Measurement result output device, measurement result output method, program, and data structure
By classifying and displaying measurement results into conformance, nonconformance, and potential nonconformance, the method addresses the challenge of identifying problematic items in measuring instruments, enhancing the clarity and efficiency of calibration processes.
Patent Information
- Application Number
- JP2024079477
- Authority / Receiving Office
- JP · JP
- Patent Type
- Applications
- Current Assignee / Owner
- Filing Date
- 2024-05-15
- Publication Date
- 2025-11-28
AI Technical Summary
Existing measuring instruments and devices face challenges in clearly identifying which measurement item has a problem when measuring output relative to input, as calibration results are often displayed graphically, making it difficult to determine non-compliant or potentially non-compliant items.
The measurement results are classified into conformance, nonconformance, and potential nonconformance, and displayed in different modes, with non-compliant or potentially non-compliant results highlighted in distinct formats, using a program to determine and output these results based on deviation from predetermined values.
This approach allows for clear identification of problematic measurement items, enabling easy recognition of non-compliant or potentially non-compliant results, facilitating targeted adjustments or repairs.
Smart Images

Figure 2025173752000001_ABST
Abstract
Description
[Technical Field]
[0001] The present disclosure relates to a technique for visualizing measurement results when measuring an output relative to an input. [Background technology]
[0002] Measuring instruments are subject to a phenomenon known as drift, in which the relationship between input and output changes over time. For this reason, calibration is performed to measure the output relative to the input to the measuring instrument and determine whether the measurement result deviates from an appropriate value (see, for example, Patent Document 1). The output value relative to the input to the measuring instrument is also called a calibration value, a calibration value, or a measurement value, but in this disclosure, it will be referred to as a calibration value. In Patent Document 1, the report of the measurement results from calibration displays a graph showing the change in the calibration value over time, allowing the user to determine when to adjust the measuring instrument based on this graph.
[0003] Measuring instruments are calibrated for each measurement item specified for the instrument. Because there are a wide variety of measurement items, when each calibration value is displayed graphically, it can be difficult to determine which measurement item of the measuring instrument has a problem. [Prior art documents] [Patent documents]
[0004] [Patent Document 1] Japanese Patent Application Publication No. 11-83536 Summary of the Invention [Problem to be solved by the invention]
[0005] Although devices other than measuring instruments, such as signal generators, also measure output relative to input, they have the same problems as measuring instruments. Therefore, the purpose of this disclosure is to clearly display which measurement item has a problem when measuring output relative to input. [Means for solving the problem]
[0006] In the present disclosure, the measurement results obtained when measuring an output relative to an input are classified into conformance, nonconformance, and potential nonconformance, and are displayed in different display modes.
[0007] Specifically, the measurement result output device (91) and the measurement result output method of the present disclosure include: determining whether the measurement result corresponding to the measurement item is conforming, nonconforming, or potentially nonconforming based on the degree of deviation from a predetermined value determined for the measurement item; Based on the result of the judgment, the measurement items and the measurement results are output so that the measurement results that are non-compliant or potentially non-compliant are displayed in a different manner from the measurement results that are compliant.
[0008] Specifically, the program of the present disclosure causes the measurement result output device (91) to: a step of determining whether a measurement result corresponding to a measurement item corresponds to conformance, non-conformance, or potential non-conformance, based on the degree of deviation from a predetermined value determined for the measurement item; a step of outputting the measurement items and the measurement results so that the measurement results that are non-compliant or potentially non-compliant are displayed in a different manner from the measurement results that are compliant based on the result of the judgment; Execute the following.
[0009] The output may be output of display data including display columns (81, 82, 83) for the measurement results. In this case, the measurement result output device may associate link information with the display columns in the display data so that, when a display column is selected, information on the measurement result corresponding to the selected display column is displayed. The measurement result output device may display the display columns in a color or pattern according to the result of the determination.
[0010] The data structure of the present disclosure is: A data structure of display data having measurement items and measurement results, the measurement result includes any one of conformance, nonconformance, and potential nonconformance, determined based on the degree of deviation from a predetermined value determined for the measurement item; The display mode of the measurement results corresponding to non-conformance and potential non-conformance is different from the display mode of the measurement results corresponding to conformance.
[0011] The display data may include a display field for the measurement results for each of the measurement items. In this case, link information is linked to the display fields in the display data so that when a display field is selected, information on the measurement results corresponding to the selected display field is displayed. The information on the measurement results may include a time series graph corresponding to the selected display field.
[0012] The above disclosures can be combined as much as possible. [Effects of the Invention]
[0013] According to the present disclosure, it is possible to clearly display which measurement item has a problem when measuring an output relative to an input. [Brief explanation of the drawings]
[0014] [Figure 1] 1 illustrates an example embodiment of a measurement result output device of the present disclosure. [Figure 2] 1 illustrates an example embodiment of a measurement result output method according to the present disclosure. [Figure 3] FIG. 10 is an explanatory diagram of a process for determining whether a measurement result is conforming, nonconforming, or potentially nonconforming. [Figure 4] 10A and 10B are explanatory diagrams of the process for determining whether the measurement results are conforming, nonconforming, or potentially nonconforming; (A) shows an example in which there is an upper limit value LU for a predetermined value VB, and (B) shows an example in which there is a lower limit value LL for a predetermined value VB. [Figure 5] 10 shows an example of the measurement result output by the measurement result output device. [Figure 6] 10 shows an example of the measurement result output by the measurement result output device. [Figure 7] 10 shows an example of the measurement result output by the measurement result output device. [Figure 8]10 shows an example of the measurement result output by the measurement result output device. [Figure 9] 10 shows an example of the measurement result output by the measurement result output device. [Figure 10] 10 shows an example of the measurement result output by the measurement result output device. [Figure 11] 10 shows an example of the measurement result output by the measurement result output device. [Figure 12] 10 shows an example of a time series graph output by the measurement result output device. DETAILED DESCRIPTION OF THE INVENTION
[0015] Hereinafter, embodiments of the present disclosure will be described in detail with reference to the drawings. Note that the present disclosure is not limited to the embodiments shown below. These implementation examples are merely illustrative, and the present disclosure can be implemented in various forms with various modifications and improvements based on the knowledge of those skilled in the art. Note that components with the same reference numerals in this specification and drawings indicate the same components.
[0016] In the following embodiment, as an example of the present disclosure, an example will be shown in which measurement of an output relative to an input is calibration of a measuring instrument, and the measuring instrument is a signal analyzer and a spectrum analyzer.
[0017] Examples of measurement items that can be measured by a signal analyzer include the following: Frequency (frequency accuracy of the internal reference oscillator, sideband noise relative to the center frequency) Amplitude (input attenuator switching error) RF (Radio Frequency) frequency characteristics Spurious response (second harmonic distortion, residual response)
[0018] Examples of measurement items that a spectrum analyzer can use include the following: Frequency (span, display frequency accuracy) Display frequency accuracy Display average noise level Spurious response (two-signal third-order distortion, image response)
[0019] The RF frequency characteristics can be set to multiple values, such as 10 MHz, 100 MHz, 1000 MHz, and 5000 MHz. Therefore, when measuring the calibration value of the RF frequency characteristics, it is necessary to measure for each of the settable RF frequency characteristics values. In this way, for measurement items with multiple measurement conditions, it is necessary to measure the calibration value for each measurement condition. For this reason, when calibrating a measuring instrument, it is necessary to consider many calibration values.
[0020] In calibrating measuring instruments, (i) Whether the calibration value is within the appropriate range, (ii) Whether the calibration value is an inappropriate value outside the appropriate range, (iii) Whether the calibration value is within the appropriate range but is approaching the non-compliant range and is a potential non-compliant value. It is important to know which of the following is true.
[0021] Therefore, the present disclosure classifies the measurement results corresponding to the measurement items into (i) conformance, (ii) non-conformance, and (iii) potential non-conformance.Then, the measurement items and measurement results are output so that the non-conformance and potential non-conformance measurement results that require further investigation are displayed in a different format from conformance measurement results.
[0022] (First embodiment) 1 shows a block diagram of a measurement result output device 91. The measurement result output device 91 is a computer including a processor 11, a memory 12, and an input unit 13. The processor 11 is an electronic device made up of logic circuits that respond to and execute instructions. The measurement result output device 91 includes an input unit 13 that is controllable by a user. The input unit 13 includes a cursor control means such as a mouse, a trackball, or a touch-sensitive screen.
[0023] The memory 12 is a storage medium that can be read by the measurement result output device 91. A program is stored in the memory 12. The program includes instructions for controlling the processor 11. The memory 12 can be realized by a random access memory (RAM), a hard drive, a read-only memory (ROM), or a combination thereof.
[0024] The program of the present disclosure causes the measurement result output device 91 to execute the measurement result output method of the present disclosure. Although the program is shown as already stored in the memory 12, it may also be stored in the storage device 92. The storage device 92 is a computer-readable storage medium. Examples of the storage device 92 include a compact disc, a magnetic tape, a read-only memory, and an optical storage medium. The storage device 92 may also be any other type of electronic storage device connected to the measurement result output device 91 via a network.
[0025] An embodiment of the measurement result output method of the present disclosure is shown in Figure 2. In the measurement result output method of this embodiment, a measurement result output device 91 executes steps S11 to S13 in order. In step S11, the measurement result output device 91 acquires the measurement result. In step S12, the measurement result output device 91 determines whether the measurement result corresponding to the measurement item is conforming, nonconforming, or potentially nonconforming. In step S13, the measurement result output device 91 outputs the measurement items and the measurement results based on the results of the judgment so that the measurement results that are non-compliant or potential non-compliant are displayed in a different manner from the measurement results that are compliant. The specific details will be explained below.
[0026] (Step S11) The measurement result output device 91 acquires the measurement results for each measurement item. The processor 11 associates the acquired measurement items with the measurement results and stores them in the memory 12. When calibration is performed for multiple measurement conditions, such as RF frequency characteristics, the measurement result output device 91 acquires the measurement results for each measurement condition. At this time, the processor 11 associates the measurement conditions with the measurement results, and stores the measurement conditions with the measurement items in the memory 12.
[0027] (Step S12) The processor 11 determines whether the measurement result is in the conformance, non-conformance, or potential non-conformance group. At this time, the processor 11 determines whether the measurement result is in the conformance, non-conformance, or potential non-conformance group for each measurement condition. The determination of whether the measurement result is in the conformance, non-conformance, or potential non-conformance group is based on the calibration value V R This can be done based on the degree of deviation from a predetermined value determined for a measurement item when the value is compared with a predetermined value.
[0028] For example, as shown in Figure 3, the expected value V E Upper limit L U and lower limit L L There is a calibration value V R In this case, the evaluation value V obtained by formula (1) or formula (2) J Calculate. V J =(L U -V R ) / (L U -V E )×100 (1) V J =(V R -L L ) / (V E -L L )×100 (2)
[0029] Here, the expected value V E is the upper limit L U to the lower limit L L can be set to any value up to, for example, V E =(L U -L L ) / 2. The calibration value VR is the expected value V E If it is larger than V, use formula (1) and R is the expected value V E If it is smaller than , use formula (2).
[0030] For example, as shown in FIG. 4(A), the best value V B Upper limit L U There is a calibration value V R In this case, calculate equation (3). V J =(L U -V R ) / (L U -V B )×100 (3)
[0031] For example, as shown in FIG. 4(B), the best value V B For the lower limit L L There is a calibration value V R In this case, calculate equation (4). V J =(V R -L L ) / (V B -L L )×100 (4)
[0032] Evaluation value V J If is less than the first threshold, it is judged to be a potential non-conforming force, and the evaluation value V J is equal to or less than the second threshold, the result is determined to be non-compliant. The first threshold and the second threshold can be set arbitrarily; for example, the first threshold can be set to 5% and the second threshold can be set to 0%.
[0033] (Step S13) The processor 11 outputs the measurement results. In this embodiment, an example is shown in which the processor 11 outputs display data. The display data can be in any file format that can be displayed by a computer, such as an HTML (HyperText Markup Language) file format. The generated display data may be stored in the memory 12 or the storage device 92.
[0034] 5 shows an example of the measurement results output by the measurement result output device 91. The display data includes a display column 81 for the measurement results for each measurement item. Specifically, the measurement results include N measurement items T1, T2, T3, ... T N and the measurement results for each measurement item R T1 ,R T2 ,R T3 ,···R TN Measurement items T1, T2, T3,...T N is, for example, an arbitrary measurement item in a spectrum analyzer. In this embodiment, an example is shown in which measurement item T2 has a plurality of measurement conditions such as RF frequency characteristics.
[0035] The processor 11 generates and outputs display data such that non-compliant and potential non-compliant measurement results are displayed in a different manner from compliant measurement results. Measurement items whose measurement results are non-compliant or potential non-compliant are highlighted. For example, the measurement result R of measurement item T1 is displayed in a different manner from compliant measurement results. T1 is compliant, and the measurement result of measurement item T2 is R T2 are potential non-conformances, and the measurement result of measurement item T3 is R T3 is incompatible, the processor 11 T1 The column 81 is displayed in green, and the measurement result R T2 The column 81 is displayed in orange, and the measurement result R T3 Column 81 is displayed in red.
[0036] This allows the measurement result output device 91 to output display data having the data structure of the present disclosure. Specifically, as shown in Fig. 5, the display data has measurement items and measurement results, and the display format of measurement results that are non-compliant or potentially non-compliant is different from the display format of measurement results that are compliant.
[0037] Here, when one measurement item includes one or more measurement conditions, processor 11 displays as follows: The processor 11 displays in green the column 81 of the measurement results in which all the measurement results conform to the measurement conditions. The processor 11 displays in orange the column 81 of the measurement results in which any of the measurement results for the measurement conditions includes a potential non-conformity. The processor 11 displays in red the column 81 of the measurement result in which any of the measurement results for the measurement conditions includes non-compliance.
[0038] Furthermore, when a display field 81 is selected, the processor 11 associates link information with the display field 81 in the display data so that information on the measurement result corresponding to the selected display field 81 is displayed. For example, the processor 11 associates link information with the display field 81 in the display data so that information on the measurement result corresponding to the selected display field 81 is displayed. T2 Link information to the above.
[0039] This allows the measurement result output device 91 to output display data having the data structure of the present disclosure. Specifically, the display data includes a display field 81 of the measurement results for each measurement item, and link information is linked to the display field 81 in the display data so that when a display field 81 is selected, the information of the measurement result corresponding to the selected display field 81 is displayed. This link information allows the measurement result R T2 When is selected by clicking, the measurement result R T2 However, the display mode is not limited to switching, and may be a mode in which a new window is displayed, for example.
[0040] Figure 6 shows the measurement results R T2 The display data is for measurement conditions C1, C2, C3,...C for measurement item T2. M and the measurement results R for each measurement condition C1 ,R C2 ,R C3 ,···R CM where measurement conditions C1, C2, C3, C M is, for example, a set value of the RF frequency characteristic, and examples thereof include 10 MHz, 100 MHz, 1000 MHz, and 5000 MHz.
[0041] The processor 11 determines whether the measurement result is conforming, non-conforming, or potentially non-conforming for each measurement condition. C1 ,R C2 ,R C3 ,···R CM Among the results, non-compliant or potential non-compliant results are converted into display data that are displayed in a different format from compliant measurement results.
[0042] Here, the display of the measurement conditions can be applied to two or more layers. In this case, the processor 11 M When at least one measurement condition is included in the above, it is displayed as follows: The processor 11 performs measurement under the measurement condition C. M The column 82 of the measurement result in which all the measurement results included therein are in conformity is displayed in green. The processor 11 performs measurement under the measurement condition C. M The column 82 of the measurement result in which any of the measurement results includes a potential non-conformity is displayed in orange. The processor 11 performs measurement under the measurement condition C. M The column 82 of the measurement result in which any of the measurement results included in the table contains a non-conformity is displayed in red.
[0043] When a display field 82 is selected, the processor 11 associates link information with the display field 82 in the display data so that information on the measurement result corresponding to the selected display field 82 is displayed. For example, the processor 11 CM This link information is used to link the measurement results R CM When is selected by clicking, the measurement result R CM However, the display mode is not limited to switching, and may be a mode in which a new window is displayed, for example.
[0044] Figure 7 shows the measurement results R CM In this embodiment, the measurement result R T2 is selected, and the measurement result R CMIn this case, measurement item T2 and measurement condition C are selected. M and measurement condition C M When the evaluation value V J The measurement result R CM may be described.
[0045] Measurement result R CM For detailed display of the measurement results, T2 Any information related to the instrument may be included. For example, it may include measuring instrument information, calibration information, operation information, and comments. Measuring instrument information includes the measuring instrument name, such as the machine number, and model name. Calibration information includes the last calibration date and evaluation value. Operation information includes the manufacturing date, number of years elapsed, and operation rate. The operation rate is calculated as the ratio (%) of the power-on and operation time since the last calibration to the time elapsed since the last calibration.
[0046] As described above, the measurement result output device 91 of this embodiment can display the measurement results of a single calibration of a single measuring device in a list, as shown in FIG. 5. Text may be displayed in the measurement result display field 81, but the measurement result display field 81 may also display only colors or patterns without text. This is because the present disclosure allows the measurement results to be visually recognized even with only colors or patterns, and selecting the measurement result display field 81 displays the details of the measurement results. Therefore, this embodiment can clearly display which measurement items in the measuring device have problems.
[0047] (Second embodiment) This embodiment shows an example of output of measurement results when multiple measuring devices are calibrated. In this embodiment, in step S11, the measurement result output device 91 acquires the measurement results for each measuring device. At this time, the processor 11 associates the measurement items with the measuring device names and stores them in the memory 12. In addition, the measurement result output device 91 executes steps S12 and S13 for each measuring device.
[0048] 8 shows an example of the measurement results output by the measurement result output device 91. The display data includes a measurement result display field 83 for each measuring instrument. Specifically, the measurement results include K measuring instrument names D1, D2, D3, ... D K and the measurement result R for each measuring device D1 ,R D2 ,R D3 ,···R DK Includes:
[0049] When one measuring device includes one or more measurement items, processor 11 displays the following: The processor 11 measures the measurement items T1 to T N All measurement results of R T1 ~R TN The column 83 for the measurement results of the measuring instrument that is in conformity is displayed in green. The processor 11 measures the measurement items T1 to T N Any measurement result R T1 ~R TN Column 83 of the measurement results of measuring instruments that contain potential non-conformances is displayed in orange. The processor 11 measures the measurement items T1 to T N Any measurement result R T1 ~R TN The measurement result column 83 for the name of the measuring instrument containing the non-conformity is displayed in red.
[0050] When a display field 83 is selected, the processor 11 associates link information with the display field 83 in the display data so that information on the measurement result corresponding to the selected display field 83 is displayed. For example, the processor 11 associates link information with the measurement result R of the measuring device name D2. D2 Link information to the above.
[0051] This allows the measurement result output device 91 to output display data having the data structure of the present disclosure. Specifically, the display data includes a measurement result display field 83 for each measuring device, and link information is linked to the display field 83 in the display data so that when a display field 83 is selected, the measurement result information corresponding to the selected display field 83 is displayed. This link information allows the measurement result RD2 When is selected by clicking, the measurement result R D2 For example, the display is switched to the display shown in Fig. 5. However, the display mode is not limited to switching, and may be a mode in which a new window is displayed, for example.
[0052] (Third embodiment) This embodiment shows an example of output of measurement results when multiple measurement devices are calibrated multiple times. In this embodiment, in step S11, the processor 11 associates the measurement items with the number of measurements and stores them in the memory 12. In addition, the measurement result output device 91 executes steps S12 and S13 for each measurement.
[0053] FIG. 9 shows an example of the measurement results output by the measurement result output device 91. The display data includes a display field 83 for the measurement results for each measuring instrument and for each measurement. For example, the measurement results include the measurement results R for each measuring instrument calibrated in 2014. D11 ,R D12 ,R D13 ,···R D1K and the measurement results for each calibration instrument performed in 2024 R D21 ,R D22 ,R D23 ,···R D2K This makes it possible to grasp at a glance the time series changes for each measuring device.
[0054] As in the second embodiment, when a display field 83 is selected, the processor 11 associates link information with the display field 83 in the display data so that information on the measurement result corresponding to the selected display field 83 is displayed. For example, the processor 11 associates link information with the measurement result R of the measuring device name D2. D12 Link the link information to the measurement result R D12 When is selected by clicking, the measurement result R D12 The display will switch to show information about the
[0055] Figure 10 shows the measurement results R D12The display data includes a display field 81 for the measurement results for each measurement item and for each measurement. For example, the measurement results include the measurement results R for each measurement item of the calibration performed in 2014. T11 ,R T12 ,R T13 ,···R T1N and the measurement results for each calibration item performed in 2024 R T21 ,R T22 ,R T23 ,···R T2N This allows you to see at a glance the time series changes for each measurement item.
[0056] As in the first embodiment, when a display field 81 is selected, the processor 11 associates link information with the display field 81 in the display data so that information on the measurement result corresponding to the selected display field 81 is displayed. For example, the processor 11 associates link information with the measurement result R of the measurement item T2. T12 Link the link information to the measurement result R T12 When is selected by clicking, the measurement result R T12 The display will switch to show information about the
[0057] Figure 11 shows the measurement results R T2 The display data of this embodiment includes a display field 82 for the measurement results for each measurement condition and for each measurement. For example, the measurement results include the measurement results R for each measurement condition of the calibration performed in 2014. C11 ,R C12 ,R C13 ,···R C1M and the measurement results R for each calibration condition performed in 2024 C21 ,R C22 ,R C23 ,···R C2M This makes it possible to grasp at a glance the time series changes for each measurement condition.
[0058] As in the first embodiment, when a display field 82 is selected, the processor 11 associates link information with the display field 82 in the display data so that information on the measurement result corresponding to the selected display field 82 is displayed. For example, the processor 11 CM Link information to the measurement result R C1M When is selected by clicking, the measurement result R shown in Figure 7 is displayed. C1M The display will switch to show information about the
[0059] The measurement result information may include a time series graph corresponding to the selected display field 82. For example, in addition to the display of FIG. 7, processor 11 may generate display data that displays a time series graph as shown in FIG. 12. In FIG. 12, the solid line indicates an area graph of the total operating time, and the dashed line indicates the operating rate (%). By displaying the total operating time and the operating rate in a graph, the operating status of the measuring device can be seen at a glance.
[0060] The processor 11 may generate display data that displays what adjustments or repairs were made to the measuring instrument by calibration on the time series graph of Fig. 12. The time series graph also displays the calibration value V R or evaluation value V J The time series graph may be any time series graph corresponding to the display field 82, such as the time series graph of
[0061] In this embodiment, it is possible to easily switch between displaying time series changes for each measuring device, each measurement item, and each measurement condition, making it easy to select the measuring device, measurement item, and measurement condition to be adjusted.
[0062] In the above embodiment, an example is shown in which conforming measurement results are displayed in green, potential nonconformance measurement results are displayed in orange, and nonconformance measurement results are displayed in red. However, this is merely an example of the present disclosure, and any mode capable of highlighting potential nonconformance and nonconformance may be adopted. For example, at least one of conforming, potential nonconformance, and nonconformance may be displayed in a different color. Also, conforming, potential nonconformance, and nonconformance may be displayed in different patterns or different shades. Furthermore, nonconformance or nonconformance measurement results may be displayed in a flashing manner.
[0063] Furthermore, in the above embodiment, an example was shown in which the measurement result output device 91 outputs display data, but the output mode is not limited to this. For example, the measurement result output device 91 may output to paper using a printer or the like.
[0064] Furthermore, the present disclosure is not limited to signal analyzers and spectrum analyzers, but may also apply to any measuring instrument that outputs information about the type of signal an input signal is. For example, it may be a transmission / reception test module. The transmission / reception test module may transmit and receive any signal, such as a wireless LAN signal or an RF (Radio Frequency) signal.
[0065] Furthermore, the present disclosure is not limited to a measuring instrument, but may also be applicable to a signal generator that generates an output signal corresponding to an input control signal. The signal generator can be calibrated by inputting a control signal to the signal generator and measuring the type of signal output from the signal generator. Examples of the signal generator include a vector signal generator and an analog signal generator. Examples of measurement items of the signal generator include the accuracy of the output intensity of the RF signal output from the signal generator.
[0066] Furthermore, the present disclosure is not limited to the measurement results of measuring instruments and signal generators, but can be applied to any application that displays the measurement results when measuring the output relative to the input of an RF converter or the like. [Explanation of symbols]
[0067] 11: Processor 12: Memory 13: Input section 91: Measurement result output device 92: Storage device 93:Display device
Claims
1. determining whether the measurement result corresponding to the measurement item is conforming, nonconforming, or potentially nonconforming based on the degree of deviation from a predetermined value determined for the measurement item; Based on the result of the determination, output of the measurement items and the measurement results is executed so that the measurement results corresponding to non-conformance and potential non-conformance are displayed in a manner different from the measurement results corresponding to conformance. Measurement result output device.
2. the output is an output of display data including a display field for the measurement result, linking link information to the display field in the display data so that, when the display field is selected, information on the measurement result corresponding to the selected display field is displayed; The measurement result output device according to claim 1 .
3. The display field is displayed in a color or pattern according to the result of the determination. The measurement result output device according to claim 2 .
4. The information on the measurement results includes a time series graph corresponding to the selected display field. The measurement result output device according to claim 2 .
5. The measurement result output device is determining whether the measurement result corresponding to the measurement item is conforming, nonconforming, or potentially nonconforming based on the degree of deviation from a predetermined value determined for the measurement item; Based on the result of the determination, output of the measurement items and the measurement results is executed so that the measurement results corresponding to non-conformance and potential non-conformance are displayed in a manner different from the measurement results corresponding to conformance. Measurement result output method.
6. The measurement result output device a step of determining whether a measurement result corresponding to a measurement item corresponds to conformance, non-conformance, or potential non-conformance, based on the degree of deviation from a predetermined value determined for the measurement item; a step of outputting the measurement items and the measurement results so that the measurement results that are non-compliant or potentially non-compliant are displayed in a different manner from the measurement results that are compliant based on the result of the judgment; A program that executes the following.
7. A data structure of display data having measurement items and measurement results, the measurement result includes any one of conformance, nonconformance, and potential nonconformance, determined based on the degree of deviation from a predetermined value determined for the measurement item; The display mode of the measurement results corresponding to non-conformity and potential non-conformity is different from the display mode of the measurement results corresponding to conformity, Data structure.
8. the display data includes a display field for the measurement results for each of the measurement items; link information is linked to the display field in the display data so that, when the display field is selected, information on the measurement result corresponding to the selected display field is displayed; The data structure of claim 7.
Citation Information
Patent Citations
Rationalization method for calibration cycle
JP1999083536A