring devices, wherein the magnitude of the signal strength index is different from the distance between the two temperature measuring devices that are mutually relayed Related所述中央监测站进一步包括处理模块,所述处理模块根据所述信号强度指数结合三角形算法获取每个所述温度测量装置的位置。The central monitoring station further includes a processing module that obtains a location of each of the temperature measuring devices in accordance with the signal strength index in conjunction with a triangular algorithm.
- 一种温度监测系统,其中,所述温度监测系统包括温度测量装置和中央监测站,其中,所述温度测量装置包括:A temperature monitoring system, wherein the temperature monitoring system comprises a temperature measuring device and a central monitoring station, wherein the temperature measuring device comprises:温度测量模块,用于测量一待测对象的温度;a temperature measuring module for measuring the temperature of an object to be tested;存储模块,存储所述温度测量模块的识别码,使得每个所述待测对象对应一个识别码;a storage module, configured to store an identifier of the temperature measurement module, such that each of the objects to be tested corresponds to an identification code;第一收发模块,将所述温度和所述识别码传输到中央监测站,由所述中央监测站显示每个待测对象对应的温度;The first transceiver module transmits the temperature and the identification code to a central monitoring station, and the central monitoring station displays a temperature corresponding to each object to be tested;所述中央监测站包括:The central monitoring station includes:第二收发模块,用于接收多个温度测量装置的识别码和其测量的待测对象的温度,其中,每一所述温度测量装置的识别码和一所述待测对象对应;a second transceiver module, configured to receive an identifier of the plurality of temperature measuring devices and a temperature of the object to be tested, wherein the identifier of each of the temperature measuring devices corresponds to an object to be tested;显示模块,用于显示每个待测对象对应的温度。A display module for displaying the temperature corresponding to each object to be tested.
- 根据权利要求10所述的温度监测系统,其中,所述温度测量装置和其他温度测量装置以及中央监测站构成网状网络,所述第一收发模块进一步接收所述其他温度测量装置的数据并进一步传输,使得所述温度测量装置之间互相中继传输所述数据,所述数据包括所述温度和所述识别码,其中:A temperature monitoring system according to claim 10, wherein said temperature measuring means and other temperature measuring means and central monitoring station form a mesh network, said first transceiver module further receiving data of said other temperature measuring means and further Transmitting, wherein the temperature measuring devices relay the data to each other, the data including the temperature and the identification code, wherein:所述第一收发模块将所述温度和所述识别码传输到与所述温度测量装置中继的所述其他温度测量装置中,以通过所述其他温度测量装置将所述温度和所述识别码继续传输,直到传输到所述中央监测站。The first transceiver module transmits the temperature and the identification code to the other temperature measuring device relayed with the temperature measuring device to pass the temperature and the identification by the other temperature measuring device The code continues to transmit until it is transmitted to the central monitoring station.
- 根据权利要求11所述的温度监测系统,其中,所述数据进一步包括信号强度指数,所述第一收发模块进一步获取所述其他温度测量装置的信号强度指数并将信号强度指数互相中继传输,直到传输到所述中央监测站中,使得所述中央监测站根据所述信号强度指数对所述温度测量装置进行定位,其中,所述信号强度指数的大小与互相中继的两温度测量装置的距离相关。 The temperature monitoring system according to claim 11, wherein the data further comprises a signal strength index, the first transceiver module further acquiring a signal strength index of the other temperature measuring device and relaying the signal strength index to each other, Until the transmission to the central monitoring station, causing the central monitoring station to locate the temperature measuring device according to the signal strength index, wherein the magnitude of the signal strength index and the two temperature measuring devices that are mutually relayed Distance related.
- 根据权利要求10所述的温度监测系统,其中,所述多个温度测量装置以及所述中央监测站构成网状网络,并互相中继传输数据;The temperature monitoring system according to claim 10, wherein said plurality of temperature measuring devices and said central monitoring station form a mesh network and relay data to each other;所述第二收发模块进一步接收所述多个温度测量装置中互相中继的两个温度测量装置之间的信号强度指数,其中,所述信号强度指数的大小与互相中继的两温度测量装置的距离相关;The second transceiver module further receives a signal strength index between two temperature measuring devices that are mutually relayed among the plurality of temperature measuring devices, wherein the magnitude of the signal strength index and the two temperature measuring devices that are mutually relayed Related to the distance;所述中央监测站进一步包括处理模块,所述处理模块根据所述信号强度指数结合三角形算法获取每个所述温度测量装置的位置。The central monitoring station further includes a processing module that obtains a location of each of the temperature measuring devices in accordance with the signal strength index in conjunction with a triangular algorithm.
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