CN107941256B - Numerical value personalized display method of high-precision measuring instrument - Google Patents

Numerical value personalized display method of high-precision measuring instrument Download PDF

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CN107941256B
CN107941256B CN201711155000.9A CN201711155000A CN107941256B CN 107941256 B CN107941256 B CN 107941256B CN 201711155000 A CN201711155000 A CN 201711155000A CN 107941256 B CN107941256 B CN 107941256B
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display
data
character string
display area
numerical value
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CN107941256A (en
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李成帅
杜念文
白轶荣
任水生
刘宝东
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CETC 41 Institute
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    • GPHYSICS
    • G01MEASURING; TESTING
    • G01DMEASURING NOT SPECIALLY ADAPTED FOR A SPECIFIC VARIABLE; ARRANGEMENTS FOR MEASURING TWO OR MORE VARIABLES NOT COVERED IN A SINGLE OTHER SUBCLASS; TARIFF METERING APPARATUS; MEASURING OR TESTING NOT OTHERWISE PROVIDED FOR
    • G01D7/00Indicating measured values

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Abstract

The invention provides a numerical value personalized display method of a high-precision measuring instrument, which comprises the steps of setting two rows and a plurality of columns of table format personalized display areas, wherein the first row is a unit display area and displays the scale and unit of a measuring result, the second row is a digital display area and displays a measuring numerical value, measuring data are sent to an interface and then exist in a bottom layer code in an initial state, the unit of the current measuring data is judged and obtained through a measuring mode at the moment, the scale unit of the current data is determined according to the numerical value, the numerical value is divided through three bits and one group of data, and finally the two are filled into a two-dimensional array of the display data and drawn into a corresponding area of the display interface. The method realizes the control of the effective digit and the precision of the measured numerical value in the personalized display area, completes the digit control after the decimal point of the numerical value, can display and control the numerical value on the left and the right, provides a more user-friendly and personalized digital display mode, and improves the use efficiency of the user.

Description

Numerical value personalized display method of high-precision measuring instrument
Technical Field
The invention relates to the field of numerical value display of measuring instruments, in particular to a numerical value personalized display method of a high-precision measuring instrument.
Background
With the rapid development of measuring instruments, people have higher and higher requirements on software functions of instrument measurement, the corresponding requirements on the friendliness degree of human-computer interaction interfaces are increased, and the numerical value display forms of the measuring instruments are continuously improved. The small-sized measuring instrument interface display often has a digital display mode and a graphic display mode, and the digital display mode is usually the most main display mode. When a small-sized high-precision measuring instrument is used, the size of a display screen is restricted due to the size of the instrument, displayed measuring result data are often located in the middle of the screen and are the most important measuring information, the high-precision measuring instrument has high precision requirements on the measured result data, and users need to obtain data with more effective digits and corresponding units and systems according to different measuring settings. In order to facilitate the observation of the measurement result by the user, the data display adopts a more intuitive mode and avoids the appearance of irrelevant data as much as possible.
The numerical display mode of the existing measuring instrument is as follows: the measured result is directly drawn on the interface in the form of a complete character string, the complete character string is a combination of two character strings, one is a character string directly converted from a double-precision numerical value without processing, and the other is a single character string corresponding to a measurement mode; the effective digit control can be carried out; the decimal point post-digit control cannot be carried out; shown on the left. The display mode achieves the purpose of displaying the measurement result by drawing a complete character string with units and systems on a screen. The highest effective digit required to be displayed by the data measured by the high-precision measuring instrument can reach 15 digits, only one digit is displayed at the same time in a system, and when a user observes the measuring result with higher display precision or needs to read the data on a certain digit, the phenomenon of low reading efficiency and even misreading is easy to occur. Meanwhile, the display mode cannot perform digit control after decimal point, so that the display mode has poor user experience and low friendliness.
Numerical value division display mode: the measured result is directly drawn on the interface in the form of a complete character string, the complete character string is a combination of two character strings, one is a character string converted after being processed in a mode of adding spaces after every three digits of double-precision numerical values, and the other is a unit and system character string corresponding to a measurement mode; the effective digit control can be carried out; the decimal point post-digit control cannot be carried out; shown on the left. The display mode firstly processes the measurement result, and a space is added behind each 3-digit number before and after the decimal point, but the space is still a complete character string with units and systems after the space is added; the display mode often does not provide significance control after decimal point, and the user friendliness is low; although the method reduces the occurrence of misreading phenomena to a certain extent, when the number of displayed digits is large after the data decimal point obtained by the measuring instrument is measured, if a user needs to observe the digits on any position of the character string, misreading still cannot be avoided, and if the digit value is accurate to a or z, the n, p, f, a, z and other binary systems are easy to be mixed and read; there is no anti-jitter control.
In addition, the user often likes reading by personal habits when reading the measurement result, and cannot provide the setting of the significant digit, the setting of the decimal point rear digit, the setting of the left-right display, and the like at the same time.
Disclosure of Invention
The invention provides a numerical value personalized display method of a high-precision measuring instrument, aiming at the problems of poor user experience and low friendliness existing in the numerical value display mode of the existing high-precision measuring instrument.
The invention adopts the following technical scheme:
a numerical value personalized display method of a high-precision measuring instrument comprises the following steps:
step 1: dividing a screen digital display area to obtain an individualized display area, wherein the individualized display area comprises a unit display area at an upper level and a digital display area at a lower level, the unit display area and the digital display area are divided into 5 rows according to a table style, and each row corresponds to the next row;
step 2: respectively creating a system character string array m _ rgStrUnit [ ], a display area two-dimensional character string array m _ rgStrText [2] [5] and a table area array m _ rgRtText [2] [5], wherein the system character string array stores system characters, the display area two-dimensional character string array stores and displays all related character strings, and the table area array stores each grid area;
and step 3: the unit display area is responsible for displaying the single-digit character string, the single-digit character string is composed of a system character and a measuring unit, when measuring data are received, the type of the measuring data is judged according to the measuring setting to obtain the measuring unit, the system character string of the current data is determined according to the measuring value, the measuring unit and the system character string are merged and then stored in the first row of a two-dimensional character string array m _ rgStrText [2] [5] of the display area, and the storage principle is that the high-system single-digit character string is in front and the low-system single-digit character string is in back;
and 4, step 4: the digital display area is responsible for displaying numerical values, positive and negative judgment is firstly carried out on measured double display numerical values, if the measured double display numerical values are regular, the treatment is continued, if the measured double display numerical values are negative, negative signs are recorded, absolute values are taken, and then the treatment is continued;
then, the numerical range is judged, and the numerical range is 103The multiple is interval span, record the present scope, set up unit display index, carry the index according to the scope of locating at the same time; converting the numerical value into a character string, recording the position of a decimal point and removing the decimal point;
and 5: combining the effective digits, the precision and the display position control marks transmitted by an interface, taking the decimal point position as an initial position, respectively carrying out numerical value three-digit one-group segmentation on character strings leftwards and rightwards, if the data segmented before the decimal point is less than three bits, supplementing the data forwards, and if each grid of the data segmented after the decimal point is less than three bits, supplementing the data backwards by 'x';
step 6: filling the divided numerical values into a second row of the two-dimensional character string array m _ rgStrText [2] [5 ];
and 7: according to the filled character string array, the character string is drawn into the area represented by the table area array m _ rgRtText [2] [5] by using an MFC drawing mechanism.
Preferably, when the instrument measures several commonly used measured data of 1n, 1 μ, 1M, 1k, 1M, 1G, the actually measured values will fluctuate continuously and at high speed within a small range of about 1n, 1 μ, 1M, 1k, 1M, 1G;
and when the numerical range is judged, establishing a range allowing 1n, 1 mu, 1M, 1k, 1M and 1G to fluctuate downwards for temporary variable storage, adding the range and the measured value to obtain a temporary measured value, and when the temporary measured value is less than 1n, 1 mu, 1M, 1k, 1M and 1G, controlling the second, third, fourth and fifth columns of the personalized display area to be kept still and the first column of the digital display area to be empty.
Preferably, the unit display area and the number display area have an area ratio of 1: 2.
Preferably, the binary characters include G, M, k, M, μ, n, p, f, a, z, and the like.
Preferably, the measurement units include Hz, V, s, Deg, Pct, and the like.
Preferably, when the effective data is not enough to fill the five columns, the left display and the right display can be controlled, a left display mark bPosFlag and a right display mark bPosFlag are set, the left display is performed when the bPosFlag is 0, the default display mode is adopted, and the right display is performed when the bPosFlag is 1;
when the left display is carried out, the data is controlled to be divided into a group of three bits from front to back, the divided groups are sequentially filled into a first column and a second column until the data is filled, and the columns which are not filled are filled with the matrix; and when the test data is displayed on the right, the test data is divided into three bits from back to front, and the divided array is filled from the fifth column to the front until the data is completely filled.
The invention has the beneficial effects that:
the invention provides a numerical value personalized display method of a high-precision measuring instrument, which is characterized in that two rows and a plurality of columns of table format personalized display areas are arranged, the scale and the unit of a measuring result are displayed in the first row, the measured numerical value is displayed in the second row, the measured numerical value is divided into three bits and one group and is filled into the corresponding area, and a user can accurately and quickly position the numerical value to a certain bit. Meanwhile, the control of the effective digit and the precision of the measured value in the personalized display area is realized, the digit control after the decimal point of the value is completed, the left and right display control of the value can be realized, and the anti-jitter control of the measured data display is realized.
The numerical value display method provides a more user-friendly and personalized digital display mode, interface display is optimized, and the use efficiency of the user is improved.
Drawings
Fig. 1 is a schematic structural diagram of a personalized display area.
Fig. 2 is a schematic view illustrating a numerical value display of the personalized display area.
FIG. 3 is a diagram illustrating numerical dithering.
FIG. 4 is a diagram illustrating numerical dithering control display.
FIG. 5 is a flow chart of a numerical triplet segmentation method.
Fig. 6 is a schematic data display on the left.
Fig. 7 is a schematic diagram showing data on the right.
Detailed Description
The following description of the embodiments of the present invention will be made with reference to the accompanying drawings:
with reference to fig. 1 to 4, a method for displaying numerical values of a high-precision measuring instrument in a personalized manner includes the following steps:
step 1: dividing the screen digital display area to obtain a personalized display area, wherein the personalized display area comprises a unit display area at the upper level and a digital display area at the lower level, and the area ratio of the unit display area to the digital display area is 1: 2. The unit display area and the digital display area are respectively and uniformly divided into 5 columns according to the table style, and each column is in one-to-one correspondence with the next column, as shown in fig. 1.
Step 2: respectively creating a system character string array m _ rgStrUnit [ ], a display area two-dimensional character string array m _ rgStrText [2] [5] and a table area array m _ rgRtText [2] [5], wherein the system character string array stores system characters, the display area two-dimensional character string array stores and displays all related character strings, and the table area array stores each grid area.
The binary characters include G, M, k, M, μ, n, p, f, a, z, and so on. .
And step 3: the unit display area is responsible for displaying a unit character string, and the unit character string is composed of a system character and a measurement unit, such as 'GHz', wherein 'G' represents the 9 th power of the system 10, and 'Hz' is the frequency measurement unit.
The units of measurement also include volts V, seconds s, degrees Deg, and percent Pct, among others.
When measurement data are received, the type of the measurement data is judged according to measurement setting to obtain a measurement unit, a system character string of the current data is determined according to a measurement value, the measurement unit and the system character string are merged and then stored in a first row of a two-dimensional character string array m _ rgStrText [2] [5] of a display area, and the storage principle is that a high system unit character string is in front of a low system unit character string.
And 4, step 4: the digital display area is responsible for displaying numerical values, positive and negative judgment is firstly carried out on measured double display numerical values, if the measured double display numerical values are regular, the treatment is continued, if the measured double display numerical values are negative, negative signs are recorded, absolute values are taken, and then the treatment is continued;
then, the numerical range is judged, and the numerical range is 103The multiple is interval span, record the present scope, set up unit display index, carry the index according to the scope of locating at the same time; the numerical value is converted into a character string, the position of the decimal point is recorded, and the decimal point is removed.
When the instrument measures several commonly used measured data of 1n, 1 μ, 1M, 1k, 1M and 1G, the actually measured values fluctuate continuously and at high speed within a small range of about 1n, 1 μ, 1M, 1k, 1M and 1G. When the data fluctuates in a small range which is more than or equal to 1n, 1 mu, 1M, 1k, 1M and 1G, the first column is always in a scale unit corresponding to 1 and 1, and the measurement information is not jittered; when the data fluctuates to less than 1n, 1 μ, 1M, 1k, 1M, 1G, the first column will have no data, the second column is filled to the first column, the third column is filled with the second column, and the following filling is performed sequentially until five columns are filled, and the jitter phenomenon occurs, as shown in fig. 3. In order to solve this problem, a range in which the temporary variable storage allows 1n, 1 μ, 1M, 1k, 1M, and 1G to fluctuate downward is created, and this range is added to the actual measurement value to obtain a temporary measurement value, for example, "doubltmp ═ dVal +2 × dVal × 1.0E-3", dVal is the current actual measurement value, 2 × dVal ═ 1.0E-3 is the range in which downward fluctuation is allowed, and dValTmp is the temporary measurement value.
When the temporary measured value is more than or equal to 1n, 1 mu, 1M, 1k, 1M and 1G, no anti-shake treatment is carried out; and when the temporary measured value is less than 1n, 1 mu, 1M, 1k, 1M and 1G, controlling the second, third, fourth and fifth columns of the personalized display area to be kept still, and controlling the digital display area of the first column to be empty. The results are shown in FIG. 4.
And 5: combining the effective digits, the precision and the display position control marks transmitted by the interface, taking the decimal point position as an initial position, respectively carrying out numerical value three-digit one-group segmentation on the character strings leftwards and rightwards, if the data segmented before the decimal point is less than three bits, supplementing the data forwards, and if each grid of the data segmented after the decimal point is less than three bits, supplementing the data backwards by using a prime sign.
The numerical value three-bit one-by-one division method is shown in fig. 5, and the numerical value three-bit one-by-one division method is a conventional technique in the art and will not be described in detail herein.
Step 6: the second row of the two-dimensional string array m _ rgStrText [2] [5] is filled with the partitioned values, as shown in FIG. 2.
And 7: according to the filled character string array, the character string is drawn into the area represented by the table area array m _ rgRtText [2] [5] by using an MFC drawing mechanism.
When the five columns are filled with valid data, the display is controlled to be left or right without control. And when the effective data are not enough to fill the five columns, controlling to display leftwards and rightwards, setting a display mark bPosFlag which is rightwards and leftwards, displaying leftwards when the bPosFlag is 0, wherein the display mode is a default display mode, and displaying rightwards when the bPosFlag is 1.
When the left display is performed, the data is controlled to be divided into a group of three bits from the front to the back, the divided groups are sequentially filled into the first column and the second column until the data is completely filled, and at this time, the columns which are not filled are filled with the characters, as shown in fig. 6.
And when the test data is displayed on the right, the test data is divided into three bits from back to front, and the divided array is filled from the fifth column to the front until the data is completely filled. As shown in fig. 7.
The method provides a more user-friendly and personalized digital display mode, optimizes interface display and improves the use efficiency of the user.
It is to be understood that the above description is not intended to limit the present invention, and the present invention is not limited to the above examples, and those skilled in the art may make modifications, alterations, additions or substitutions within the spirit and scope of the present invention.

Claims (6)

1. A numerical value display method of a high-precision measuring instrument is characterized by comprising the following steps:
step 1: dividing a screen digital display area to obtain an individualized display area, wherein the individualized display area comprises a unit display area at an upper level and a digital display area at a lower level, the unit display area and the digital display area are divided into 5 rows according to a table style, and each row corresponds to the next row;
step 2: respectively creating a system character string array m _ rgStrUnit [ ], a display area two-dimensional character string array m _ rgStrText [2] [5] and a table area array m _ rgRtText [2] [5], wherein the system character string array stores system characters, the display area two-dimensional character string array stores and displays all related character strings, and the table area array stores each grid area;
and step 3: the unit display area is responsible for displaying the single-digit character string, the single-digit character string is composed of a system character and a measuring unit, when measuring data are received, the type of the measuring data is judged according to the measuring setting to obtain the measuring unit, the system character string of the current data is determined according to the measuring value, the measuring unit and the system character string are merged and then stored in the first row of a two-dimensional character string array m _ rgStrText [2] [5] of the display area, and the storage principle is that the high-system single-digit character string is in front and the low-system single-digit character string is in back;
and 4, step 4: the digital display area is responsible for displaying numerical values, positive and negative judgment is firstly carried out on measured double display numerical values, if the measured double display numerical values are regular, the treatment is continued, if the measured double display numerical values are negative, negative signs are recorded, absolute values are taken, and then the treatment is continued;
then, the numerical range is judged, and the numerical range is 103The multiple is interval span, record the present scope, set up unit display index, carry the index according to the scope of locating at the same time; converting the numerical value into a character string, recording the position of a decimal point and removing the decimal point;
and 5: combining the effective digits, the precision and the display position control marks transmitted by an interface, taking the decimal point position as an initial position, respectively carrying out numerical value three-digit one-group segmentation on character strings leftwards and rightwards, if the data segmented before the decimal point is less than three bits, supplementing the data forwards, and if each grid of the data segmented after the decimal point is less than three bits, supplementing the data backwards by 'x';
step 6: filling the divided numerical values into a second row of the two-dimensional character string array m _ rgStrText [2] [5 ];
and 7: according to the filled character string array, the character string is drawn into the area represented by the table area array m _ rgRtText [2] [5] by using an MFC drawing mechanism.
2. The numerical value display method of a high-precision measuring instrument according to claim 1, characterized in that when the instrument measures several commonly used measured data of 1n, 1 μ, 1M, 1k, 1M, 1G, the actually measured values fluctuate at high speed continuously within a small range of about 1n, 1 μ, 1M, 1k, 1M, 1G;
and when the numerical range is judged, establishing a range allowing 1n, 1 mu, 1M, 1k, 1M and 1G to fluctuate downwards for temporary variable storage, adding the range and the measured value to obtain a temporary measured value, and when the temporary measured value is less than 1n, 1 mu, 1M, 1k, 1M and 1G, controlling the second, third, fourth and fifth columns of the personalized display area to be kept still and the first column of the digital display area to be empty.
3. The numerical value display method of a high precision measuring instrument according to claim 1, wherein the area ratio of the unit display area to the number display area is 1: 2.
4. The numerical value display method of a high-precision measuring instrument according to claim 1, wherein the binary characters include G, M, k, M, μ, n, p, f, a, and z.
5. The numerical value display method of a high-precision measuring instrument according to claim 1, wherein the measurement units include Hz, V, s, Deg, and Pct.
6. The numerical value display method of the high-precision measuring instrument according to claim 1, characterized in that when the effective data is not enough to fill five columns, the display can be controlled to be left and right, a display flag bPosFlag to be left and right is set, the display flag bPosFlag is 0, the display flag is displayed to be left, which is a default display mode, and the display flag is displayed to be right when the bPosFlag is 1;
when the left display is carried out, the data is controlled to be divided into a group of three bits from front to back, the divided groups are sequentially filled into a first column and a second column until the data is filled, and the columns which are not filled are filled with the matrix; and when the test data is displayed on the right, the test data is divided into three bits from back to front, and the divided array is filled from the fifth column to the front until the data is completely filled.
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