JP5357602B2 - Editing apparatus and editing program - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide an editing device or the like for a graph and a figure, mutually converting the graph and the figure indicating a production/sales/stock plan value input to a screen, and storing the determined production/sales/stock plan value as data immediately usable in another system. <P>SOLUTION: The editing device 1 includes: a first database 70 storing time-series information; and a second database 80 storing figure information. The editing device 1 acquires time-series information of one point from the first database 70, converts a time point of the acquired time-series information of the one point into an x coordinate value, converts a data value into a y coordinate value, and stores, into the second database 80, a record indicating the figure information with the converted x coordinate value and y coordinate value as position information of the one point and with at least one piece of prescribed position information as position information of the other point. <P>COPYRIGHT: (C)2011,JPO&amp;INPIT

Description

  The present invention relates to an editing apparatus and an editing program for editing graphs and graphics.

  Conventionally, a technique for managing a production plan of a product is known (for example, Patent Document 1). In the invention of Patent Document 1, a product production plan is drafted using a plurality of servers such as a production plan server and a process plan server.

Japanese Patent No. 4219533 (paragraph 0005)

Consider the case where a production plan, a sales plan, and an inventory plan for a product are created. For example, a person in charge of manufacturing, sales, and inventory (hereinafter referred to as “manufacturing sales”) gathers at a meeting and draws a straight line on a whiteboard or draws a figure while looking at the actual sales value of that product. It is expected that discussions will be made and a sales and marketing plan will be drawn up.
Alternatively, it is also assumed that a single person in charge of summarization creates a production / sales plan on the computer screen based on the intention of each person in charge of production / sales.
In these cases, there are operations such as copying the actual sales value of the product to the computer screen or whiteboard, and re-entering the determined sales plan value as a numerical value in another system. Cost. In particular, this time is enormous in a manufacturing and sales conference that handles tens to hundreds of products.

  In the invention of Patent Document 1, discussions and decision-making are promoted by mutually converting graphs and figures written on the screen or whiteboard, and the determined sales and sales plan values are easily used in other systems. A technique for storing data as possible data is not disclosed.

  Therefore, the present invention mutually converts graphs and figures indicating the sales plan value entered on the screen and stores the determined sales plan value as data that can be easily used in other systems, An object is to provide a graphic editing device and the like.

  In order to solve the above-mentioned problem, the editing apparatus of the present invention includes a first database that stores time-series information and a second database that stores graphic information, and the time-series information includes a certain time point, The position information is composed of an x-coordinate value and a y-coordinate value on a two-dimensional coordinate plane. Then, the time series information of a certain point is acquired from the first database, the time point of the acquired time series information is converted into an x coordinate value, the data value is converted into a y coordinate value, and the converted A record indicating graphic information having x coordinate value and y coordinate value as position information of one point and at least one predetermined position information as position information of another point is stored in the second database. The editing apparatus of the present invention acquires position information of a certain line segment from the second database, converts the x coordinate value of each position information of the acquired line segment into a time point, and converts the y coordinate value to data Is converted to a value, the slope of this line segment is calculated from the time and data value of the converted line segment, the line segment is divided into predetermined intervals, and time series information at the time of the division is stored in the first database. It is memorized. In the editing apparatus according to the present invention, the data value includes a quantity of an object, an increase amount and a decrease amount thereof, and at least one of the data values belonging to a certain time series in the first database is When changed, the data value belonging to another time series is changed.

  According to the present invention, a graph and a figure showing the production / sales plan value input to the screen are mutually converted, and the determined production / sales plan value is stored as data that can be easily used in other systems, A graphic editing device or the like can be provided.

It is a block diagram of the graph and figure editing apparatus which concerns on this embodiment. It is a figure which shows an example of the time series information which concerns on this embodiment. It is a figure which shows an example of the graphical information which concerns on this embodiment. It is a figure which shows an example of the display screen (with xy coordinate notation) concerning this embodiment. It is a figure which shows an example of the display screen (on an output device) which concerns on this embodiment. It is a figure which shows simply the basic function of the editing apparatus which concerns on this embodiment. It is a figure which shows simply the 1st characteristic function of the editing apparatus which concerns on this embodiment. It is a figure which shows simply the 2nd characteristic function of the editing apparatus which concerns on this embodiment. It is a flowchart which shows the process sequence of the coordinate transformation part (time-> x coordinate) which concerns on this embodiment. It is a flowchart which shows the process sequence of the coordinate transformation part (data value-> y coordinate) which concerns on this embodiment. It is a flowchart which shows the process sequence of the time series data change part which concerns on this embodiment. It is a flowchart which shows the process sequence of the figure information change part which concerns on this embodiment. It is a flowchart which shows the process sequence of the graphical information addition part which concerns on this embodiment. It is a flowchart which shows the process sequence of the data value conversion figure addition part which concerns on this embodiment. It is a flowchart which shows the process sequence of the data designation | designated part which concerns on this embodiment. It is a flowchart which shows the process sequence of the figure time series designation | designated part which concerns on this embodiment. It is a flowchart which shows the process sequence of the figure conversion time series data value change part which concerns on this embodiment. It is a figure which shows supplementary description of the figure conversion time series data value change part which concerns on this embodiment. It is a figure which shows supplementary description of the figure conversion time series data value change part which concerns on this embodiment. It is a flowchart which shows the process sequence of the inventory plan automatic calculation part which concerns on this embodiment. It is a flowchart which shows the process sequence of the manufacturing plan automatic calculation part which concerns on this embodiment.

  DESCRIPTION OF EMBODIMENTS Hereinafter, a mode for carrying out the present invention (hereinafter referred to as “the present embodiment”) will be described in detail with reference to the drawings.

(Hardware configuration)
FIG. 1 is a configuration diagram of a graph and figure editing apparatus according to the present embodiment.
The graph and figure editing device 1 (hereinafter referred to as the editing device 1) includes a central control device (control unit) 13, an input device (input unit) 11, an output device (output unit) 12, which are connected to each other by a bus. It has a main storage device (storage unit) 14 and an auxiliary storage device (storage unit) 15.
The auxiliary storage device 15 stores a time series information database 70 and a graphic information database 80.
Time series information input unit 21, time series information output unit 22, input / output control unit 23, coordinate conversion unit 31, time series data value change unit 32, graphic information change unit 33, graphic information addition unit 34, data value conversion graphic addition The unit 41, the data specification unit 42, the graphic conversion time series data value conversion unit 51, the graphic time series specification unit 52, the inventory plan automatic calculation unit 61, and the manufacturing plan automatic calculation unit 62 are programs.
Hereinafter, when the subject is described as “XX section”, the central control device 13 reads each program from the auxiliary storage device 15 as necessary and loads it into the main storage device 14 to load each function (described later). Shall be executed. The editing device 1 may be a general server computer, personal computer, or the like.

(Time Series Information Database 70)
FIG. 2 is a diagram illustrating an example of the time-series information database 70 according to the present embodiment. The time-series information database 70 is a database that shows a correspondence relationship between a record number, a date, a manufacturing actual value, a sales actual value, an inventory actual value, a manufacturing plan value, a sales plan value, and an inventory plan value at the date. .
The time series information database 70 may divide a file for each product, or may be distinguished by a product code column, a product name column, etc. (not shown). In the present embodiment, for convenience of explanation, explanation is limited to only one product.

  In association with the record number stored in the record number column 200, the date is in the year / month column 201, the manufacturing actual value is in the manufacturing actual value column 202, and the sales actual value is in the sales actual value column 203. The actual value column 204 stores the actual inventory value, the production plan value column 205 stores the production plan value, the sales plan value column 206 stores the sales plan value, and the inventory plan value column 207 stores the stock plan value. ing.

The record number in the record number column 200 is a number that identifies a record.
The date in the year / month / day column 201 is a combination of year, month and day. In the present embodiment, the combined year, month, and day are used, but the present invention is not limited to this. For example, only the year may be added, or hours, minutes, and seconds may be further added.
The production result value in the production result value column 202 is the number of production results for each date.
The sales performance value in the sales performance value column 203 is the number of sales performance in each date.
The actual inventory value in the actual inventory value column 204 is the number of actual inventory in each date.
The production plan value in the production plan value column 205 is the number of production plans for each date.
The sales plan value in the sales plan value column 206 is the number of sales plans for each date.
The inventory plan value in the inventory plan value column 207 is the number of inventory plans for each date.
In the present embodiment, actual values and planned values of manufacturing, sales, and inventory are used, but the present invention is not limited to this. For example, birth, death, population, etc. may be used.

In the present embodiment, an arbitrary date (column 201) is referred to as a time point. Also, an arbitrary production record value (column 202), sales record value (column 203), inventory record value (column 204), production plan value (column 205), sales plan value (column 206), inventory plan value (column 207). ) Is called a data value.
The time series information corresponds to a combination of a point in time and a data value in the time series information database 70. A time series corresponds to one column (column) in the time series database 70.
The time series information database 70 corresponds to a first database.

In FIG. 2, the production / sales result value on the day when the production / sales result is not yet recorded is the null value, and the production / sales plan value on the day when the production / sales plan is not yet drawn is the null value.
Specifically, it is assumed that no actual results have been recorded since April 8, 2009. Therefore, null values are set in the actual values (columns 202, 203, and 204) from April 8, 2009 to April 14, 2009. Also, it is assumed that no plan has been drawn up before April 7, 2009, and that a plan has been drawn up after April 8. Therefore, null values are set in the planned values (columns 205, 206, and 207) from April 1, 2009 to April 7, 2009, and from April 8, 2009 to April 14, 2009. Each numerical value is set in the daily plan values (columns 205, 206, and 207). Here, that the plan is drawn up means that the editing apparatus 1 according to the present embodiment is executed and the plan is drawn up. Therefore, the null value is not necessarily set to the planned value for the day for which the actual value is set, and the numerical value is not necessarily set to the planned value for the day for which the actual value is not set. In FIG. 2, for convenience of explanation, it is assumed that the editing apparatus 1 according to the present embodiment has already been executed and a plan after April 8, 2009 has been drawn up.

The actual record value (column 204) of a record is obtained by adding the actual record value (column 202) of the record to the actual record value (column 204) of the record having the immediately preceding date (column 201). This is a value obtained by subtracting the actual sales value (column 203).
Further, the inventory plan value (column 207) of a record adds the production plan value (column 205) of the record to the inventory plan value (column 207) of the record having the immediately preceding date (column 201), The value is obtained by subtracting the sales plan value (column 206) of the record.

(Graphic information database 80)
FIG. 3 is a diagram showing an example of the graphic information database 80 according to the present embodiment. The graphic information database 80 stores graphic information created by means described later. The graphic information database 80 is a database showing the correspondence between the graphic number and the graphic type, coordinate 1, coordinate 2, coordinate 3, etc. in the graphic number.
The graphic information database 80 is created for each product and is distinguished by a product code column and a product name column (not shown). In the present embodiment, for convenience of explanation, the description is limited to only one product, so the product code column and the product name column are not shown.

  In association with the figure number stored in the figure number field 301, the figure type field 302 contains the figure type, the coordinate value 1 field 303, the coordinate value 2 field 304, the coordinate value 3 field 305,. Is remembered. Here, the number of coordinate values is determined by the figure type. When the figure type is “line segment”, the number of coordinate values is 2, and when it is “triangle”, the number of coordinate values is 3. Considering the case where the coordinate type is “triangle”, values are set in the coordinate 1 value field 303, the coordinate binary field 304, and the coordinate 3 value field 305. And the said figure means the triangle which makes each coordinate value set to each coordinate value column a vertex.

The figure number in the figure number column 301 is an identifier for uniquely identifying a figure.
The figure type in the figure type column 302 is the shape of the figure. In the present embodiment, line segments and triangles are displayed, but the present invention is not limited to this. The figure may be a line segment or a polygon other than a triangle.
The coordinate values in the coordinate value columns 303, 304, and 305 are coordinate values of the vertices of the figure. Each coordinate value is divided into an x-coordinate value corresponding to the x-axis and a y-coordinate value corresponding to the y-axis, and the x-coordinate value columns 303a, 304a, 305a, and y-coordinates in the respective coordinate value columns 303, 304, and 305. It is stored in the value column 303b, 304b, 305b.

In the present embodiment, arbitrary coordinate values (303, 304, 305,...) Are referred to as position information.
The graphic information corresponds to all position information of a certain record in the graphic information database 80.
The graphic information database corresponds to a second database.

  The correspondence between the time series information stored in the time series information database 70 and the graphic information stored in the graphic information database 80 will be described in the description of the display screen 400 described later.

(Graph (time series information display))
An object displayed on the display screen 400 (FIG. 4) based on the time series information stored in the time series information database 70 is hereinafter referred to as a graph in the present embodiment. One time series forms one graph. Specifically, one graph is a set of time-series information of columns stored in the time-series information database 70. Accordingly, one graph is formed for each of the actual production value column 202, the actual sales value column 203, the actual inventory value column 204, the planned production value column 205, the planned sales value column 206, and the planned inventory value column 207.
Since the time series information is a data value at a certain time point, when displaying a graph on the display screen 400, the time point is logically defined on the horizontal axis and the data value is logically defined on the vertical axis (hereinafter referred to as "time series axis"). . The reason why it is logical is that the time series axis is actually converted into the xy axis described later and displayed. In this embodiment, the date 431 is defined on the horizontal axis, and the number 432 is defined on the vertical axis.

The time-series information in FIG. 2 and the display screen 400 will be described in association with each other. The horizontal rectangle 402 is a manufacturing record value (column 202), the black circle 403 is a sales record value (column 203), and a white rectangle 404. Is the actual inventory value (column 204), the hatched rectangle 405 is the production plan value (column 205), the white circle 406 is the sales plan value (column 206), and the uneven rectangle 407 is the inventory plan value (column). 207).
In the present embodiment, the sales performance value graph 403 displays the cumulative value of the sales performance value (column 203), and the sales plan value graph 406 displays the cumulative value of the sales plan value (column 206).

(Figure (Display of graphic information))
An object displayed on the display screen 400 (FIG. 4) based on the graphic information stored in the graphic information database 80 is hereinafter referred to as a graphic in this embodiment. Since the graphic information represents the position of each vertex with the x-axis and the y-axis, the x-axis is defined on the horizontal axis and the y-axis is defined on the vertical axis when the graphic is displayed on the display screen 400 (hereinafter referred to as “xy-axis”). "). In this embodiment, the x coordinate 461 is defined on the horizontal axis, and the y coordinate 462 is defined on the vertical axis.
Referring to the graphic information in FIG. 3 and the display screen 400, the line segment 411 is a line segment whose graphic number (column 301) is “0001”, and the triangle 412 is a graphic number (column 301) whose graphic number is “0002”. It is a triangle, and a line segment 413 is a line segment whose graphic number (column 301) is “0003”.

(Function of editing device 1)
As shown in FIG. 6, the editing apparatus 1 according to the present embodiment can display a graph representing time series information and a graphic on the same screen. In addition, as shown in FIG. 7, the editing apparatus 1 according to the present embodiment can create a graphic having the same height as a predetermined graph, and can further deform this graphic. Further, the editing apparatus 1 according to the present embodiment can convert a figure into a graph as shown in FIG. Note that the editing apparatus 1 according to the present embodiment also has other functions.
Hereinafter, functions provided in the editing apparatus 1 will be described in detail.

The editing apparatus 1 according to the present embodiment has the following basic functions.
The editing apparatus 1 has a function of displaying time series information as a graph on the display screen 500 (FIG. 5) and a function of displaying graphic information as a graphic on the display screen 500. Further, the editing apparatus 1 can deform the graph and the graphic by causing the user to operate the display screen 500, and the time series information and the graphic information stored in the databases 70 and 80 in accordance with the deformation of the graph and the graphic. It has a function to change the contents. Further, the editing apparatus 1 can newly add a graphic to the display screen 500 by causing the user to operate the display screen 500, and changes the contents of the graphic information stored in the database 80 with the addition of the graphic. It has a function.

Next, the editing apparatus 1 according to the present embodiment has a first characteristic function.
That is, the editing device 1 adds a new figure having the same y coordinate value to the display screen 500 from the data values at arbitrary points in the graph representing any one time-series information displayed on the display screen 500. The function of changing the content of the graphic information stored in the graphic information database 80 with the addition of the graphic is provided.
Further, the editing apparatus 1 according to the present embodiment has a second characteristic function.
In other words, the editing device 1 converts any specified figure into a specified graph by specifying any one figure displayed on the display screen 500 and a graph representing any one time-series information. It has a function of changing the contents of the time series information stored in the time series information database 70 with the conversion to the graph.
Furthermore, the editing apparatus 1 according to the present embodiment has a third characteristic function.
That is, when any time-series information is changed including the change by the second characteristic function, the editing device 1 maintains consistency with the time-series information in which the values of other time-series information are changed. It has a function to correct as follows.

(Basic functions of the editing device 1)
The basic functions are as follows: a time series information input unit 21, a time series information output unit 22, an input / output control unit 23, a coordinate conversion unit 31, a time series data value change unit 32, a graphic information addition unit 33, and a graphic information change unit 34. Realized (see FIG. 1).

(First basic function)
The editing apparatus 1 has a function of displaying time series information as a graph and graphic information as a graphic on the display screen 500.
FIG. 5 is a diagram illustrating an example of the display screen 500 according to the present embodiment. On the display screen 500, the time series information stored in the time series information database 70 and the graphic information stored in the graphic information database 80 are displayed in a single screen. More specifically, on the display screen 500, a logically defined time series axis and an xy axis used for actual screen display are defined, and the time series axis is converted into an xy axis and displayed. The inventory plan value graph when the date is “2009/4/8” is not displayed because it overlaps the figure of the triangle 512, but the graph is displayed in front of the figure. May be.

(Time series information database input / output)
The time series information input unit 21 reads the time series information database 70 from an external storage device or storage medium and stores it in the auxiliary storage device 15. Reading into the time series information database 70 from the external storage device or storage medium to the auxiliary storage device 15 is performed by a known means.
Note that the time-series information output unit 22 outputs the time-series information database 70 from the auxiliary storage device 15 to an external storage device or storage medium when the processing by the editing device 1 is finished. Output from the auxiliary storage device 15 to an external storage device or storage medium is performed by a known means.

(Graph display of time series information)
The input / output control unit 23 displays the time-series information of FIG. 2 as graphs 502, 503, 504, 505, 506, and 507 on the display screen 500 shown in FIG. The process of displaying the time series information on the display screen 500 is performed by the input / output control unit 23. The input / output control unit 23 manages the display screen 500 of the output device 12 as the xy axes that are screen coordinates. The xy axes that are the screen coordinates are the same as the xy axes described in the graphic information display described above. Among the display screens 500, the display screen 400 shown in FIG. In the example illustrated in FIG. 4, the screen coordinate displayable range of the output device 12 is defined as 0 to 930 for the x coordinate 461 and 0 to 560 for the y axis 462. Here, since the time-series information represents the theoretical position on the time-series axis, it needs to be converted to the xy-axis. The coordinate conversion unit 31 performs conversion from the time series axis to the xy axis, or conversion from the xy axis to the time series axis.

(Coordinate transformation processing procedure)
The coordinate conversion unit 31 converts the date (column 201) corresponding to each data value (column 202 etc.) of the time series information database 70 into an x coordinate value (columns 303a, 304a, 305a, etc.). FIG. 9 shows a process for converting the date (column 201) to the x coordinate value.
The coordinate conversion unit 31 acquires the horizontal width of the graph display area from the input / output control unit 23, and sets this as W (step S901). In FIG. 4, the horizontal width of the graph display area is 930 (491). Next, the coordinate conversion unit 31 sets the oldest date stored in the time-series information database 70 as S (step S902). In FIG. 2, the oldest date is April 1, 2009 (201). Next, the coordinate conversion unit 31 sets E as the newest date stored in the time series information database 70 (step S903). In FIG. 2, the newest date is April 14, 2009 (201). Next, the coordinate conversion unit 31 sets a value obtained by adding 1 to a value obtained by subtracting S from E as P as a period length (step S904). Next, when the conversion source time is t, the coordinate conversion unit 31 sets x to a value obtained by multiplying t by subtracting S and W divided by P (step S905), where x is x Represents a coordinate value. Then, when the process of step S905 ends, the process by the coordinate conversion unit 31 ends.

In addition, the coordinate conversion unit 31 converts a certain data value (such as the column 202) corresponding to the date (column 201) in the time series information database 70 into a y coordinate value (such as the columns 303b, 304b, and 305b). FIG. 10 shows a process for converting a data value (such as column 202) into a y-coordinate value.
The coordinate conversion unit 31 acquires the vertical width of the graph display area from the input / output control unit 23, and sets this as H (step S1001). In FIG. 4, the vertical width of the graph display area is 560 (492).

  Next, the coordinate conversion unit 31 sets the smallest data value stored in the time series information database 70 as MIN (step S1002). Here, in the present embodiment, the sales performance value (column 203) is the cumulative value for the sales performance graph 403, and the sales performance value (column 203) and the sales plan value (column 206) is the sales plan graph 406. Since the accumulated value is displayed on the display screen 400, the sales value (column 203) and the sales plan value (column 206) are determined based on whether or not the accumulated value is the smallest. In FIG. 2, the smallest data value among all the data values is, for example, 0 of the actual manufacturing value (column 202) when the record number (200) is 0002.

  Next, the coordinate conversion unit 31 sets the largest data value stored in the time series information database 70 as MAX (step S1003). Here, regarding the setting of MAX, similarly to the setting of MIN, the sales performance value (column 203) and the sales plan value (column 206) are determined based on whether or not the accumulated value is the largest. In FIG. 2, the largest data value among all data values is 3500, which is the cumulative value of the sales record value (column 203) and the sales plan value (column 206) when the record number (200) is 0014 (see FIG. 2). Is a value that cannot be expressed directly).

  Next, the coordinate conversion unit 31 sets RANGE as a value obtained by subtracting MIN from MAX (step S1004). Next, assuming that the data value of the conversion source is D, the coordinate conversion unit 31 sets y as a value obtained by multiplying D by subtracting MIN and H divided by RANGE (step S1005). Represents the y coordinate value. Again, if a sales value is used as D, a cumulative value is used. Then, when the process of step S1005 ends, the process by the coordinate conversion unit 31 ends.

Further, the coordinate conversion unit 31 sets the x coordinate value (columns 303a, 304a, 305a, etc.) to the date (column 201) of the time series information, and the y coordinate value (303b, 304b, 305b, etc.) to the data value (column). 202, 203, 204, 205, 206, 207). The processing content is the reverse of the process of converting the date into the x coordinate value and the data value into the y coordinate value.
In the present embodiment, the coordinate conversion unit 31 has been described on the assumption that there is a set of xy axes, and the coordinate conversion processing procedure for changing the time point and the data value to the x coordinate and the y coordinate, respectively. However, the present invention is not limited to this. For example, a plurality of different coordinate axes are provided on the same screen, and different product graphs and figures are displayed on the respective coordinate axes. And the coordinate conversion process in which an axis changes for displaying so that a graph and a figure can go back and forth between each coordinate axis may be sufficient.

(Graph display of graphic information)
The input / output control unit 23 displays the graphic information of FIG. 3 as graphics 511, 512, and 513 on the display screen 500 shown in FIG. The input / output control unit 23 performs processing for displaying the graphic information on the display screen 500. Since the graphic information represents the position on the xy axis, the coordinate axis conversion by the coordinate conversion unit 31 is not necessary.

(Second basic function)
The editing apparatus 1 can deform a graph and a graphic by causing the user to operate the display screen 500, and the time series stored in the time-series information database 70 or the graphic information database 80 along with the deformation of the graph and the graphic. It has a function of changing the contents of information or graphic information.

(Graph deformation)
The user can transform the graph by operating the graphs 502 to 507 in FIG. 5 with the input device 11 such as a mouse. Corresponding time-series information in the time-series information database 70 is changed with the deformation of the graph. The time-series data value changing unit 32 controls the change of the time-series information by the user's graph transformation operation. The time series data value changing unit 32 changes the time series information stored in the time series information database 70 in the procedure shown in FIG.
The process of the time-series data value changing unit 32 is started when the user drags the graphs 502 to 507 shown in FIG. 5 with the mouse. At this time, the time-series data value changing unit 32 receives the information of the graph dragged with the mouse via the input / output control unit 23.

  The input / output control unit 23 manages position information dragged with the mouse. The position information selected by the mouse is temporarily stored as the x coordinate value and the y coordinate value. Further, when there is a graph, a figure, or the like at the position selected by the mouse, the time series information, the figure information, etc. are stored. As described above, since the graph and the graphic are displayed on the screen via the input / output control unit 23, the input / output control unit 23 manages these pieces of information.

In step S1101, the time-series data value changing unit 32 determines whether the graph dragged with the mouse is a “bar graph”. Information regarding whether or not it is a “bar graph” can be obtained by the input / output control unit 23. Specifically, information relating to the graph (hereinafter referred to as graph information) may be provided as data in the time series information database 70 in association with each actual value and plan value, and is not illustrated separately from the time series information. A database having graph information may be created. The input / output control unit 23 recognizes that there is a graph at the position dragged with the mouse, and in the former case, the graph information can be acquired by accessing the time-series information database 70. A database having graph information may be referred to via the series information database 70. Thereby, the type of the selected graph can be obtained.
If the dragged graph is a graph 502, 504, 505, or 507 that is a bar graph, the process proceeds to step S1102 (step S1101 “yes”), and if it is a graph 503 or 506 that is not a bar graph, the process proceeds to step S1103 (step S1101). “No”).

In step S1102, the time-series data value changing unit 32 determines whether or not the position dragged with the mouse is “the upper end of the bar graph”. Whether or not “the upper end of the bar graph” is determined is determined using the input / output control unit 23. If there is an xy coordinate value that is position information selected by the mouse and an xy coordinate value of time-series information corresponding to the bar graph at a location corresponding to the position information, it can be determined that the upper end of the bar graph.
If the dragged position is the upper end of the bar graphs 502, 504, 505, and 507, the process proceeds to step S1103 (“yes” in step S1102). If the dragged position is other than the upper end of the bar graphs 502, 504, 505, and 507, nothing is done. The sequence data value change processing procedure is terminated (step S1102 “no”).

In step S1103, the time-series data value changing unit 32 acquires the y-coordinate value at the position where the drag has ended, converts it to a data value, and sets this to “D”.
Specifically, the position where the dragging is completed is acquired from the input / output control unit 23 as the value of the y coordinate 462 shown in FIG. 4, and the acquired value of the y coordinate 462 is converted into the data value 432 by the coordinate conversion unit 31. To do. The converted value is stored as “D”.

In step S1104, the time-series data value changing unit 32 acquires the x-coordinate value at the position where the drag has ended and converts it to time, which is set to “t”.
Specifically, the position where the dragging is completed is acquired from the input / output control unit 23 as the value of the x coordinate 461 shown in FIG. 4, and the acquired value of the x coordinate 461 is converted into time by the coordinate conversion unit 31. The converted value is stored as “t”.

In step S1105, the time-series data value changing unit 32 rounds down the units (hours, minutes, seconds) below “day” of t to make the date.
In step S1106, the time-series data value changing unit 32 determines whether or not the graph dragged with the mouse is “manufacturing performance”. Whether or not it is “manufacturing performance” may be determined using the input / output control unit 23. Since the input / output control unit 23 performs control to display time series information as a graph on the screen, the input / output control unit 23 manages the selected graph information. Therefore, it can be determined whether or not the graph selected with the mouse is a manufacturing record.
If the dragged graph is the graph 502, the process proceeds to step S1107 (step S1106 “yes”), and if it is not the graph 502, the process proceeds to step 1108 (step S1106 “no”).

In step S <b> 1107, the time-series data value changing unit 32 sets the manufacturing performance value corresponding to the date “t” in the time-series information database 70 to D.
Specifically, a line having the same value as t in the date (column 201) in the time-series information database 70 shown in FIG. 2 is extracted, and the manufacturing result value (column 202) in the line is updated to D. To do.

In step S1108 to step S1117, the time-series data value changing unit 32 performs the production plan value (column 205), the sales record value (column 203), the sales plan value (column 206), the inventory record value (column 204), the inventory. For the planned value (column 207), the same processing as the processing in step S1106 and step S1107 performed in the above-described actual manufacturing value (column 202) is performed.
Then, when the processing of step S1106 to step S1117 ends, the processing by the time series data value changing unit 32 ends.

(Shape deformation)
The user can transform the figure by dragging and dropping the figures 511 to 513 in FIG. 5 with the input device 11 such as a mouse. Corresponding graphic information in the graphic information database 80 is changed with the deformation of the graphic. The graphic information change unit 33 controls the graphic information change by the user's graphic deformation operation. The graphic information changing unit 33 changes the graphic information stored in the graphic information database 80 in the procedure shown in FIG.
The process of the graphic information changing unit 33 is started by the user dragging the graphics 511 to 513 shown in FIG. 5 with the mouse. At this time, the graphic information changing unit 33 receives the graphic information of the graphic dragged with the mouse via the input / output control unit 23.

  The input / output control unit 23 manages position information dragged with the mouse. The position information selected by the mouse is temporarily stored as the x coordinate value and the y coordinate value. If there is a figure at the position selected by the mouse, the figure information is stored. As described above, since the graphic is displayed on the screen via the input / output control unit 23, the input / output control unit 23 manages these pieces of information.

  The graphic information changing unit 33 finds the vertex of the graphic corresponding to the position dragged with the mouse in the graphic information database 80 (step S1207) or completes the processing for the total number of lines in the graphic information database 80 without being found. Until this is done, the processing from step S1202 to step S1210 is performed (step S1201).

The graphic information changing unit 33 extracts the Lth line of the graphic information database 80 (step S1202), determines whether the graphic type of the extracted graphic information is a line segment (step S1203), and if the graphic is a line segment (step S1203). Step S1203 “yes”) 2 is substituted for N (Step S1205), and if the figure is a triangle (Step S1203 “no”), 3 is substituted for N (Step S1204), and the number of N values is equal to Step S1207. Is performed (step S1207).
The graphic information changing unit 33 determines whether or not the coordinate value of the position dragged with the mouse matches the n coordinate value of the line fetched from the graphic information database 80 (step S1207). “Yes”) Preparation for changing the value of coordinate value n is started (step S1208). If they do not match (step S1207 “no”), the process returns to step S1206.

After step S1208, the graphic information changing unit 33 temporarily stores the position where the user has dragged the button (step S1209), and the n coordinate value of the line fetched from the graphic information database 80 is stored. Then, the coordinate value of the position stored in step S1209 is changed (step S1210).
Then, if the vertex of the figure corresponding to the position dragged with the mouse in the graphic information database 80 is found (step S1207), or if the processing for the total number of lines in the graphic information database 80 is completed without being found, the graphic information is changed. The process by the unit 33 is terminated.
The changed contents of the graphic information database 80 are reflected on the display screen 500 by the input / output control unit 23.

(Third basic function)
The editing apparatus 1 can newly add a graphic to the display screen 500 by causing the user to operate the display screen 500, and changes the content of the graphic information stored in the graphic information database 80 with the addition of the graphic. It has a function.

(Add shape)
The user can add a figure by pressing the button 521 or 522 in FIG. 5 and specifying one or more arbitrary positions on the display screen 500. One line of graphic information is added to the graphic information database 80 with the addition of the graphic. The graphic information adding unit 34 controls graphic information obtained by the user's graphic adding operation. The graphic information adding unit 34 adds one line of graphic information to the graphic information database 80 in the procedure shown in FIG.
When the user presses the button 521 or 522 shown in FIG. 5, the process of the graphic information adding unit 34 is started. At this time, the graphic information adding unit 34 receives information on the button pressed by the user via the input / output control unit 23.

The graphic information adding unit 34 determines whether the button pressed by the user is the line addition button 521 or the triangle addition button 522 (step S1300), and when the button is the line addition button 521 (step S1300 “yes”). ) Proceeds to step S1301, and in the case of the triangle addition button 522 (step S1300 “no”), the process proceeds to step S1311.
When the straight line addition button 521 is pressed, the graphic information adding unit 34 receives the coordinate value of the position first clicked by the user with the mouse via the input / output control unit 23 (step S1301), and the clicked position. Is stored as x1 and the y-coordinate value is stored as y1 (step S1302). The coordinate value of the position where the user has clicked with the mouse second is received via the input / output control unit 23 (step S1303), and the x coordinate value of the clicked position is stored as x2, and the y coordinate value is stored as y2. Step S1304).

The graphic information adding unit 34 adds one line of data to the graphic information database 80 (step S1305). A number corresponding to the figure number (column 301) of the added line is set, a number corresponding to the figure number (column 301) is set, a "line segment" wording is set to the figure type (column 302), and the x coordinate X1 is set to 1 value (column 303a), y1 is set to y coordinate 1 value (column 303b), x2 is set to x coordinate 2 value (column 304a), and y2 is set to y coordinate 2 value (column 304b). Is set (step S1306).
When the triangle addition button 522 is pressed, the graphic information addition unit 34 performs the same processing as when the line addition button 521 is pressed (steps S1311 to S1318).
Then, when the process of step S1306 or step S1318 ends, the process by the graphic information addition 34 ends.

The changed contents of the graphic information database 80 are reflected on the display screen 500 by the input / output control unit 23.
In the present embodiment, only two types of the line addition button 521 and the triangle addition button 522 are shown and described on the display screen 500, but a point addition button or a polygon addition button is provided on the display screen 500. Also good. When these buttons are pressed, the graphic addition process may be performed in the same way as the above-described addition of a straight line and a triangle.

(First characteristic function of the editing apparatus 1)
The first characteristic function is realized mainly by the data specifying unit 42 and the data value conversion figure adding unit 41.
The editing apparatus 1 newly adds a graphic having the same y coordinate value to the display screen 500 from the data value at an arbitrary time of the graph representing any one time-series information displayed on the display screen 500. The function of changing the contents of the graphic information stored in the graphic information database 80 is added. The data value conversion figure adding unit 41 newly adds a figure having the same y coordinate value to the display screen 500 from the data value at any time of the graph representing any one time-series information in the procedure shown in FIG. To do.

The user presses the data-to-line conversion button 523 in FIG. 5 or the data-to-triangle conversion button 524, and designates the data value at an arbitrary time on an arbitrary graph on the display screen 500, thereby making it the same as the data value. A figure having a y-coordinate value can be newly added to the display screen 500. With the addition of the graphic, one line of graphic information is added to the graphic information database 80. The data value conversion graphic adding unit 41 controls the graphic adding operation using the user data value. The data value conversion figure adding unit 41 adds one line to the figure information database 80 in the procedure shown in FIG.
When the user presses the button 523 or 524 shown in FIG. 5, the processing of the data value conversion figure adding unit 41 is started. At this time, the data value conversion figure adding unit 41 receives the information of the button pressed by the user via the input / output control unit 23.

  The data value conversion figure adding unit 41 activates the data specifying unit 42 as a premise for starting step S1401. Therefore, first, the processing procedure of the data specifying unit 42 shown in FIG. 15 will be described. Here, the user designates a data value at an arbitrary time on an arbitrary graph on the display screen 500. The data specifying unit 42 receives the graph information of the graph specified by the user via the input / output control unit 23.

The data specifying unit 42 converts the x-coordinate value of the clicked position into time by the coordinate conversion unit 31, and sets this as t (step S1501). Next, the data designating unit 42 rounds down the units (hours, minutes, seconds) below “day” of t, and newly sets the data as year / month / day data as t (step S1502).
The data specifying unit 42 determines whether or not the specified graph is a manufacturing record from the graph information of the graph received via the input / output control unit 23 (step S1503), and the specified graph is the manufacturing record. If there is, the time series of the graph and the value of year / month / day t are returned to the data value conversion figure adding unit 41 to end the processing (step S1504), and if the designated graph is not a production record, the process proceeds to step S1505.
Thereafter, in step S1505 to step 1514, the data specifying unit 42 determines whether or not the specified graph is a manufacturing plan, a sales record, a sales plan, an inventory record, or an inventory plan, and if a corresponding time series is found. Then, the time series of the designated graph and the value of the year / month / day t are returned to the data value conversion figure adding unit 41, and the process is terminated.

Returning to FIG. 14, the data value conversion figure adding unit 41 accepts the time series of the graph designated from the data designation unit 42 and the value of the year / month / day t (step S1401). The data value conversion figure adding unit 41 finds a record whose date (column 201) matches t from the time series information database 70, and displays the time series of the graph in which the time series of the matched records is designated. A matching data value is acquired (step S1402).
The data value conversion figure adding unit 41 uses the coordinate conversion unit 31 to convert year / month / day t into an x coordinate value, and sets the converted value as x1 (step S1403). Further, the coordinate conversion unit 31 is used to convert the data value acquired in step S1402 into a y-coordinate value, and the converted value is set to y1 (step S1404).

The data value conversion figure adding unit 41 adds one line to the figure information database 80 (step S1405). Next, it is determined whether the figure is a line segment using the information of the button pressed by the user received via the input / output control unit 23 (step S1406). The process proceeds to step S1407 (step S1406 “yes”), and if the figure is not a line segment, the process proceeds to step S1408 (step S1406 “no”).
When the graphic is a line segment, the data value conversion graphic adding unit 41 sets a number corresponding to the graphic number (column 301) of the line added in step S1405, and sets “line segment” in the graphic type (column 302). Set the wording, set the x-coordinate value (column 303a) to x1, set the y-coordinate value (column 303b) to y1, and set the x-coordinate value (column 304a) to x1 value. Then, 0 is set in the y-coordinate binary (column 304b) (step S1407).

When the figure is a triangle, the data value conversion figure addition unit 41 sets a number corresponding to the figure number (column 301) of the line added in step S1405, and sets the “triangle” wording in the figure type (column 302). Set x value in x coordinate 1 value (column 303a), y1 value in y coordinate 1 value (column 303b), and x1 + 20 value in x coordinate 2 value (column 304a). Then, 0 is set in the y coordinate binary (column 304b), the value x1 is set in the x coordinate three value (column 305a), and 0 is set in the y coordinate three value (column 305b) (step S1408).
Then, when the process of step S1407 or step S1408 ends, the process by the data value conversion figure adding unit 41 ends.

The changed contents of the graphic information database 80 are reflected on the display screen 500 by the input / output control unit 23. The line segment set in step S1407 is a line segment perpendicular to the x-axis having the length of y-coordinate value 1. The triangle set in step S1408 is displayed with a y-coordinate value of 1 as the height and a base of 20. However, the present embodiment is not limited to these line segments and triangles. Regarding the line segment in step S1407, it is sufficient that one end of the line segment is at the same position as the graph designated by the user. Specifically, the x coordinate value at one end of the line segment may be x1, and the y coordinate value may be y1. Regarding the triangle in step S1408, any one vertex of the triangle may be at the same position as the graph designated by the user. Specifically, the x coordinate value of any one vertex of the triangle may be x1, and the y coordinate value may be y1.
Note that the graphic created by the first characteristic function can be transformed into an arbitrary shape by the graphic information conversion unit 33 described above.

(Second characteristic function of the editing apparatus 1)
The second characteristic function is realized mainly by the graphic conversion time series data value conversion unit 51 and the graphic time series designation unit 52.
The editing apparatus 1 can convert the designated figure into the designated graph by designating any one figure displayed on the display screen 500 and a graph representing any one time-series information. The time series information stored in the time series information database 70 can be changed along with conversion from a graphic to a graph. The graphic conversion time-series data value conversion unit 51 and the graphic time-series specifying unit 52 change the line forming the graphic into a graph by designating any one graphic in the procedure shown in FIGS. , 500 is displayed on the display screen.

The user presses a graphic to sales plan conversion button 525, a graphic to production plan conversion button 526, or a graphic to inventory plan conversion button 527 shown in FIG. 5 and designates any graphic on the display screen 500. Thus, a line forming the graphic (511, 512 or 513) can be converted into a graph, and a new graph can be added to the display screen 500. With the addition of the graph, the content of the corresponding record in the time series information database 70 is changed. The graphic conversion time-series data value conversion unit 51 and the graphic time-series specifying unit 52 control the user's graphic-to-graph conversion operation. The graphic conversion time series data value conversion unit 51 and the graphic time series designation unit 52 change the contents of the corresponding record in the time series information database 70 in the procedure shown in FIGS.
When the user presses the buttons 525, 526, or 527 shown in FIG. 5, the processing of the graphic time series designating unit 52 is started. At this time, the graphic time series designating unit 52 receives information on the button pressed by the user via the input / output control unit 23.

  The graphic time series designation unit 52 acquires the corresponding time series from the information of the button pressed by the user (step S1601). Next, the graphic time series designating unit 52 accepts that the user clicks an arbitrary graphic on the display screen 500 (step S1602). Next, the figure time series designating unit 52 sets the clicked figure as the designated figure (step S1603). Then, the graphic time series designating unit 52 passes the graphic information of the selected graphic to the graphic conversion time series data value conversion unit 51 and ends the process.

The graphic conversion time-series data value conversion unit 51 uses the x-coordinate 1 value (column 303a) of the graphic in which the graphic number (column 301) of the graphic information database 80 matches the graphic number (column 301) of the transferred graphic information. Is converted into time using the coordinate conversion unit 31 and set to T1. Further, the hour, minute, and second of T1 are rounded down to be set as t1 (step S1701).
Further, the graphic conversion time series data value conversion unit 51 acquires the y coordinate 1 value (column 303b), converts it to a data value using the coordinate conversion unit 31, and sets it to D1. (Step S1702).
Next, the graphic conversion time series data value conversion unit 51 acquires the x-coordinate binary value (column 304a), converts it into time using the coordinate conversion unit 31, and sets it to T2. Further, the hour, minute, and second of T2 are rounded down to be set to t2 (step S1703).
Further, the graphic conversion time series data value conversion unit 51 acquires the y-coordinate binary value (column 304b), converts it into a data value using the coordinate conversion unit 31, and sets it to D2. (Step S1704).

The figure conversion time-series data value conversion unit 51 sets a value obtained by dividing D2 minus D1 by T2 minus T1 (step S1705).
Next, t is added day by day from t1, and the processes of step S1707 and step S1708 are repeated until t2 is reached (step S1706). The figure conversion time-series data value conversion unit 51 sets a value obtained by multiplying t by subtracting T1 by a and further adding D1 to D (step S1707). Next, in the specified time series in the time series information database 70, the data value of the row whose date (column 201) matches t is set to D (step S1708). Then, when the processing of step S1706 ends, the processing by the graphic conversion time series data value conversion unit 51 ends.

Specific examples of processing by the graphic conversion time series data value conversion unit 51 and the graphic time series specification unit 52 are shown in FIGS.
It is assumed that the triangle 180 shown in FIG. 18 is displayed on the display screen 500, and the user selects the triangle 180 after pressing the button 525, 526, or 527. Then, the graphic conversion time series data value conversion unit 51 and the graphic time series designation unit 52 shown in FIGS. 16 and 17 are processed. As a result, a triangular line composed of coordinates 1 and 2 becomes a graph 191 representing specific time-series information from April 8, 2009 to April 12, 2009.
The data value is changed to a value corresponding to the position of the circles shown in FIG.

(Third characteristic function of the editing apparatus 1)
The third characteristic function is mainly realized by the inventory plan automatic calculation unit 61 or the manufacturing plan automatic calculation unit 62.
Here, usually, after a sales plan is made, a stock quantity necessary for the sales plan is calculated, and a production plan corresponding to the stock quantity is made. For this reason, in the present embodiment, automatic calculation of an inventory plan and a production plan will be described, but the present invention is not limited to this. That is, the sales plan may be automatically calculated.

  The inventory plan automatic calculation unit 61 is activated when the production plan value (column 205) or the sales plan value (column 206) is changed by the time series data value changing unit 32 or the figure conversion time series data value changing unit 51. Then, the inventory plan value (column 207) is calculated by performing the processing shown in FIG.

(Inventory plan automatic calculation process)
The inventory plan automatic calculation unit 61 sets 1 to L (step S2001), and the inventory actual value (column 204) of the record whose record number (column 200) in the time series information database 70 matches L is a null value. If the actual inventory value (column 204) is not the null value, the process proceeds to step S2003 (step S2002 “no”), and if the actual inventory value (column 204) is the null value, the process proceeds to step S2005. (Step S2002 “yes”).
If the actual inventory value (column 204) is not a null value, the inventory plan automatic calculation unit 61 adds 1 to L to newly set L (step S2003), and whether L is larger than the number of rows in the time series information database 70. (Step S2004), the process is terminated if the number of lines is large (step S2004 “yes”), and if the number of lines is not large, the process returns to step S2002 (step S2004 “no”).

  If the actual inventory value (column 204) is a null value in the determination in step S2002, the inventory plan automatic calculation unit 61 sets the record number L to the inventory plan value (column 207) and the record number L-1. Inventory actual value (column 204) + production plan value with record number L (column 205) −sales plan value with record number L (column 206) is set (step S2005). However, when the production plan value (column 205) and the sales plan value (column 206) with the record number L are null, the calculation is made as 0. When the process of step S2005 is completed, 1 is added to L to form a new L (step S2006).

The inventory plan automatic calculation unit 61 next determines whether L is larger than the number of rows in the time-series information database 70 (step S2007). If the number of rows is large, the process ends (step S2007 “yes”), and the number of rows. If is not large, the process proceeds to step S2008 (step S2007 “no”).
When L is not larger than the number of lines, the inventory plan automatic calculation unit 61 sets the inventory plan value (column 207) with the record number L to the inventory plan value (column 207) with the record number L-1 plus the record number. Production plan value for L (column 205) -Sales plan value for record number L (column 206) is set (step S2008). However, when the production plan value (column 205) and the sales plan value (column 206) with the record number L are null, the calculation is made as 0. When step S2008 ends, the process returns to step S2006.
Then, the inventory plan automatic calculation unit 61 repeats the processes in steps S2006 to S2008, and ends the process when L becomes larger than the number of rows in the time series information database 70 (step S2007 “yes”).

(Manufacturing plan automatic calculation process)
When the inventory plan value (column 207) is changed by the time-series data value changing unit 32 or the graphic conversion time-series data value changing unit 51, the production plan automatic calculation unit 62 performs the process shown in FIG. The planned value (column 205) is calculated.

The production plan automatic calculation unit 62 sets L to 1 (step S2101), and the inventory actual value (column 204) of the record whose record number (column 200) in the time series information database 70 matches L is a null value. If the actual inventory value (column 204) is not a null value, the process proceeds to step S2103 (step S2102 “no”), and if the actual inventory value (column 204) is a null value, the process proceeds to step S2105. (Step S2102 “yes”).
If the actual inventory value (column 204) is not a null value, the production plan automatic calculation unit 62 adds 1 to L to newly set L (step S2103), and whether L is larger than the number of rows in the time series information database 70. (Step S2104), the process is terminated if the number of lines is large (step S2104 “yes”), and if the number of lines is not large, the process returns to step S2102 (step S2104 “no”).

  If the actual inventory value (column 204) is a null value in the determination in step S2102, the production plan automatic calculation unit 62 adds the inventory whose record number is L-1 to the temporary inventory quantity that is temporarily used. Actual value (column 204) + production plan value with record number L (column 205) −sales plan value with record number L (column 206) is set (step S2105). However, when the production plan value (column 205) and the sales plan value (column 206) with the record number L are null, the calculation is made as 0. When the process of step S2105 ends, the process proceeds to step S2106.

  The production plan automatic calculation unit 62 determines whether the temporary inventory quantity is smaller than the inventory plan value (column 207) with the record number L (step S2106). However, when the inventory plan value (column 207) with the record number L is null, it is determined as 0. If the temporary inventory quantity is smaller than the planned inventory value (column 207) with the record number L (step 2106 “yes”), the planned inventory value with the record number L is added to the production planned value (column 205) with the record number L. (Field 207) -A temporary inventory quantity is set (step S2107), and 1 is added to L to make a new L (step S2108). When the temporary inventory quantity is larger than the planned inventory value (column 207) with the record number L (step 2106 “no”), 1 is added to L to make a new L (step S2108).

Next, the production plan automatic calculation unit 62 determines whether L is larger than the number of rows in the time-series information database 70 (step S2109). If the number of rows is large, the process ends (step S2109 “yes”), and the number of rows If is not large, the process proceeds to step S2110 (step S2109 “no”).
If L is not larger than the number of rows, the production plan automatic calculation unit 62 adds the inventory plan value with the record number L-1 (column 205) + the production plan value with the record number L (column 205) in the temporary inventory quantity. Set a sales plan value (column 206) with a record number L (step S2110). However, when the production plan value (column 205) and the sales plan value (column 206) with the record number L are null, the calculation is made as 0. When step S2110 ends, the process returns to step S2106.
Then, the manufacturing plan automatic calculation unit 62 repeats the processes of Steps S2106 to S2110, and ends the process when L becomes larger than the number of rows in the time series information database 70 (Step S2109 “yes”).

1 Graph and figure editing device (editing device)
DESCRIPTION OF SYMBOLS 11 Input device 12 Output device 13 Central control device 14 Main storage device 15 Auxiliary storage device 23 Input / output control part 31 Coordinate conversion part 41 Data value conversion figure addition part 42 Data designation part 51 Graphic conversion time series data value conversion part 52 Graphic time Series designation unit 61 Inventory plan automatic calculation unit 62 Manufacturing plan automatic calculation unit 70 Time series information database (first database)
80 Graphic information database (second database)
302 figure type 303, 304, 305 coordinate value (coordinate 1 value, coordinate 2 value, coordinate 3 value)
201 Date 202 Actual production value 203 Actual sales value 204 Actual inventory value 205 Production plan value 206 Sales plan value 207 Inventory plan value

Claims (11)

An editing device having a display device for displaying on a two-dimensional coordinate plane,
The storage unit of the editing device is
A first database storing a plurality of time-series information that can be expressed as a set of consecutive points on the two-dimensional coordinate plane;
A second database storing graphic information that can be expressed as a set of line segments determined by position information of at least two points on the two-dimensional coordinate plane;
The time series information includes a certain time point and a data value at the time point,
The position information is composed of an x-coordinate value and a y-coordinate value on the two-dimensional coordinate plane,
The control unit of the editing device,
Obtaining a point of time series information from the first database, converting a time point of the obtained point of time series information into an x-coordinate value, and converting a data value into a y-coordinate value;
A record indicating graphic information having the converted x coordinate value and y coordinate value as position information of one point and at least one predetermined position information as position information of another point is stored in the second database. An editing device. An editing device having a display device for displaying on a two-dimensional coordinate plane,
The storage unit of the editing device is
A first database storing a plurality of time-series information that can be expressed as a set of consecutive points on the two-dimensional coordinate plane;
A second database storing graphic information that can be expressed as a set of line segments determined by position information of at least two points on the two-dimensional coordinate plane;
The time series information includes a certain time point and a data value at the time point,
The position information is composed of an x-coordinate value and a y-coordinate value on the two-dimensional coordinate plane,
The control unit of the editing device,
Acquiring position information of a certain line segment from the second database, converting the x coordinate value of each position information of the acquired line segment into a time point, and converting the y coordinate value into a data value;
Calculate the slope of this line segment from the time and data value of the converted line segment,
The editing apparatus, wherein the line segment is divided into predetermined intervals, and time series information at the time of the division is stored in the first database. The editing device
The time series information stored in the first database is summarized into a graph for each time series,
As the graphic information stored in the second database,
The editing apparatus according to claim 1, wherein the editing apparatus displays images simultaneously on a two-dimensional coordinate plane of the display device. An editing device having a display device for displaying on a two-dimensional coordinate plane,
The storage unit of the editing device is
A first database storing a plurality of time-series information that can be expressed as a set of consecutive points on the two-dimensional coordinate plane;
A second database storing graphic information that can be expressed as a set of line segments determined by position information of at least two points on the two-dimensional coordinate plane;
The time series information includes a certain time point and a data value at the time point,
The data value is composed of the quantity of an object, its increase and decrease,
The position information is composed of an x-coordinate value and a y-coordinate value on the two-dimensional coordinate plane,
The control unit of the editing device,
An editing apparatus, wherein when at least one of the data values belonging to a certain time series in the first database is changed, a data value belonging to another time series is changed. The control unit of the editing device,
If the changed data value is an increase in the quantity and / or a decrease in the quantity,
5. The quantity at a certain time point is calculated by adding an increase amount of the quantity at a certain time point to a quantity at a previous time point and further subtracting a decrease amount of the quantity at a certain time point. The editing device described. The control unit of the editing device,
When the data value to be changed is the quantity of the certain object,
The amount of increase in quantity at a certain point
Calculate the provisional quantity by adding the increase in quantity at a certain point to the quantity at the previous time, and subtracting the decrease in quantity at a certain point in time,
The calculated temporary quantity is calculated by subtracting the calculated temporary quantity from the quantity at a certain time when the calculated temporary quantity is smaller than the quantity at a certain time. Editing device. The quantity of a certain thing in the data value is the number of inventory, the increase in quantity is the number of manufacturing, and the decrease in quantity is the number of sales. The editing apparatus according to item 1. The control unit of the editing device,
Acquiring position information of a certain line segment from the second database, converting the x coordinate value of each position information of the acquired line segment into a time point, and converting the y coordinate value into a data value;
Calculate the slope of this line segment from the time of conversion and the data value,
8. The data value is changed by dividing the line segment into predetermined intervals and storing the time series information at the time of the division in the first database. The editing device according to any one of the above. An editing program for functioning an editing device having a display device for displaying on a two-dimensional coordinate plane,
For the storage unit of the editing device,
A first database storing a plurality of time-series information composed of a certain time point and a data value at the time point, which can be expressed as a set of consecutive points on the two-dimensional coordinate plane;
A second database storing graphic information composed of x-coordinate values and y-coordinate values, which can be expressed as a set of line segments determined by position information of at least two points on the two-dimensional coordinate plane. ,
For the control unit of the editing device,
Obtaining a point of time series information from the first database, converting a time point of the obtained point of time series information into an x-coordinate value, and converting a data value into a y-coordinate value;
The step of storing in the second database a record indicating graphic information having the converted x coordinate value and y coordinate value as position information of one point and at least one predetermined position information as position information of another point is performed. An editing program characterized by having An editing program for functioning an editing device having a display device for displaying on a two-dimensional coordinate plane,
For the storage unit of the editing device,
A first database storing a plurality of time-series information composed of a certain time point and a data value at the time point, which can be expressed as a set of consecutive points on the two-dimensional coordinate plane;
A second database storing graphic information composed of x-coordinate values and y-coordinate values, which can be expressed as a set of line segments determined by position information of at least two points on the two-dimensional coordinate plane. ,
For the control unit of the editing device,
Acquiring position information of a certain line segment from the second database, converting the x coordinate value of each position information of the acquired line segment into a time point, and converting the y coordinate value into a data value;
Calculate the slope of this line segment from the time and data value of the converted line segment,
An editing program, comprising: dividing the line segment into predetermined intervals and storing the time series information at the time of the division in the first database. An editing program for functioning an editing device having a display device for displaying on a two-dimensional coordinate plane,
For the storage unit of the editing device,
A plurality of times that can be expressed as a set of consecutive points on the two-dimensional coordinate plane, and that are composed of a certain time point and a data value composed of the quantity of an object, its increase and decrease, at that time. A first database storing series information;
A second database storing graphic information composed of x-coordinate values and y-coordinate values, which can be expressed as a set of line segments determined by position information of at least two points on the two-dimensional coordinate plane. ,
For the control unit of the editing device,
An editing program for executing a step of changing a data value belonging to another time series when at least one of the data values belonging to a certain time series in the first database is changed.

Images