A precise temperature measurement and control system
By designing a high-precision infrared temperature measurement control system in herd health management, and using multiple trigger modes and networking modes, the problem of insufficient temperature measurement accuracy and resolution in the existing technology is solved, and an environment with limited hardware resources is realized Efficient and accurate temperature measurement data processing and synchronization reduce the workload of manual processing.
Patent Information
- Application Number
- CN202111205906.3
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2021-10-15
- Publication Date
- 2024-12-20
- Estimated Expiration
- 2041-10-15
AI Technical Summary
The existing infrared temperature measurement system has problems such as low temperature measurement accuracy and insufficient thermal imaging resolution in animal health management of livestock herds. It is difficult to achieve real-time synchronization of high-resolution data in environments with limited hardware resources and communication conditions, resulting in processing. Increased difficulty and uncertainty in artificial differences.
A precise temperature measurement control system was designed, including high-precision temperature measurement terminal, handheld terminal and analysis terminal, using infrared temperature measurement module, main control module, data compression module and networking module, supporting multiple trigger modes and networking modes , reduce hardware requirements and manual processing workload through lossless compression and real-time data transmission.
It realizes high-precision temperature measurement in scenarios with limited hardware resources and communication conditions, reduces the hardware requirements at the acquisition end and the workload of manual data processing, is suitable for herd health management, and improves the accuracy and efficiency of temperature measurement.
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Figure CN113923619B_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of Internet of Things equipment for animal husbandry, and in particular to a precise temperature measurement and control system. Background Art
[0002] In recent years, with the widespread application of intelligent infrared body temperature screening systems in medical and epidemic prevention, infrared temperature measurement systems have also begun to be applied to livestock health management. However, existing products are either industrial temperature measurement products with temperature measurement accuracy that is not suitable for live animals, or live temperature measurement products with poor thermal imaging resolution, which are not enough to be used for accurate temperature measurement of livestock. The use of high-precision infrared imaging equipment often makes it difficult to achieve real-time synchronization of high-resolution temperature measurement raw data under limited hardware resources and communication conditions (such as livestock and poultry houses, farms, etc.) due to the large single imaging data flow, and it is difficult to achieve effective separation between the acquisition end and the processing end and the calculation end; this increases the difficulty of maintenance on the processing end on the one hand, and increases the workload of R&D personnel in raw data collection and calculation on the other hand (after the temperature measurement is completed, there is still a large amount of data export, temperature evaluation and statistical work waiting to be completed manually, which further brings about the uncertainty of human differences); based on the above, there is an urgent need for an accurate temperature measurement control system that can be applied to limited hardware resources and communication conditions and has the ability to process and synchronize high-resolution data in real time. Summary of the invention
[0003] In response to the above-mentioned problems in the prior art, the purpose of the present invention is to provide a precise temperature measurement and control system, which adopts a high-precision temperature measurement terminal to meet the high-precision temperature measurement needs while reducing the hardware requirements of the acquisition end, and can meet the large-scale precise temperature measurement in scenarios with limited hardware resources and communication conditions; the system also has an analysis terminal for real-time data uploading and data analysis, reducing the workload of manual data processing.
[0004] The present invention is implemented through the following technical solutions: an accurate temperature measurement control system, comprising a temperature measurement terminal and a handheld terminal and an analysis terminal networked with the temperature measurement terminal;
[0005] The temperature measurement terminal includes an infrared temperature measurement module, a main control module, and a networking module;
[0006] The main control module is embedded with a temperature measurement trigger module, a data compression module, and a hardware resource allocation module;
[0007] The temperature measurement trigger module can set the temperature measurement trigger mode of the temperature measurement terminal;
[0008] The main control module receives the temperature measurement information stream of the infrared temperature measurement module, wherein the temperature measurement information stream includes a real-time video stream and a temperature data stream;
[0009] The main control module can respond to the instruction of the analysis terminal to start the real-time video stream and respond to the instruction of the temperature measurement trigger module to start the temperature data stream;
[0010] The data compression module can compress the temperature measurement information stream losslessly;
[0011] The hardware resource allocation module monitors the opening status of the temperature measurement information flow in real time, allocates hardware resources to the data compression module, and releases the hardware resources in time after the lossless compression is completed;
[0012] The temperature measurement information stream is transmitted to the analysis terminal through the networking module after lossless compression for data analysis;
[0013] Furthermore, the temperature measurement trigger module includes a physical switch, a Hall switch, a serial port module, and a timer module, which correspond to the manual trigger mode, the induction trigger mode, the command trigger mode, and the clock trigger mode, respectively. The button switch and the Hall switch are connected to different GPIO pins of the main control module. When the switch state changes, the level of the corresponding pin changes, thereby triggering the temperature measurement process; the button switch corresponds to the common manual trigger mode, and the operator presses the button switch to change the level state of the corresponding GPIO pin; the Hall switch corresponds to the induction trigger mode, and the Hall switch can monitor the distance or range according to the set threshold; the timer switch corresponds to the clock trigger mode, using an external timer or the built-in timer of the main control module, and triggering the temperature measurement process when the preset timing threshold is reached; the serial communication switch corresponds to the command trigger mode, and the temperature measurement process is triggered by receiving instructions and temperature measurement parameters through the serial port interface of the main control module.
[0014] Furthermore, the temperature measurement terminal also includes an ambient temperature and humidity sensor connected to the main control module. Parameters such as ambient temperature and humidity are very important parameters in infrared temperature measurement temperature fitting / parameter correction. The ambient temperature and humidity sensor is connected to the main control module, and the main control module can read the temperature and humidity sensor data regularly. The temperature and humidity sensor data is used as a parameter of the infrared temperature measurement camera, thereby ensuring that the infrared temperature measurement camera is always based on the correct ambient temperature and humidity parameters when shooting.
[0015] Furthermore, considering portability, the temperature measurement terminal is powered by a charging power module, and the main control module can collect the power, voltage, and charging status of the charging power module;
[0016] Furthermore, the analysis terminal is configured with a data server and a target detection and recognition model based on deep learning and a target body temperature assessment model calculation server.
[0017] Furthermore, the networking module includes a Bluetooth module and a WIFI module. The handheld terminal establishes a trusted connection with the temperature measurement terminal through the Bluetooth module to transmit network configuration information. After obtaining the network configuration information, the temperature measurement terminal establishes a wireless connection with the analysis terminal through the WIFI module to transmit the temperature measurement information stream after lossless compression.
[0018] Furthermore, the analysis terminal can be set as a cloud server and configured as a cloud network; or set as a local server and configured as a local network.
[0019] Furthermore, the analysis terminal is selected as a cloud server through the handheld terminal, and the network configuration parameters include any WiFi login information in the current environment and the authentication information of the cloud server; based on the cloud network, the cloud server is logged in through the handheld terminal and a temperature measurement plan is set, and the temperature measurement terminal receives the temperature measurement plan issued by the cloud server through a wireless connection, and the handheld terminal can log in to the cloud server based on the cloud network to view the data analysis results.
[0020] Furthermore, the analysis terminal is selected as the local server through the handheld terminal, the network configuration parameters include WiFi login information broadcast by the local server, and a serial port connection is also provided between the temperature measurement terminal and the local server. Based on the local network, a temperature measurement plan is set on the local server, and the temperature measurement terminal receives the temperature measurement plan issued by the cloud server through the serial port connection. The local server acts as a central control to view the data analysis results.
[0021] Furthermore, the temperature measurement scheme includes the temperature measurement parameter settings of the infrared temperature measurement module (such as automatic temperature correction time interval, video stream color scheme, etc.), the temperature measurement trigger mode and related parameters (such as physical switch mode and Hall signal threshold, timing mode and schedule, serial port mode and communication parameters, etc.), and the data analysis scheme of the analysis terminal (such as the target detection model to be applied, the temperature feature information to be extracted, etc.).
[0022] Furthermore, the temperature measurement terminal is integrated and has a casing, on which is provided a user interaction module connected to the main control module. The user interaction module is combined in the following types according to user needs: buttons, indicator lights, buzzers, display panels, etc.
[0023] The beneficial effects of the present invention are as follows: the present invention can adopt a high-precision temperature measurement terminal with low cost and low power consumption, which can meet the needs of high-precision temperature measurement while reducing the hardware requirements of the acquisition end, and can meet the large-scale accurate temperature measurement in scenarios with limited hardware resources and communication conditions; the system also has an analysis terminal for real-time data upload and data analysis, which reduces the workload of manual data processing and is effectively applied to livestock health management and serves biosafety prevention and control; it has a variety of temperature measurement trigger modes and networking modes, and has a wide range of applications. BRIEF DESCRIPTION OF THE DRAWINGS
[0024] Figure 1 This is a system block diagram of the present invention.
[0025] Figure 2 This is the system block diagram of the temperature measurement terminal.
[0026] Figure 3 This is a schematic diagram of the cloud network.
[0027] Figure 4 A local network diagram.
[0028] Figure 5 This is the working flow diagram of this system.
[0029] Figure 6 This is the circuit diagram of the main control module.
[0030] Figure 7 This is the circuit diagram of the infrared temperature measurement module interface connection.
[0031] Figure 8 This is a schematic diagram of querying temperature measurement results through a handheld terminal. DETAILED DESCRIPTION
[0032] In order to clearly illustrate the technical features of this solution, this solution is described below through a specific implementation method.
[0033] See also Figure 1-Figure 3 , the present invention is implemented by the following technical solutions: an accurate temperature measurement control system, comprising a temperature measurement terminal and a handheld terminal and an analysis terminal networked with the temperature measurement terminal;
[0034] The temperature measurement terminal includes an infrared temperature measurement module, a main control module, and a networking module;
[0035] The main control module is embedded with a temperature measurement trigger module, a data compression module, and a hardware resource allocation module;
[0036] The temperature measurement trigger module can set the temperature measurement trigger mode of the temperature measurement terminal;
[0037] The main control module receives the temperature measurement information stream of the infrared temperature measurement module, wherein the temperature measurement information stream includes a real-time video stream and a temperature data stream;
[0038] The main control module can respond to the instruction of the analysis terminal to start the real-time video stream and respond to the instruction of the temperature measurement trigger module to start the temperature data stream;
[0039] The data compression module can compress the temperature measurement information stream losslessly;
[0040] The hardware resource allocation module monitors the opening status of the temperature measurement information flow in real time, allocates hardware resources to the data compression module, and releases the hardware resources in time after the lossless compression is completed; the amount of data is greatly reduced after the compression is completed, and the hardware resource allocation module is used to call the hardware resources on demand, which reduces the demand for hardware configuration and also meets the data transmission under weak network conditions;
[0041] The temperature measurement information stream is transmitted to the analysis terminal through the networking module after lossless compression for data analysis;
[0042] Furthermore, the temperature measurement trigger module includes a physical switch, a Hall switch, a serial port module, and a timer module, which correspond to the manual trigger mode, the induction trigger mode, the command trigger mode, and the clock trigger mode, respectively. The button switch and the Hall switch are connected to different GPIO pins of the main control module. When the switch state changes, the level of the corresponding pin changes, thereby triggering the temperature measurement process; the button switch corresponds to the common manual trigger mode, and the operator presses the button switch to change the level state of the corresponding GPIO pin; the Hall switch corresponds to the induction trigger mode, and the Hall switch can monitor the distance or range according to the set threshold; the timer switch corresponds to the clock trigger mode, using an external timer or the built-in timer of the main control module, and triggering the temperature measurement process when the preset timing threshold is reached; the serial communication switch corresponds to the command trigger mode, and the temperature measurement process is triggered by receiving instructions and temperature measurement parameters through the serial port interface of the main control module.
[0043] Furthermore, the analysis terminal is configured with a data server and a target detection and recognition model based on deep learning and a target body temperature assessment model calculation server.
[0044] Furthermore, the temperature measurement terminal also includes an ambient temperature and humidity sensor connected to the main control module. Parameters such as ambient temperature and humidity are very important parameters in infrared temperature measurement temperature fitting / parameter correction. The ambient temperature and humidity sensor is connected to the main control module, and the main control module can read the temperature and humidity sensor data regularly. The temperature and humidity sensor data is used as a parameter of the infrared temperature measurement camera, thereby ensuring that the infrared temperature measurement camera is always based on the correct ambient temperature and humidity parameters when shooting.
[0045] Furthermore, considering portability, the temperature measurement terminal is powered by a charging power module, and the main control module can collect the power, voltage, and charging status of the charging power module.
[0046] Furthermore, the networking module includes a Bluetooth module and a WIFI module. The handheld terminal establishes a trusted connection with the temperature measurement terminal through the Bluetooth module to transmit network configuration information. After obtaining the network configuration information, the temperature measurement terminal establishes a wireless connection with the analysis terminal through the WIFI module to transmit the temperature measurement information stream after lossless compression.
[0047] Furthermore, the analysis terminal can be set as a cloud server and configured as a cloud network; or set as a local server and configured as a local network.
[0048] Furthermore, the analysis terminal is selected as a cloud server through the handheld terminal, and the network configuration parameters include any WiFi login information in the current environment and the authentication information of the cloud server; based on the cloud network, the cloud server is logged in through the handheld terminal and a temperature measurement plan is set, and the temperature measurement terminal receives the temperature measurement plan issued by the cloud server through a wireless connection, and the handheld terminal can log in to the cloud server based on the cloud network to view the data analysis results.
[0049] Furthermore, the temperature measurement scheme includes the temperature measurement parameter settings of the infrared temperature measurement module (such as automatic temperature correction time interval, video stream color scheme, etc.), the temperature measurement trigger mode and related parameters (such as physical switch mode and Hall signal threshold, timing mode and schedule, serial port mode and communication parameters, etc.), and the data analysis scheme of the analysis terminal (such as the target detection model to be applied, the temperature feature information to be extracted, etc.).
[0050] Furthermore, the temperature measurement terminal is integrated and has a casing, on which is provided a user interaction module connected to the main control module. The user interaction module is combined in the following types according to user needs: buttons, indicator lights, buzzers, display panels, etc.
[0051] like Figure 5 As shown, the working process of this precise temperature measurement and control system is as follows:
[0052] a) Start the self-test and initialize each module;
[0053] b) Equipment network configuration: The handheld terminal establishes a trusted connection through the Bluetooth module of the temperature measurement terminal; the handheld terminal obtains the network configuration parameters of the analysis terminal, and submits the network configuration parameters to the temperature measurement terminal through the Bluetooth connection; after the temperature measurement terminal obtains the network configuration parameters, it establishes a wireless connection with the analysis terminal;
[0054] c) Working configuration: The type of analysis terminal is selected through the handheld terminal, and the network is configured as a cloud network or a local network; the analysis terminal sends the temperature measurement scheme to the temperature measurement terminal; the temperature measurement terminal sets the working parameters of each module according to the temperature measurement scheme configuration information, including the temperature measurement parameter setting of the infrared temperature measurement module and the temperature measurement trigger mode and related temperature measurement mode setting parameters;
[0055] d) Data collection: When the main control module receives the corresponding temperature measurement trigger instruction, the main control module obtains the current environmental temperature and humidity information through the temperature and humidity sensor, and then corrects the environmental temperature and humidity information of the infrared temperature measurement module and collects instantaneous thermal imaging data; the instantaneous thermal imaging data forms a temperature measurement information flow when it is transmitted to the main control module; the hardware resource allocation module monitors the opening state of the temperature measurement information flow in real time, allocates hardware resources to the data compression module, and losslessly compresses the temperature measurement information flow, and releases the hardware resources in time after completion; the temperature measurement information flow is uploaded to the analysis terminal through the wifi module after lossless compression; until the temperature measurement interruption instruction issued by the temperature measurement trigger module is received;
[0056] e) Data analysis and presentation: After receiving the compressed temperature measurement information stream, the analysis terminal must first parse the data, then extract features according to the data analysis scheme in the temperature measurement scheme, and perform analysis and evaluation; the final result is presented by the handheld terminal or analysis terminal.
[0057] f) Status monitoring and power consumption control: monitor the following status in real time: power status, trigger status of the temperature measurement trigger module, network connection status, and remind the user through the user interaction module; when the power status is low power, trigger the temperature measurement interrupt instruction, and control the temperature measurement terminal to enter low power sleep mode; when the network connection status is disconnected, try to reconnect to the network and issue a prompt through the user interaction module, and trigger the timer at the same time; when the disconnected state lasts for a certain period of time, trigger the temperature measurement interrupt instruction, and issue a prompt through the user interaction module.
[0058] Based on the above, specific Figure 6 As shown, the main control module of the temperature measurement terminal adopts the embedded ESP32 main control, which has high integration, low cost, low power consumption, integrated high-speed WIFI / Bluetooth module, small size and rich external interfaces; the infrared temperature measurement module adopts Hefei Yingrui Xtherm series precise temperature measurement movement as the infrared temperature measurement module of this solution, such as Figure 7 As shown, it is connected to ESP32 through a bidirectional dual-power bus transceiver, with high temperature measurement accuracy and a thermal imaging resolution no higher than 384*288; a 3.7V rechargeable lithium battery is used as the power module of this solution; the handheld terminal is a mobile phone / tablet / PDA device with Bluetooth and WIFI functions.
[0059] like Figure 8 As shown in the figure, taking pig detection as an example, the data server and the computing server configured with the deep learning environment of the pig detection model + pig temperature assessment model are used as analysis terminals; the cloud server is used as the data server, and the NVIDIA Xavier NX is used as the computing server. In the form of running WeChat applet or APP on a mobile phone or tablet, it has a UI interface to assist users in completing online connection, network configuration, settings and data viewing.
[0060] Embodiment 2, as Figure 4 As shown, the difference from the embodiment is that the analysis terminal is selected as the local server through the handheld terminal, the network configuration parameters include the WiFi login information broadcast by the local server, and a serial port connection is also provided between the temperature measurement terminal and the local server. Based on the local network, a temperature measurement scheme is set on the local server, and the temperature measurement terminal receives the temperature measurement scheme issued by the cloud server through the serial port connection. The local server acts as a central control to view the data analysis results.
[0061] In the description of the invention, the previous detailed description has been described various embodiments of the apparatus and / or process by using block diagrams, flow charts and / or examples. To the extent that such block diagrams, flow charts and / or examples contain one or more functions and / or operations, it will be understood by those skilled in the art that each function and / or operation within such block diagrams, flow charts or examples can be implemented individually and / or collectively by many various hardware, software, firmware or any combination thereof.
[0062] There is little difference between hardware and software implementations of various aspects of the system; the use of hardware or software is typically (but not always, as the choice between hardware and software may become important in certain scenarios) a design choice that represents a tradeoff between cost and efficiency. There are various means (e.g., hardware, software, and / or firmware) by which the processes and / or systems and / or other techniques described herein may be implemented, and the preferred means will vary depending on the scenario in which the processes and / or systems and / or other techniques are deployed. For example, if the implementer determines that speed and accuracy are extremely important, then the implementer may choose a primarily hardware and / or firmware means; if flexibility is extremely important, then the implementer may choose a primarily software implementation; or, but equally alternatively, the implementer may choose some combination of hardware, software, and / or firmware.
[0063] The terms "first", "second", etc. are used for descriptive purposes only and are not to be understood as indicating or implying relative importance or implicitly indicating the number of the technical features indicated. Thus, a feature defined as "first", "second", etc. may explicitly or implicitly include one or more of the features. In the description of the present invention, unless otherwise specified, "plurality" means two or more.
[0064] Technical features not described in the present invention can be achieved through or by adopting existing technologies and will not be described in detail here. Of course, the above description is not a limitation of the present invention, and the present invention is not limited to the above examples. Changes, modifications, additions or substitutions made by ordinary technicians in this technical field within the essential scope of the present invention should also fall within the scope of protection of the present invention.
[0065] In the description of the invention, it should be noted that, unless otherwise clearly specified and limited, the terms "install", "connect", "connect", and "set" should be understood in a broad sense, for example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection, or it can be indirectly connected through an intermediate medium, or it can be the internal communication of two components. For ordinary technicians in this field, the specific meanings of the above terms in the invention can be understood according to specific circumstances.
Claims
1. A precise temperature measurement and control system, It is characterized in that It includes a temperature measurement terminal and a handheld terminal and an analysis terminal networked with the temperature measurement terminal; The temperature measurement terminal includes an infrared temperature measurement module, a main control module, and a networking module; The main control module is embedded with a temperature measurement trigger module, a data compression module, and a hardware resource allocation module; The temperature measurement trigger module can set the temperature measurement trigger mode of the temperature measurement terminal; The main control module receives the temperature measurement information stream of the infrared temperature measurement module, wherein the temperature measurement information stream includes a real-time video stream and a temperature data stream; The main control module can respond to the instruction of the analysis terminal to start the real-time video stream and respond to the instruction of the temperature measurement trigger module to start the temperature data stream; The data compression module can compress the temperature measurement information stream losslessly; The hardware resource allocation module monitors the opening status of the temperature measurement information flow in real time, allocates hardware resources to the data compression module, and releases the hardware resources in time after the lossless compression is completed; The temperature measurement information stream is transmitted to the analysis terminal through the networking module after lossless compression for data analysis; The temperature measurement trigger module includes a physical switch, a Hall switch, a serial port module, and a timer module, which correspond to a manual trigger mode, an induction trigger mode, a command trigger mode, and a clock trigger mode respectively; The analysis terminal is configured with a data server and a target detection and recognition model based on deep learning and a target body temperature assessment model calculation server; The networking module includes a Bluetooth module and a WIFI module. The handheld terminal establishes a trusted connection with the temperature measurement terminal through the Bluetooth module to transmit network configuration information. After the temperature measurement terminal obtains the network configuration information, it establishes a wireless connection with the analysis terminal through the WIFI module to transmit the temperature measurement information stream after lossless compression. The analysis terminal can be set as a cloud server and configured as a cloud network; or set as a local server and configured as a local network; The temperature measurement scheme includes the temperature measurement parameter settings of the infrared temperature measurement module, the temperature measurement trigger mode and related parameters, and the data analysis scheme of the analysis terminal; The temperature measurement terminal also includes an ambient temperature and humidity sensor connected to the main control module; The workflow of the precise temperature measurement and control system is as follows: a) Start the self-test and initialize each module; b) Equipment network configuration: The handheld terminal establishes a trusted connection through the Bluetooth module of the temperature measurement terminal; the handheld terminal obtains the network configuration parameters of the analysis terminal, and submits the network configuration parameters to the temperature measurement terminal through the Bluetooth connection; after the temperature measurement terminal obtains the network configuration parameters, it establishes a wireless connection with the analysis terminal; c) Working configuration: The type of analysis terminal is selected through the handheld terminal, and the network is configured as a cloud network or a local network; the analysis terminal sends the temperature measurement scheme to the temperature measurement terminal; the temperature measurement terminal sets the working parameters of each module according to the temperature measurement scheme configuration information, including the temperature measurement parameter setting of the infrared temperature measurement module and the temperature measurement trigger mode and related temperature measurement mode setting parameters; d) Data collection: When the main control module receives the corresponding temperature measurement trigger instruction, the main control module obtains the current environmental temperature and humidity information through the temperature and humidity sensor, and then corrects the environmental temperature and humidity information of the infrared temperature measurement module and collects instantaneous thermal imaging data; the instantaneous thermal imaging data forms a temperature measurement information flow when it is transmitted to the main control module; The hardware resource allocation module monitors the opening state of the temperature measurement information flow in real time, allocates hardware resources to the data compression module, performs lossless compression on the temperature measurement information flow, and releases the hardware resources in time after completion; the temperature measurement information flow is uploaded to the analysis terminal through the wifi module after lossless compression; until a temperature measurement interruption instruction issued by the temperature measurement trigger module is received; e) Data analysis and presentation: After receiving the compressed temperature measurement information stream, the analysis terminal must first perform data analysis, then extract features according to the data analysis scheme in the temperature measurement scheme, and perform analysis and evaluation; the final results are presented by the handheld terminal or analysis terminal; f) Status monitoring and power consumption control: monitor the following status in real time: power status, trigger status of the temperature measurement trigger module, network connection status, and remind the user through the user interaction module; when the power status is low power, trigger the temperature measurement interrupt instruction, and control the temperature measurement terminal to enter low power sleep mode; when the network connection status is disconnected, try to reconnect to the network and issue a prompt through the user interaction module, and trigger the timer at the same time; when the disconnected state lasts for a certain period of time, trigger the temperature measurement interrupt instruction, and issue a prompt through the user interaction module.
2. The precise temperature measurement and control system according to claim 1, It is characterized in that The analysis terminal is selected as a cloud server through the handheld terminal, and the network configuration parameters include any WiFi login information in the current environment and the authentication information of the cloud server; based on the cloud network, the cloud server is logged in through the handheld terminal and a temperature measurement plan is set. The temperature measurement terminal receives the temperature measurement plan issued by the cloud server through a wireless connection. The handheld terminal can log in to the cloud server based on the cloud network to view the data analysis results.
3. The precise temperature measurement and control system according to claim 1, It is characterized in that The analysis terminal is selected as the local server through the handheld terminal, the network configuration parameters include the WiFi login information broadcast by the local server, a serial port connection is also provided between the temperature measurement terminal and the local server, and a temperature measurement scheme is set on the local server based on the local network. The temperature measurement terminal receives the temperature measurement scheme issued by the cloud server through the serial port connection, and the local server serves as a central control to view the data analysis results.
