Water quality meter data processing device, water quality meter data processing system, and water quality meter data processing method

Abstract

A water quality meter data processing device is a water quality meter data processing device that processes measurement value data, the measurement value data being data of a measurement value obtained by a water quality meter measuring a measured body, the water quality meter data processing device including: a measurement value data acquisition section that acquires the measurement value data; and a storage section that stores association data including data associated with at least one of the measured body and the water quality meter.

Description

Technical Field

[0001] This application relates to a water quality meter data processing device, a water quality meter data processing system, and a water quality meter data processing method. Background Technology

[0002] Conventionally, for example, a water quality meter data processing device includes: a measurement value data acquisition unit that acquires measurement value data (measurement value data) obtained by a water quality meter (e.g., a pH meter) measuring a test sample; and a measurement time data acquisition unit that acquires measurement time data (measurement time data) of the measurement value data (e.g., Patent Document 1). However, it is desirable to process the measurement value data based on data associated with the water quality meter or the test sample.

[0003] Existing technical documents

[0004] Patent documents

[0005] Patent Document 1: Japanese Patent Application Publication No. 2012-184972 Summary of the Invention

[0006] Technical issues

[0007] Therefore, the subject of the invention is to provide a water quality meter data processing device, a water quality meter data processing system, and a water quality meter data processing method capable of processing measurement data based on data associated with the water quality meter or the measured object.

[0008] Technical solution

[0009] A water quality meter data processing device is a device for processing measured value data, wherein the measured value data is the data obtained by the water quality meter from measuring the measured object. The water quality meter data processing device includes: a measured value data acquisition unit that acquires the measured value data; and a storage unit that stores associated data, wherein the associated data includes data associated with at least one of the measured object and the water quality meter.

[0010] Alternatively, the water quality meter data processing device may also include an individual identification data acquisition unit and a measurement time data acquisition unit. The individual identification data acquisition unit acquires data used for individual identification of the measured object, i.e., individual identification data. The measurement time data acquisition unit acquires data on the time when the water quality meter measures the measured object, i.e., measurement time data. The associated data is data obtained by associating the individual identification data, the measured value data, and the measurement time data.

[0011] Alternatively, the water quality meter data processing device may also include an image data acquisition unit, which acquires image data obtained by photographing the subject being measured. The associated data is data obtained by associating the individual identification data, the image data, the measured value data when the subject being measured was photographed, and the measurement time data.

[0012] Alternatively, in a water quality meter data processing device, the associated data may be reagent preparation data used to prepare a reagent by adding multiple raw materials, including data on the types of raw materials (i.e., raw material type data), data on the order of adding raw materials (i.e., addition order data), data on the amount of raw materials added (i.e., addition amount data), and data on the allowable value of the measured value data when adding raw materials (i.e., allowable value data). The water quality meter data processing device includes a reagent preparation data display unit that displays the reagent preparation data and a measured value data display unit that displays the measured value data.

[0013] Alternatively, the water quality meter data processing device may be configured such that the water quality meter is a pH meter for measuring the pH of the sample being measured, the allowable value data includes allowable pH value data, and the measured value data display unit displays the measured value data obtained by the pH meter from measuring the sample being measured.

[0014] Alternatively, in a water quality meter data processing device, the allowable value data may include allowable weight value data, and the measured value data display unit may display the measured value data obtained by the weight meter measuring the measured object.

[0015] Alternatively, the water quality meter data processing device may be configured such that the water quality meter is a pH meter that outputs a measured value obtained by measuring the test subject in the form of an electrical signal. The water quality meter data processing device may also include a calibration solution data acquisition unit, which acquires the pH data of the calibration solution used as the test subject, i.e., calibration solution data. The measured value data acquisition unit acquires the data of the electrical signal output from the pH meter, i.e., measured value data. The associated data is data obtained by associating the calibration solution data and the measured value data.

[0016] Alternatively, the water quality meter data processing device may be configured such that the associated data is data obtained by associating measured value change data with water quality meter quality data, the associated data is data on the change of the measured value data relative to the elapsed measurement time, and the water quality meter quality data is data on the quality of the water quality meter. The water quality meter data processing device further includes: a learning unit that uses the associated data as teaching data to perform machine learning on a judgment model that takes the measured value change data as input and the water quality meter quality data as output; and a water quality meter quality judgment unit that uses the judgment model to judge the quality of the water quality meter based on the specified measured value change data.

[0017] In addition, the water quality meter data processing system includes at least one water quality meter and the water quality meter data processing device.

[0018] In addition, the water quality meter data processing method is executed by at least one computer to process the measured value data, which is the measured value data obtained by the water quality meter from measuring the measured object. The water quality meter data processing method includes acquiring the measured value data. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the water quality meter data processing system.

[0020] Figure 2 This is a control block diagram of the water quality meter data processing device.

[0021] Figure 3 This is a control block diagram of a water quality meter data processing device according to one embodiment.

[0022] Figure 4 This diagram illustrates the data processing of the water quality meter data processing device according to this embodiment.

[0023] Figure 5 This diagram illustrates the data processing of the water quality meter data processing device according to this embodiment.

[0024] Figure 6 This is a control block diagram of a water quality meter data processing device according to another embodiment.

[0025] Figure 7 This diagram illustrates the data processing of the water quality meter data processing device according to this embodiment.

[0026] Figure 8 This is a schematic diagram of a water quality meter data processing system, a variation of this embodiment.

[0027] Figure 9 This is a control block diagram of the water quality meter data processing device in this modified example.

[0028] Figure 10 This diagram illustrates the data processing of the water quality meter data processing device in this modified example.

[0029] Figure 11 This is a control block diagram of a water quality meter data processing device according to another embodiment.

[0030] Figure 12 This diagram illustrates the data processing of the water quality meter data processing device according to this embodiment.

[0031] Figure 13 This is a control block diagram of a water quality meter data processing device according to another embodiment.

[0032] Figure 14 This diagram illustrates the data processing of the water quality meter data processing device according to this embodiment.

[0033] Symbol Explanation

[0034] 1…Water quality meter data processing unit, 1a…Image capturing unit, 1b…Communication unit, 2…Input unit, 2a…Individual identification data input unit, 2b…Measurement indication data input unit, 2c…Image capturing indication data input unit, 2d…Reagent preparation data input unit, 2e…Calibration solution data input unit, 2f…Calibration indication data input unit, 2g…Associated data input unit, 2h…Weight gauge measurement indication data input unit, 2i…Water quality meter measurement indication data input unit, 3…Output unit, 3a…Time-varying data display unit, 3b…Associated data display unit, 3c…Reagent preparation data display unit, 3d…Measurement value data display unit, 3e…Judgment data display unit, 4…Processing unit, 4a…Processor, 4b…Memory, 4c…Interface, 4d…Program, 10…Water The water quality meter data processing system includes: 11…water quality meter, 12…storage device, 13…control device, 14…communication unit, 15…weighing scale, 21…touch panel, 22…button, 23…microphone, 31…display, 32…speaker, 41…acquisition unit, 41a…individual identification data acquisition unit, 41b…measurement value data acquisition unit, 41c…measurement time data acquisition unit, 41d…image data acquisition unit, 41e…calibration solution data acquisition unit, 41f…correlation data acquisition unit, 42…storage unit, 42a…correlation data storage unit, 43…computation unit, 43a…reagent preparation data computation unit, 43b…preparation process judgment unit, 43c…learning unit, 43d…water quality meter quality judgment unit, 44…control unit, X1…the analyte. Detailed Implementation

[0035] The following is for reference Figure 1 and Figure 2 One embodiment of the water quality meter data processing system and water quality meter data processing device is described. It should be noted that in each figure ( Figures 3 to 14 Similarly, the dimensions in the attached figures may not be consistent with the actual dimensions, and the dimensions of each attached figure may also not be consistent.

[0036] like Figure 1 As shown, the water quality meter data processing system (hereinafter, also referred to as the "processing system") 10 includes at least one water quality meter 11 and a water quality meter data processing device (hereinafter, also referred to as the "processing device") 1, wherein the water quality meter data processing device 1 measures the measured substance (refer to) the water quality meter 11. Figure 4 The data obtained by X1 is processed. It should be noted that the processing system 10 may also include a storage device 12 for storing various data and a control device 13 for controlling the entire system, as in this embodiment.

[0037] Furthermore, each of the devices 1, 12, 13 and the multiple water quality meters 11 can communicate with each other through communication units 14, such as wireless communication units and wired communication units (e.g., wired LAN, communication cables, etc.). For example, wireless communication units can include the Internet, Bluetooth, wireless LAN, etc. It should be noted that, although not particularly limited, the processing device 1 and the water quality meters 11 can also be integrated into one unit.

[0038] Water quality meter 11 can be any instrument used to measure values ​​related to water, without any particular limitation. For example, water quality meters 11 can include pH meters, oxidation-reduction potential (ORP) meters, fluoride ion meters, ammonia meters, dissolved oxygen (DO) meters, conductivity meters, resistivity meters, activated sludge concentration (MLSS) meters, turbidity meters, colorimeters, and residual chlorine meters, etc.

[0039] The processing device 1 can be configured as a portable and transportable terminal device, for example. The processing device 1 can be configured as a tablet computer as in this embodiment, or as a smart device (smartphone), or as a laptop computer.

[0040] Storage device 12 may be, for example, a server. Control device 13 may be, for example, a personal computer or other types of computer. Furthermore, the owners of water quality meter 11 and each of the devices 1, 12, and 13 may be the same, or they may be different.

[0041] The processing device 1 includes an input unit 2 for inputting data and an output unit 3 for outputting data. As in this embodiment, the input unit 2 may include, for example, a touch panel 21 for inputting data by touch, and the output unit 3 may include, for example, a display 31 for displaying data. Furthermore, the touch panel 21 may be made transparent and disposed on the surface of the display 31, and the display on the display 31 may be visually confirmed via the touch panel 21.

[0042] In addition to the touch panel 21, the input unit 2 may also include a button 22 for inputting data by pressing and a microphone 23 for inputting data by sound, as in this embodiment. Furthermore, the output unit 3 may also include a speaker 32 for outputting data by sound, as in this embodiment. Additionally, the processing device 1 may also include an image capturing unit (e.g., a sensor with camera functionality) 1a, as in this embodiment.

[0043] It should be noted that, although not specifically limited, the water quality meter 11 and each of the devices 12 and 13 may, for example, have an input section for receiving various data, and may also have an acquisition section for acquiring various data, and may also have an output section for outputting various data. In the processing system 10, the input sections 2 of each of the devices 1, 11 to 13 are collectively referred to as input devices, and the output sections 3 of each of the devices 1, 11 to 13 are collectively referred to as output devices.

[0044] like Figure 2 As shown in (a), the processing device 1 includes a processing unit 4 for processing data and a communication unit (e.g., an antenna) 1b for transmitting and receiving data with external devices 11 to 13. The processing unit 4 includes an acquisition unit 41 for acquiring data, a storage unit 42 for storing data, a processing unit 43 for processing data, and a control unit 44 for controlling the processing device 1 (especially the output unit 3) based on the data.

[0045] It should be explained that, for example Figure 2 As shown in (b), the processing unit 4 is a computer equipped with processors 4a such as CPU and MPU (e.g., arithmetic unit 43, control unit 44), memory 4b such as ROM and RAM (e.g., acquisition unit 41, storage unit 42), and various interfaces 4c (e.g., acquisition unit 41). Furthermore, the processor 4a executes the program 4d stored in the memory 4b, thereby enabling the various parts 43 and 44 of the processing unit 4 to function through software and hardware cooperation.

[0046] For example, the processing unit 4 can be structured so that the processing is performed by a processor 4a in a single computer, namely the processing device 1. Alternatively, the processing unit 4 can be structured so that the processing is performed by multiple processors 4a in multiple computers, such as the processing device 1 and the control device 13, thereby realizing the processing unit 4.

[0047] Specifically, at least a portion of the arithmetic unit 43 and the control unit 44 of the processing unit 4 of the processing apparatus 1 in the following first to fourth embodiments may be disposed in another apparatus (e.g., Figure 1 The structure of the control device 13). Furthermore, although not particularly limited, at least a portion of the input unit 2, output unit 3, acquisition unit 41, and storage unit 42 of the processing device 1 in the first to fourth embodiments below may be disposed in other devices (e.g., Figure 1 The structure of the storage device 12 and the control device 13).

[0048] <First Implementation Method>

[0049] The following is for reference Figures 3-5 The first embodiment of the water quality meter data processing device 1 will be described.

[0050] like Figure 3 As shown, the input unit 2 includes an individual identification data input unit 2a, which receives data (individual identification data) for individual identification of the subject X1. Additionally, the input unit 2 includes: a measurement instruction data input unit 2b, which inputs data indicating that the water quality meter 11 should measure the subject X1 (measurement instruction data); and a shooting instruction data input unit 2c, which inputs data indicating that the shooting unit 1a should take a picture (shooting instruction data).

[0051] The acquisition unit 41 includes an individual identification data acquisition unit 41a for acquiring individual identification data. Additionally, the acquisition unit 41 includes: a measurement value data acquisition unit 41b, which acquires measurement value data (measurement value data) obtained by the water quality meter 11 measuring the subject X1; a measurement time data acquisition unit 41c, which acquires measurement time data (measurement time data) obtained by the water quality meter 11 measuring the subject X1; and an image data acquisition unit 41d, which acquires data obtained by photographing the subject X1 (image data).

[0052] Then, when measurement instruction data is input to the measurement instruction data input unit 2b, the measurement value data acquisition unit 41b acquires the measurement value data, and the measurement time data acquisition unit 41c acquires the measurement time data. Additionally, when shooting instruction data is input to the shooting instruction data input unit 2c, the shooting unit 1a takes a picture, and the shooting data acquisition unit 41d acquires the shooting data.

[0053] The storage unit 42 includes an associated data storage unit 42a for storing associated data. In this embodiment, the associated data is data obtained by associating individual identification data, image data, measurement value data when the subject X1 is photographed, and measurement time data. That is, the associated data includes data associated with the subject X1 (specifically, individual identification data and image data).

[0054] Next, refer to Figures 3-5 The data processing method of the water quality meter data processing device 1 according to the first embodiment will be described. It should be noted that, although not particularly limited, the water quality meter 11 can also be used in the following ways: Figures 3-5 That's how you set up a pH meter.

[0055] For example, individual identification data is input into the individual identification data input unit 2a, and the individual identification data acquisition unit 41a acquires the individual identification data, thereby, as Figure 4 As shown, display 31 shows the individual's identification data. Figure 4 ( Figure 5 In the same case, the individual identification data is "sample number 123".

[0056] It should be noted that the individual identification data may be, for example, numbers, and may be input into the individual identification data input unit 2a disposed on the touch panel 21. Alternatively, the individual identification data may be, for example, barcodes or QR codes, and may be input into the individual identification data input unit 2a via the camera unit 1a (or may be acquired by the individual identification data acquisition unit 41a).

[0057] Then, by inputting measurement instruction data to the measurement instruction data input unit 2b, the measurement value data acquisition unit 41b acquires the measurement value data, and the measurement time data acquisition unit 41c acquires the measurement time data. Additionally, by inputting shooting instruction data to the shooting instruction data input unit 2c, the shooting unit 1a takes a picture, and the shooting data acquisition unit 41d acquires the shooting data.

[0058] It should be explained that, for example Figure 4 As shown, for example, the measurement indication data input unit 2b and the shooting indication data input unit 2c are preferably shared. This allows the input time of the measurement indication data to coincide with the input time of the shooting indication data, and thus the acquisition time of the measurement value data can coincide with the acquisition time of the shooting data.

[0059] Furthermore, the associated data is stored in the associated data storage unit 42a. This associated data is obtained by associating individual identification data, imaging data, measurement value data during imaging of the subject X1, and measurement time data. It should be noted that in... Figure 4 In the data, the individual identification data is "sample number 123", the image data is "image of subject X1", the measured value data is "pH 6.75", and the measurement time data is "2020 / 08 / 01 12:34:56".

[0060] Furthermore, by storing multiple sets of related data, the calculation unit 43 calculates the data of the measured object X1 based on, for example, the related data of the same measured object X1. For example, such as... Figure 5 As shown, the arithmetic unit 43 calculates the measured value (in...). Figure 5 The data shows the time-dependent changes in pH (in the middle).

[0061] Furthermore, the display 31 may also include a time-varying data display unit 3a that displays the time-varying data of the measured value, and the time-varying data display unit 3a displays the time-varying data calculated by the calculation unit 43. Thus, the time-varying changes of the measured object X1 can be confirmed.

[0062] It should be noted that the display 31 may include a correlation data display unit 3b that displays the various correlation data that form the basis of the time-varying data. Furthermore, for example, the correlation data display unit 3b may display the correlation data by inputting instruction data (correlation data display instruction data) into the touch panel 21. Moreover, since the correlation data includes measurement value data, measurement time data, and image data, verification of, for example, time-varying data is also possible.

[0063] As described above, the water quality meter data processing method of this embodiment is executed by at least one computer to process the measured value data, which is the measured value data obtained by the water quality meter 11 measuring the measured object X1. The water quality meter data processing method includes: the step of acquiring the measured value data; and the step of storing associated data, which includes data associated with at least one of the measured object X1 and the water quality meter 11 (the measured object X1 in this embodiment).

[0064] In addition, the water quality meter data processing system 10 of this embodiment includes at least one water quality meter 11 and the water quality meter data processing device 1.

[0065] Furthermore, the water quality meter data processing device 1 of this embodiment is a water quality meter data processing device 1 that processes measurement data, which is the measurement data obtained by the water quality meter 11 measuring the measured object X1. The water quality meter data processing device 1 includes: a measurement data acquisition unit 41b, which acquires the measurement data; and a storage unit 42, which stores association data containing data associated with at least one of the measured object X1 and the water quality meter 11 (the measured object X1 in this embodiment).

[0066] According to this configuration, the measurement data obtained by the water quality meter 11 in measuring the test object X1 is acquired, i.e., the measurement value data, and then the association data containing data associated with at least one of the test object X1 and the water quality meter 11 is stored. Thus, the measurement value data can be processed based on the data associated with the water quality meter 11 or the test object X1.

[0067] Additionally, as in this embodiment, the water quality meter data processing device 1 may also be configured to include: an individual identification data acquisition unit 41a, which acquires individual identification data for individual identification of the measured object X1; and a measurement time data acquisition unit 41c, which acquires measurement time data, which is data of the time obtained by the water quality meter 11 measuring the measured object X1, and the associated data is data obtained by associating the individual identification data, the measurement value data, and the measurement time data.

[0068] Based on this configuration, individual identification data is acquired for identifying the subject X1, and measurement time data is acquired for the time the water quality meter 11 measures the subject X1. Furthermore, the correlation data is obtained by linking the individual identification data, the measured value data, and the measurement time data, thus enabling the confirmation of the time-related changes in the subject X1.

[0069] Alternatively, as in this embodiment, the water quality meter data processing device 1 may also be configured to include a photographic data acquisition unit 41d, which acquires photographic data obtained by photographing the measured object X1, and the associated data is data obtained by associating the individual identification data, the photographic data, the measured value data when the measured object X1 was photographed, and the measured time data.

[0070] Based on this configuration, photographic data obtained by photographing the subject X1 is acquired. Furthermore, the associated data is data obtained by associating individual identification data, photographic data, measurement value data at the time of photographing the subject X1, and the measurement time data. Therefore, it is possible to confirm the changes of the subject X1 over time, and also to leave evidence to prove that the data belongs to the subject X1.

[0071] It should be noted that the processing system 10, processing device 1, and processing method are not limited to the structure and function of the processing system 10, processing device 1, and processing method of the first embodiment described above. For example, the processing system 10, processing device 1, and processing method of the first embodiment described above may be modified as follows.

[0072] (1) The processing apparatus 1 of the first embodiment described above is configured to include a shooting data acquisition unit 41d for acquiring shooting data, and the associated data is data that includes the shooting data. However, the processing apparatus 1 is not limited to this structure. For example, in the processing apparatus 1, the associated data may not include the shooting data, but may be data obtained by associating individual identification data, measurement value data, and measurement time data only.

[0073] (2) Alternatively, for example, in the processing apparatus 1 of the first embodiment described above, the acquisition unit 41 may acquire sound data input to the microphone 23 when the imaging unit 1a captures an image, and the storage unit 42 may store the sound data. Furthermore, the associated data storage unit 42a may be configured to associate the stored sound data with individual identification data, imaging data, measurement value data when the measured object X1 is photographed, and measurement time data, and store it as associated data.

[0074] <Second Implementation Method>

[0075] Next, refer to Figure 6 and Figure 7 A second embodiment of the water quality meter data processing device 1 will be described. It should be noted that, in Figure 6 and Figure 7 In the middle, it is marked with Figures 1-5 The symbols that are the same as those above represent elements that have roughly the same structure or roughly the same function (effect), and will not be explained again.

[0076] like Figure 6 and Figure 7 As shown, the input unit 2 includes a reagent preparation data input unit 2d for inputting reagent preparation data, which is used to prepare reagents by adding various raw materials. Additionally, the input unit 2 includes a measurement indication data input unit 2b, which inputs data indicating the measurement of the test sample X1 (measurement indication data) to the water quality meter 11.

[0077] It should be noted that reagent preparation data includes data on the types of raw materials (raw material type data), data on the order in which raw materials are added (addition order data), data on the amount of raw materials added (addition amount data), and data on the allowable values ​​of the measured values ​​when adding raw materials (allowable value data). Additionally, reagent preparation data includes data on the types of reagents to be prepared (preparation type data) and data on the amount of reagents to be prepared (preparation amount data).

[0078] The acquisition unit 41 includes a measurement data acquisition unit 41b, which acquires measurement data (measurement data) obtained by the water quality meter 11 measuring the test object X1. Furthermore, when measurement instruction data is input to the measurement instruction data input unit 2b, the measurement data acquisition unit 41b acquires the measurement data.

[0079] The storage unit 42 includes an associated data storage unit 42a for storing associated data. In this embodiment, the associated data is reagent preparation data. That is, the associated data includes data associated with the analyte X1 (specifically, each piece of reagent preparation data).

[0080] The calculation unit 43 includes a reagent preparation data calculation unit 43a, which calculates reagent preparation data based on associated data stored in the associated data storage unit 42a. Additionally, the calculation unit 43 includes a preparation process determination unit 43b, which determines the quality of the reagent preparation process based on measured value data and allowable value data.

[0081] The output unit 3 includes a reagent preparation data display unit 3c that displays reagent preparation data. Additionally, the output unit 3 includes a measurement value data display unit 3d that displays measured value data and a determination data display unit 3e that displays the determination data (determination data) from the preparation process determination unit 43b.

[0082] Next, refer to Figure 6 and Figure 7 The data processing method of the water quality meter data processing device 1 according to the second embodiment will be described. It should be noted that, although not particularly limited, the water quality meter 11 can also be used in the following ways: Figure 7 That's how you set up a pH meter.

[0083] For example, by inputting preparation type data and preparation quantity data into the reagent preparation data input unit 2d, the reagent preparation data calculation unit 43a calculates the reagent preparation data based on the associated data stored in the associated data storage unit 42a, and the reagent preparation data display unit 3c displays the calculated reagent preparation data. Specifically, the input sequence data, raw material type data, input quantity data, and allowable value data are calculated and displayed.

[0084] exist Figure 7In the diagram, the first row from the top contains data on the preparation type and quantity; the first column from the left contains data on the order of input; the second column from the left contains data on the types of raw materials; the third column from the left contains data on the quantity of input; and the fourth column from the left contains data on permissible values. Therefore, by inputting the determined quantities of raw materials a, b, c, d, and e in the specified order, 500 ml of reagent A can be prepared.

[0085] The permissible value is the permissible pH value of the sample X1 at the time of raw material input. Figure 7 For example, for the first test subject X1 with 100 ml of raw material a, the allowable pH value is 6.5 to 7.5, and for the second test subject X1 with 120 ml of raw material b, the allowable pH value is 7.5 to 8.5.

[0086] However, when the pH deviates from the allowable value, errors may occur in the amount of raw materials or the amount of raw materials added. Therefore, whenever raw materials a to e are added, measurement indication data is input to the measurement indication data input unit 2b, and the measurement value data acquisition unit 41b acquires the measurement value data.

[0087] Furthermore, the preparation process judgment unit 43b determines the quality of the reagent preparation process based on the obtained measured value data and allowable value data. Specifically, if the measured value data is included in the allowable value data, the preparation process judgment unit 43b determines it to be excellent; if the measured value data deviates from the allowable value data, the preparation process judgment unit 43b determines it to be poor.

[0088] Furthermore, the measurement data display unit 3d displays the acquired measurement data, and the judgment data display unit 3e displays the judgment data. Therefore, it is possible to compare the allowable value data and the measurement data, thus enabling the preparation of suitable reagents. Figure 7 In the table, the measured data is in the fifth column from the left, and the judgment data is in the sixth column from the left.

[0089] It should be noted that if the manufacturing process determination unit 43b determines the process as "inferior", the output unit 3 may also output "inferior". For example, the speaker 32 may output sound, and the determination data display unit 3e may flash the determination data or display "inferior" on the entire display 31.

[0090] As described above, the water quality meter data processing device 1 of this embodiment is a water quality meter data processing device 1 that processes measurement data, which is the measurement data obtained by the water quality meter 11 measuring the measured object X1. The water quality meter data processing device 1 includes: a measurement data acquisition unit 41b, which acquires the measurement data; and a storage unit 42, which stores association data containing data associated with at least one of the measured object X1 and the water quality meter 11 (the measured object X1 in this embodiment).

[0091] According to this configuration, measured value data is acquired, and then associated data is stored. The measured value data is the data obtained by the water quality meter 11 measuring the measured object X1, and the associated data includes data associated with at least one of the measured object X1 and the water quality meter 11. Thus, the measured value data can be processed based on the data associated with the water quality meter 11 or the measured object X1.

[0092] Furthermore, as in this embodiment, in the water quality meter data processing device 1, the associated data is reagent preparation data for adding various raw materials to prepare the reagent. The associated data includes: data on the types of raw materials, i.e., raw material type data; data on the order of adding raw materials, i.e., addition order data; data on the amount of raw materials added, i.e. addition amount data; and data on the allowable value of the measured value data when adding raw materials, i.e. allowable value data. The water quality meter data processing device 1 may also be configured to have a reagent preparation data display unit 3c that displays the reagent preparation data and a measured value data display unit 3d that displays the measured value data.

[0093] According to the above structure, the associated data is reagent preparation data used to prepare reagents by adding multiple raw materials, and includes allowable value data, which is data on the allowable values ​​of the measured values ​​when the raw materials are added. Furthermore, since the reagent preparation data is displayed, reagent preparation can be easily achieved. Additionally, since both allowable value data and measured value data are displayed, comparison between the allowable value data and the measured value data is possible. Therefore, suitable reagents can be prepared.

[0094] Alternatively, as in this embodiment, the water quality meter data processing device 1 may be configured such that: the water quality meter 11 is a pH meter for measuring the pH of the sample X1, the allowable value data includes allowable pH value data, and the measurement value display unit 3d displays the measurement value data obtained by the pH meter from measuring the sample X1.

[0095] According to this configuration, the allowable value data includes allowable pH value data, and the measurement value data display unit 3d displays the measurement value data obtained by the pH meter on the test subject X1. Therefore, it is possible to compare the pH value of the test subject X1 measured by the pH meter and displayed on the measurement value data display unit 3d with the allowable value displayed by the reagent preparation data display unit 3c.

[0096] It should be noted that the processing system 10, processing device 1, and processing method are not limited to the structure and function of the processing system 10, processing device 1, and processing method of the second embodiment described above. For example, the processing system 10, processing device 1, and processing method of the second embodiment described above may be modified as follows.

[0097] (1) Regarding the processing apparatus 1 of the second embodiment described above, the measurement value display unit 3d can also be modified as follows: it can display not only the measurement value data obtained by the water quality meter 11 from measuring the measured object X1, but also the measurement value data obtained by other instruments from measuring the measured object X1. Although there is no particular limitation, as Figure 8 As shown, other measuring instruments could also be, for example, a weight 15.

[0098] The following are Figures 8-10 The structure of the processing device 1 will be described.

[0099] like Figures 8-10 As shown, the input unit 2 may also include a measurement indication data input unit 2b, which receives measurement indication data (measurement indication data) that instructs the measuring instruments 11 and 15 to measure the measured object X1. For example, the measurement indication data input unit 2b may include a weight meter measurement indication data input unit 2g that inputs measurement indication data to a weight meter (e.g., a scale, balance) 15, and a water quality meter (in... Figure 9 and Figure 10 The middle part is the pH meter) 11 water quality meter measurement indication data input section 2h.

[0100] The measurement data acquisition unit 41b can also acquire measurement data obtained by measuring the test object X1 using the water quality meter 11 and the weighing meter 15. Specifically, when measurement indication data is input to the weighing meter measurement indication data input unit 2h, the measurement data acquisition unit 41b can acquire measurement data from the weighing meter 15; when measurement indication data is input to the water quality meter measurement indication data input unit 2i, the measurement data acquisition unit 41b can acquire measurement data from the water quality meter 11.

[0101] Next, refer to Figure 9 and Figure 10 right Figures 8-10 An example of the data processing method of the water quality meter data processing device 1 will be described.

[0102] For example, by inputting preparation type data and preparation quantity data into the reagent preparation data input section 2d, such as... Figure 10 As shown, the data on the order of input, types of raw materials, input amounts, and allowable values ​​are displayed. Furthermore, by inputting raw material f, raw material g, pure water, and raw material h in predetermined amounts, 500 ml of reagent B can be prepared.

[0103] It should be noted that, although not specifically limited, raw materials f and g are solids (e.g., powders), while pure water and raw material h are liquids. Therefore, the permissible values ​​for adding raw materials f and g are permissible values ​​by weight, and the permissible values ​​for adding pure water and raw material h are permissible values ​​by pH.

[0104] Although not specifically limited, examples of reagent B include: Tris(hydroxymethyl)aminomethane hydrochloride (Tris) buffer, glycine buffer, Trimethylglycine (Tricine) buffer, HEPES buffer, phosphate buffer, 3-(N-morpholino)propanesulfonic acid (MOPS) buffer, 2-morpholinoethanesulfonic acid (MES) buffer, acetate buffer, carbonate buffer, citrate buffer, sodium borate buffer, zwitterionic (Good's) buffer, pentobarbital buffer, Clark-Lubs solution (pH 1.0-2.2), p-toluenesulfonic acid-sodium p-toluenesulfonate buffer, Clark-Lubs solution (pH 2.2-4.0), succinate-sodium hydroxide buffer, Clark-Lubs solution (pH 4.1-5.9), sodium dimethylarsinate-hydrochloride buffer, sodium maleate-sodium hydroxide buffer, Clark-Lubs solution (pH 1.0-2.2). 5.8-8.0), imidazole-hydrochloric acid buffer, 2,4,6-trimethylpyridine-hydrochloric acid buffer, citrate-disodium hydrogen phosphate buffer, 2-amino-2-methyl-1,3-propanediol-hydrochloric acid buffer, diethanolamine-hydrochloric acid buffer, sodium carbonate-sodium bicarbonate buffer, carbonate buffer, phosphate buffer, sodium hydroxide-hydrochloric acid buffer, β-β'-dimethylglutaric acid-sodium hydroxide buffer, etc.

[0105] Furthermore, whenever raw material f and raw material g are added, measurement indication data is input to the weighing meter measurement indication data input unit 2h, and the measurement value data acquisition unit 41b acquires the measurement value data from the weighing meter 15. Additionally, whenever pure water and raw material h are added, measurement indication data is input to the water quality meter measurement indication data input unit 2i, and the measurement value data acquisition unit 41b acquires the measurement value data from the water quality meter 11.

[0106] Furthermore, the preparation process judgment unit 43b determines the quality of the reagent preparation process based on the acquired measured value data and allowable value data, the measured value data display unit 3d displays the acquired measured value data, and the judgment data display unit 3e displays the judgment data. It should be noted that, although not particularly limited, the storage unit 42 may, for example, store data that associates each measured value data, or, for example, store data that associates each measured value data with the individual information of the prepared reagent (e.g., reagent number).

[0107] Thus, in the water quality meter data processing device, such as Figures 8-10 As shown, it can also be configured such that: the allowable value data includes allowable weight value data, and the measured value data display unit 3d displays the measured value data obtained by the weight gauge 15 measuring the measured body X1.

[0108] Based on this configuration, the allowable value data includes allowable weight data, and the measurement value data display unit 3d displays the measurement value data obtained by the weighing meter 15 measuring the test object X1. Therefore, it is possible to compare the weight value of the test object X1 measured by the weighing meter and displayed on the measurement value data display unit 3d with the allowable value displayed by the reagent preparation data display unit 3c.

[0109] It should be noted that, although not specifically limited, the reagent preparation data calculation unit 43a can also calculate the amount of raw materials to be input based on measured data. For example, such as Figure 10 As shown, the reagent preparation data calculation unit 43a can also calculate the amount of raw material h (e.g., pH adjustment solution) added after adding pure water based on the measurement data obtained from the water quality meter 11, and the reagent preparation data display unit 3c displays the calculated amount of raw material h.

[0110] Furthermore, although not specifically limited, before measuring the object X1 using the weighing scale 15, it is sometimes necessary to calibrate the weighing scale 15 using a standard instrument (weights, etc.). In this case, for example, the storage unit 42 can store the data after calibration of the weighing scale 15 (e.g., calibration date and time), and it can also be stored as data obtained by associating the measured value data obtained from the weighing scale 15 with the calibrated data.

[0111] (2) In addition, the second embodiment described above and Figures 8-10 The processing device 1 is configured to include a preparation process determination unit 43b. However, the processing device 1 is not limited to this structure. For example, the processing device 1 may also be configured to not include the preparation process determination unit 43b, but to confirm the preparation process by comparing the allowable value data displayed on the reagent preparation data display unit 3c with the measured value data displayed on the measured value data display unit 3d.

[0112] (3) In addition, in the above-described second embodiment and Figures 8-10 In the processing apparatus 1, preparation type data, preparation quantity data, input sequence data, raw material type data, input quantity data, and allowable value data can also be input into the reagent preparation data input unit 2d, and the associated data storage unit 42a stores the input data. Thus, new reagent preparation data can be added to the processing apparatus 1.

[0113] <Third Implementation Method>

[0114] Next, refer to Figure 11 and Figure 12 A third embodiment of the water quality meter data processing device 1 will be described. It should be noted that, in Figure 11 and Figure 12 In the middle, it is marked with Figures 1-10 The symbols that are the same as those above represent elements that have roughly the same structure or roughly the same function (effect), and will not be explained again.

[0115] The water quality meter 11 of this embodiment is a pH meter 11 that measures the sample X1 by outputting an electrical signal (e.g., voltage value, current value). Then, the pH meter 11 is calibrated by matching the pH value with the electrical signal using a calibration solution (e.g., calibration solutions with pH values ​​of 4.0, 7.0, and 9.0). For example, the electrical signal value measured with a calibration solution of pH 9.0 is set to display the electrical signal value of pH 9.0.

[0116] like Figure 11 As shown, the input unit 2 includes an individual identification data input unit 2a, which receives data (individual identification data) for individual identification of the water quality meter 11. Additionally, the input unit 2 includes: a calibration solution data input unit 2e, which receives pH data of the measured sample X1, i.e., the calibration solution (calibration solution data); and a calibration indication data input unit 2f, which receives indication data for calibrating the pH meter 11 (calibration indication data).

[0117] The acquisition unit 41 includes: an individual identification data acquisition unit 41a, which acquires individual identification data; and a calibration solution data acquisition unit 41e, which acquires calibration solution data. Additionally, the acquisition unit 41 includes: a measurement value data acquisition unit 41b, which acquires data of the electrical signal output from the pH meter 11 (measurement value data); and a measurement time data acquisition unit 41c, which acquires data of the time it takes for the electrical signal data to be acquired from the pH meter 11 (measurement time data).

[0118] In other words, the measurement value data acquisition unit 41b acquires the electrical signal data (measurement value data) obtained by the pH meter 11 measuring the calibration solution, which is the analyte X1, and the measurement time data acquisition unit 41c acquires the data of the time the pH meter 11 measures the calibration solution, which is the analyte X1, (measurement time data). It should be noted that when calibration instruction data is input to the calibration instruction data input unit 2f, the measurement value data acquisition unit 41b acquires the measurement value data, and the measurement time data acquisition unit 41c acquires the measurement time data.

[0119] The storage unit 42 includes an association data storage unit 42a for storing association data. In this embodiment, the association data is data obtained by associating calibration solution data with measurement value data. That is, the association data includes data associated with the measured object X1 (specifically, calibration solution data).

[0120] Next, refer to Figure 11 and Figure 12 The data processing method of the water quality meter data processing device 1 according to the third embodiment will be described.

[0121] First, during pH meter 11 calibration, individual identification data is input to individual identification data input unit 2a, and individual identification data acquisition unit 41a acquires this individual identification data. Additionally, calibration solution data is input to calibration solution data input unit 2e, and calibration solution data acquisition unit 41e acquires this calibration solution data.

[0122] For example, such as Figure 12 As shown, display 31 can also display individual identification data and calibration fluid data. Figure 12 In the data, the individual identification data is "pH meter number 12" and the calibration solution data is "calibration solution pH 9.0".

[0123] Alternatively, the individual identification data and calibration fluid data may be numbers, for example, and input to the input units 2a and 2e disposed on the touch panel 21. Alternatively, the individual identification data and calibration fluid data may be barcodes or QR codes, for example, and input to the input units 2a and 2e via the imaging unit 1a.

[0124] Subsequently, by inputting calibration instruction data into the calibration instruction data input unit 2f, the measurement value data acquisition unit 41b acquires the measurement value data, and the measurement time data acquisition unit 41c acquires the measurement time data. Furthermore, the data obtained by associating the calibration solution data with the measurement value data, i.e., the associated data, is stored in the associated data storage unit 42a.

[0125] And, as Figure 12As shown, the display 31 may also include a correlation data display unit 3b, which can also display correlation data obtained by correlating the calibration solution data with the measured value data. This allows for future verification of the calibration status of the pH meter 11.

[0126] For example, if the value of the electrical signal output from pH meter 11 deviates significantly from the predetermined electrical signal value, it can be determined that there is an abnormality in the calibration solution (e.g., an error in the calibration solution, pH deviation caused by deterioration of the calibration solution, etc.). In this way, for example, it is possible to verify the abnormality of pH meter 11 or the abnormality of the calibration solution.

[0127] As described above, the water quality meter data processing device 1 of this embodiment is a water quality meter data processing device 1 that processes measurement data, wherein the measurement data is the data of measurement values ​​obtained by the water quality meter 11 measuring the measured object X1. The water quality meter data processing device 1 includes: a measurement data acquisition unit 41b, which acquires the measurement data; and a storage unit 42, which stores association data containing data associated with at least one of the measured object X1 and the water quality meter 11 (the measured object X1 in this embodiment).

[0128] According to this configuration, the measurement data obtained by the water quality meter 11 in measuring the test object X1 is acquired, and the association data containing data associated with at least one of the test object X1 and the water quality meter 11 is stored. Therefore, the measurement data can be processed using the data associated with the water quality meter 11 or the test object X1.

[0129] Alternatively, as in this embodiment, the water quality meter data processing device 1 may be configured such that: the water quality meter 11 is a pH meter 11 that outputs the measured value obtained by measuring the test subject X1 in the form of an electrical signal; the water quality meter data processing device 1 further includes a calibration liquid data acquisition unit 41e, which acquires the pH data of the calibration liquid used as the test subject X1, i.e., calibration liquid data; the measured value data acquisition unit 41b acquires the data of the electrical signal output from the pH meter 11, i.e., measured value data; and the associated data is data obtained by associating the calibration liquid data with the measured value data.

[0130] Based on this configuration, the pH data of the calibration solution, which is the analyte X1, is acquired, i.e., the calibration solution data. Then, the data of the electrical signal output from the pH meter 11, i.e., the measured value data, is acquired. Furthermore, the correlation data is obtained by linking the calibration solution data and the measured value data, so the calibration status of the pH meter 11 can be confirmed in the future.

[0131] <Fourth Implementation Method>

[0132] Next, refer to Figure 13 and Figure 14 A fourth embodiment of the water quality meter data processing device 1 will be described. It should be noted that, in Figure 13 and Figure 14 In the middle, the annotation and Figures 1-12 The symbols that are the same as those above represent elements that have roughly the same structure or roughly the same function (effect), and will not be explained again.

[0133] like Figure 13 and Figure 14 As shown, the storage unit 42 includes an associated data storage unit 42a for storing associated data. In this embodiment, the associated data is data obtained by associating measured value change data with water quality meter quality data. The measured value change data is data showing the change of measured value data relative to the elapsed measurement time, and the water quality meter quality data is data showing the quality of the water quality meter 11. That is, the associated data is data related to the water quality meter 11 (specifically, water quality meter quality data).

[0134] The input unit 2 includes: a correlation data input unit 2g, which inputs correlation data; and a measurement indication data input unit 2b, which receives data (measurement indication data) indicating that the water quality meter 11 measures the measured object X1. It should be noted that, for example, the correlation data can also be transmitted from various water quality meters 11 via the communication unit 14. That is, the correlation data storage unit 42a can also store and accumulate data from various water quality meters 11.

[0135] The acquisition unit 41 includes a correlation data acquisition unit 41f for acquiring correlation data. In addition, the acquisition unit 41 includes: a measurement value data acquisition unit 41b, which acquires the measurement value data (measurement value data) obtained by the water quality meter 11 in measuring the test object X1; and a measurement time data acquisition unit 41c, which acquires the time data (measurement time data) obtained by the water quality meter 11 in measuring the test object X1.

[0136] The computing unit 43 includes a learning unit 43c, which performs machine learning based on teaching data stored in the associated data storage unit 42a. Specifically, the learning unit 43c uses association data obtained by associating measurement change data with water quality meter quality data as teaching data to perform machine learning on a judgment model that takes measurement change data as input and water quality meter quality data as output. Although not particularly limited, the learning unit 43c may, for example, learn a neural network using deep learning.

[0137] Furthermore, the computing unit 43 includes a water quality meter quality determination unit 43d, which uses a determination model that has undergone machine learning by the learning unit 43c to determine the quality of the water quality meter 11 based on specified measurement value change data. Although not particularly limited, the water quality meter quality determination unit 43d can, for example, use a learned neural network to output water quality meter quality data based on specified measurement value change data.

[0138] Furthermore, for example, the water quality indicator quality assessment unit 43d outputs water quality indicator quality data, which is displayed on the display 31 of the output unit 3. Thus, for example, the quality of the water quality indicator 11 can be determined based on the correlation data (teaching data) of various water quality indicators 11, and therefore the quality of the water quality indicator 11 can be determined more appropriately.

[0139] Furthermore, for example, the determined data can be associated with the individual identification data of the water quality meter 11 and stored in the storage unit 42. For example, the individual identification data of the water quality meter 11 (e.g., the water quality meter 11 itself, the electrodes of the water quality meter 11, and its constituent components) can be a number, which can be input to the touch panel 21. Alternatively, it can be a barcode or QR code, which can be input to the input unit 2 via the imaging unit 1a (or acquired by the acquisition unit 41).

[0140] It should be noted that the teaching data used in the learning section 43c may include at least one of the following: manufacturing batch data of the water quality meter 11 (manufacturing batch data), cumulative usage time data of the water quality meter 11 (cumulative usage time data), sensitivity data of the water quality meter 11 (sensitivity data), asymmetry potential data of the water quality meter 11 (asymmetry potential data), and data captured by the water quality meter 11 (capture data). Furthermore, the water quality meter quality assessment section 43d may not only include measured value change data, but may also include at least one of the following: manufacturing batch data, cumulative usage time data, sensitivity data, asymmetry potential data, and capture data, to determine the quality of the water quality meter 11.

[0141] Furthermore, the teaching data used in the learning unit 43c can also be data from which characteristic features are extracted from the measured value change data. For example, the teaching data can be data extracted from the period before the measured value data stabilizes in the measured value change data, or it can be data extracted from the period after the measured value data stabilizes. Then, the water quality meter quality judgment unit 43d can determine the quality of the water quality meter 11 based on the data extracted from the measured value change data.

[0142] As described above, the water quality meter data processing device 1 of this embodiment is a water quality meter data processing device 1 that processes measurement data, wherein the measurement data is the data of measurement values ​​obtained by the water quality meter 11 measuring the measured object X1. The water quality meter data processing device 1 includes: a measurement data acquisition unit 41b, which acquires the measurement data; and a storage unit 42, which stores association data containing data associated with at least one of the measured object X1 and the water quality meter 11 (in this embodiment, the water quality meter 11).

[0143] According to this configuration, the measurement data obtained by the water quality meter 11 in measuring the measured object X1 is acquired, and the associated data containing data related to at least one of the measured object X1 and the water quality meter 11 is stored. Thus, the measurement data can be processed using the data associated with the water quality meter 11 or the measured object X1.

[0144] Furthermore, as in this embodiment, in the water quality meter data processing device 1, the associated data is data obtained by associating measured value change data with water quality meter quality data. The measured value change data is data on the change of the measured value data relative to the elapsed measurement time, and the water quality meter quality data is data on the quality of the water quality meter 11. The water quality meter data processing device 1 may also be configured to further include: a learning unit 43c, which uses the associated data as teaching data to perform machine learning on a judgment model that takes the measured value change data as input and the water quality meter quality data as output; and a water quality meter quality judgment unit 43d, which uses the judgment model to judge the quality of the water quality meter 11 based on the specified measured value change data.

[0145] According to this configuration, the learning unit 43c uses correlation data obtained by linking measured value change data with water quality meter quality data as teaching data to perform machine learning on a judgment model that takes measured value change data as input and water quality meter quality data as output. Then, the water quality meter quality judgment unit 43d uses the judgment model to judge the quality of the water quality meter 11 based on the specified measured value change data. Thus, the quality of the water quality meter 11 can be appropriately judged.

[0146] It should be noted that the processing system 10, processing apparatus 1, and processing method are not limited to the embodiments described above, nor are they limited to the effects described above. Furthermore, the processing system 10, processing apparatus 1, and processing method can of course be modified in various ways without departing from the spirit of the present invention. For example, the various configurations and methods of the multiple embodiments described above can be arbitrarily adopted and combined (the configurations and methods of one embodiment can also be applied to the configurations and methods of other embodiments), and of course, one or more of the various modified configurations and methods described above can be arbitrarily adopted and incorporated into the structure and method of the above embodiments.

Claims

1. A water quality meter data processing device, characterized in that, The water quality meter data processing device processes the measured data, which are the measured values ​​obtained by the water quality meter from measuring the sample. The water quality meter data processing device includes: The measurement data acquisition unit acquires the measurement data; A storage unit that stores associated data, the associated data including data associated with at least one of the measured object and the water quality meter; Individual identification data acquisition unit acquires individual identification data as data for individual identification of the measured object; as well as The measurement time data acquisition unit acquires measurement time data, which is the time data obtained by the water quality meter in measuring the sample. The associated data is obtained by linking the individual identification data, the measured value data, and the measured time data.

2. The water quality meter data processing device according to claim 1, characterized in that, The associated data further comprises reagent preparation data for preparing reagents by adding multiple raw materials, including raw material type data as data on the types of raw materials, input order data as data on the order of input of raw materials, input amount data as data on the amount of raw materials input, and allowable value data as data on the allowable values ​​of the measured values ​​when the raw materials are input. The water quality meter data processing device includes a reagent preparation data display unit that displays the reagent preparation data and a measurement value data display unit that displays the measurement value data.

3. The water quality meter data processing device according to claim 2, characterized in that, The water quality meter is a pH meter used to measure the pH of the sample being tested. The allowable value data includes allowable pH value data. The measurement data display unit displays the measurement data obtained by the pH meter on the measured object.

4. The water quality meter data processing device according to claim 3, characterized in that, The allowable value data includes allowable value data for weight. The measurement data display unit displays the measurement data obtained by the weight gauge measuring the object being measured.

5. The water quality meter data processing device according to claim 1, characterized in that, The associated data is further derived by linking measured value change data with water quality meter performance data. The measured value change data represents the change in the measured value over time, and the water quality meter performance data represents the performance of the water quality meter. The water quality meter data processing device also includes: The learning department uses the associated data as teaching data to perform machine learning on a judgment model that takes the measured value change data as input data and the water quality meter quality data as output data. as well as The water quality meter quality assessment unit uses the assessment model to determine the quality of the water quality meter based on the specified measurement value change data.

6. The water quality meter data processing device according to claim 1, characterized in that, The water quality meter data processing device also includes an image data acquisition unit, which acquires image data obtained by photographing the measured object. The associated data is further obtained by associating the individual identification data, the shooting data, the measurement value data when the subject was photographed, and the measurement time data.

7. The water quality meter data processing device according to claim 1, characterized in that, The water quality meter is a pH meter that measures the pH of the sample by outputting an electrical signal. The water quality meter data processing device also includes a calibration solution data acquisition unit, which acquires the pH data of the calibration solution used as the analyte, i.e., the calibration solution data. The measurement data acquisition unit acquires the electrical signal data output from the pH meter, i.e., the measurement data. The associated data is further defined as data obtained by linking the calibration solution data and the measured value data.

8. A water quality meter data processing system, characterized in that, have: At least one water quality meter; and The water quality meter data processing device according to any one of claims 1 to 7.

9. A method for processing water quality meter data, characterized in that, The process, performed by at least one computer, involves processing the measurement data obtained from the measurement of the analyte by the water quality meter. The water quality meter data processing method includes: The steps for obtaining the measured data; The step of storing associated data, the associated data including data associated with at least one of the measured object and the water quality meter; The step of acquiring individual identification data as data for individual identification of the subject being measured; and The step of obtaining measurement time data, which is the time data obtained by the water quality meter in measuring the test object. The associated data is obtained by linking the individual identification data, the measured value data, and the measured time data.

Images