JPH07187532A - Investigation data processing device for elevator replacing point - Google Patents

Abstract

PURPOSE:To provide an investigation data processing device for an elevator replacing point, capable of efficiently performing investigation and measurement of the replacing point. CONSTITUTION:An investigation data processing device 10 for an elevator replacing point is composed of an input unit 11, first to fourth storing unit 12a to 12d, a display unit 13, an input/output unit 14, and a control unit 15. All investigating and measuring points including the input range of the investigated and measured result are stored in the first stored in the second storing unit 12b, and the coordinates and the sizes of respective input ranges are stored in the third storing unit 12c, and the size of an input window is stored in the fourth storing unit 12d, and the control unit 15 determines the display position of the input window, where the input range is not shielded by the input window, and the input window is moved to the display position.

Description

Detailed Description of the Invention

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to an elevator that collects survey data on the structure and equipment of the site where the elevator is installed and dimension measurement data at a predetermined location when the existing elevator is replaced with a new elevator. The present invention relates to a data processing device for investigation at an exchange site.

[0002]

2. Description of the Related Art When an elevator that has reached the end of its useful life or is no longer able to perform the desired function is to be removed and replaced with a new elevator, to determine the specifications of the new elevator and to carry out related work associated with the replacement , It is necessary to investigate the installation site of the elevator in advance. This survey is conducted by a surveyor at the sales office, etc., who has jurisdiction over the elevator, visiting the site and recording the measurement results and survey results in the dimension measurement record table and survey result record table prepared in advance.

FIG. 9 is a diagram showing a dimension measurement record table. In the figure, 1 shows a dimension measurement record table (paper). In the left column, the place to be measured is described, in the center column, the symbol corresponding to the place is described, and in the right column, the actual measurement value is entered. Has become. The surveyor actually measures each measurement point and enters the value in the corresponding column. The measurement part and symbols will be described later.

FIG. 10 is a diagram showing a survey result record table.
In the figure, reference numeral 2 denotes a survey result recording paper (paper), which is divided into survey categories, survey items, and survey results in order from the left column.

Survey categories are roughly classified into on-site, related construction, and elevator specifications, and survey items are described in each category. The sites of the survey divisions are further subdivided into landings, hoistways, cars, machine rooms, and others, and related works are subdivided into buildings and electrical equipment, each with multiple survey items.

The surveyor takes the measurement measurement record table 1 and the survey result record table 2 in which the results of the measurement and the survey are entered to the sales office to which he belongs, creates a drawing based on the dimension measurement record table 1, and conducts the survey. A survey table is prepared based on the result record table 2. A survey table will be created separately for each of the site, related construction, and elevator specifications.

FIG. 11 shows the above drawing. In the figure,
Reference numeral 3 shows the corresponding drawing, in which a plane cross-sectional view of the hoistway 3a and the car 3c is drawn on the upper left, a plane cross-sectional view of the machine room 3e is drawn on the lower left, and their side cross-sectional views are drawn on the right. In the figure, 3b
Is the entrance and exit of each landing floor, 3d is the counterweight,
3f is a machine room entrance / exit, 3g is a machine room louver, 3h is a lighting window, 3i is ventilation equipment, 3j is a machine room floor, 3k is a motor,
3m is a rope, 3nU is the top floor hall, 3nD is the bottom floor, and 3p is a frame-shaped platform that supports the car 3c. Further, in the figure, X is the width in the hoistway,
Y is the inside depth of the hoistway, OP is the entrance width, EH is the entrance height, OH is the overhead, TC is the top clearance, A is the inside cage width, B is the inside cage depth, and C is the inside cage height, S is the machine room normal width, T is the machine room normal depth, H is the machine room normal height, TH is the total height, TR is the ascending / descending stroke, and PH is the pit depth.

Of the above, the dimension measurement record table 1 and the survey result record table 2 are filed at the sales office, and the drawings and the survey confirmation table are distributed to each department related to the replacement work of the elevator and The base paper is filed at the sales office.

In the above-mentioned drawing and survey table preparation, it is necessary to write in the dimension measurement record table 1 and the survey result record table 2 on site, and to write in the drawing 3 and survey table.
It is extremely troublesome and time-consuming for an investigator to write on such a sheet. Therefore, the applicant is
In Japanese Patent Application No. 4-298687, a portable computer is used to store a dimensional measurement record table 1, a survey result record table 2 and a drawing 3 in advance in the portable computer, and display them on the display section for survey. We proposed a method to input results and measured dimensions with a pen touch.

FIG. 12 shows a work menu in this case. In the figure, 131 is a display instructing unit for displaying data. These display instructing units 131 are arranged for each measurement point and each survey point as shown in the figure.

From this work menu screen, the researcher touches (pen-touches) an arbitrary display instruction section 131 of each measurement point and each survey item and displays the top screen of the measurement point and survey item corresponding thereto. Survey items and measurement points are arranged on the screen according to a predetermined content and order, and specific survey items and specific measurement points are displayed on the corresponding screen. If the target screen does not have the desired survey items or measurement points, the screen can be scrolled to display the screen.

FIG. 13 is a screen showing a part of the survey items regarding the presence or absence of ventilation equipment in the "machine room" and the specifications in the survey section "site" shown in FIG. In the figure, 101 is an item number, 1
Reference numeral 02 indicates a screen number, and 103 indicates an input area (φ indicates a fan outer diameter). Further, the item has a check point 104 indicated by □ (square frame).

FIG. 14 is a screen showing the machine room. In the figure,
Reference numeral 3 shows the screen, in which a machine room plan sectional view is drawn on the left side and a machine room side sectional view is drawn on the right side. In the figure, 101 is an item number, 102 is a screen number, and 103 is an input area indicated by a rectangular frame as shown. In FIG. 14, 3 mb indicates a machine beam for attaching a motor or the like, and 3 fz indicates a seat to which a hook is attached. Further, in the figure, a is the floor thickness of the machine room, b is the height from the ceiling surface of the hoistway to the machine beam surface, d is the thickness of cinder concrete, GM is the height from the machine beam to the hook seat, and HM is the hook. The machine room height to the seat, t is the hook seat height, h is the machine room entrance / exit height, and w is the machine room entrance / exit width. Other symbols such as 3a (hoistway) and S (machine room normal width) are the same as those in FIG.

FIG. 15 shows a window screen for inputting numerical values. In FIG. 15, numeral 130 is a numerical value input window, numeral 130a is a numeral key, numeral 130b is a decimal point key, and numeral 130c is a display portion for input numerical values. The numerical value input window 130 is displayed on the screen when the operator touches the dimension input section 103 of FIG. 13 and the dimension input section 103 of FIG. 14 with a pen. In the figure, 130d is a clear instruction unit of the display unit 130c, and 130d.
e is an end clear instruction unit for clearing the last character of the display unit 130c, 130f is a write instruction unit for writing the numerical value displayed on the display unit 130c into the designated dimension input unit 103, and 130g is a numerical value input. It is an end instruction unit for ending the display of the window. The operator can touch the frame of the numerical value input window 130 with a pen to move it to an arbitrary position on the screen.

When the elevator is replaced, the survey items are surveyed and the dimensions of the measurement points are measured as described above. In this survey and measurement work, the measurement result and the survey result are displayed by displaying an input window for inputting numerical values and characters on the screen. When only numerical values such as measurement results are displayed, a numerical input window corresponding to the numeric keypad is displayed, and when numerical values and characters are displayed like survey results, a character input window corresponding to the keyboard is displayed. These input windows are displayed in the lower right corner of the screen. For example, if the operator touches the input position 103 shown in FIG. 13 or the input area 103 shown in FIG. 14 with a pen, the input position is reversed in black and white, and the numerical value input window 130 shown in FIG.
It is displayed at the lower right corner of the screen shown in FIG. 13 or the screen shown in FIG.

[0016]

In the above device, for example, the fan outer diameter φ is set in the input area 103 shown in FIG.
Further, when the machine room normal width S is input in the input area 103 shown in FIG. 14, etc., when the input area 103 is the input area 103 which is not hidden by the numerical value input window 130 displayed at the lower right corner of the screen, There is no problem because the numerical input window 130 can be operated while looking at the screen, but FIG.
In the input area 103 shown in FIG. 4, such as the machine room floor thickness a and the height b from the hoistway ceiling surface to the machine beam surface, the input area 103 is the displayed numerical input window 130.
Input area 10
In order to make the position of 3 visible, the operator moves the numerical input window from the lower right corner to an appropriate place. Since such movement of the input window is frequently carried out in the work of investigation and measurement, it takes a considerable amount of time and labor for the operation, and the efficiency of investigation and measurement is significantly impaired.

An object of the present invention is to solve the above problems in the prior art and to provide an investigation data collection device for an elevator replacement site, which can reduce the labor and time required for the investigation and measurement work.

[0018]

In order to achieve the above-mentioned object, the present invention provides a predetermined survey item at an elevator exchanging site, an input area for inputting those survey results, and respective measurement points. A first storage unit that stores an input area for inputting those measurement results, a second storage unit that stores the survey results of the survey items and the measurement results of the measurement points, and the first storage unit Data processing device for investigation, comprising: a display section for displaying data arbitrarily extracted from the display section; instruction means for instructing each of the input areas on the screen displayed on the display section; and a control section for performing a predetermined control. In the third storage section, a third storage section for storing each of the input areas, a fourth storage section for storing the size of an input window displayed in a predetermined area, data stored in the third storage section, and the Determination means for determining whether or not there is an overlapping portion between the input area instructed by the instructing means and the predetermined area of the input window, based on the data stored in the storage unit of No. 4, and this determination means. And a display position moving unit that moves the display position of the input window that does not overlap the input region from the predetermined region when it is determined that an overlapping portion will occur.

[0019]

[Function] When it is necessary to input the survey result or measurement result while the required survey item or measurement point is displayed on the display during survey, measurement, planning, etc., the survey result or measurement is indicated by the indicating means. When the result input area is instructed, the determination means determines whether or not the instructed input area and the input window area overlap based on the data in the third storage unit and the fourth storage unit. However, if they do overlap, the display position calculation means moves the input window to a position where the input area is not hidden by the input window and displays it.

[0020]

The present invention will be described below with reference to the illustrated embodiments.

FIG. 1 is a block diagram of a data processing device for surveying an elevator exchange site according to an embodiment of the present invention.
In the figure, 10 is a portable data processing device that an investigator brings to an elevator exchange site, and an input unit 11 for inputting various commands and the like, storage units 12a to 12f, a display unit 13 for performing a required display, and an external unit. Input / output unit 1 for exchanging data with
4 and a control unit 15 that performs predetermined control.

Here, the first storage unit 12a stores drawings of all survey items including the input area and all measurement points (measurement target portions), and the second storage unit 12b stores each survey result and Each measurement result is stored, and the third storage unit 12c
Stores the coordinates of the upper left corner of each input area, and further stores the vertical and horizontal lengths of the input window in the fourth storage unit 12d. Reference numeral 12e is a ROM in which a processing program executed by the control unit 15 is stored, and 12f is a RAM in which the results of calculation and control are stored.

FIG. 2 is a diagram showing a display screen of the display unit 13. In the figure, 20 is a display screen, 21 is a data display unit for displaying survey items and measurement target parts, and 22 is a system display unit for the control unit 15 to display contact items with the operator.

FIG. 3 is an explanatory diagram of coordinates and dimensions of the input area 103 and the input window 130 displayed on the data display unit 21. P ₀ (0,0) is the data display unit 21
The origin is set at the upper left corner of the display area, and the display area has a width W in the X-axis direction and a length L in the Y-axis direction from the origin P ₀ . The coordinates of the upper left point P _a of the input area 103 is (X _a , Y _a ), the width of the input area 103 in the X axis direction is Wa,
The length in the Y-axis direction is La. The coordinates of the upper left point P _b of the input window 130 are (X _b , Y _b ), the width of the input window 130 in the X axis direction is W _b , and the length in the Y axis direction is L _b .

FIG. 4 is an explanatory diagram of contents of a table of coordinates and dimensions of the input area stored in the third storage section. Figure 4
Reference numeral 30 is an input area table. Input area table 3
0 screen number of the screen displayed on the data display unit 21 from the left column, X-coordinate (X _a) of the point P _a of the input area 103 shown in FIG. 3, Y-coordinate (Y _a), X-axis direction width W _a, is composed of the length L _a of the Y-axis direction, it is classified by the screen number as shown. For reference, the input table area 30
On the left side of, the surveys, measurement points and symbols corresponding to the data exemplified in the table are listed.

FIG. 5 is an explanatory view of the contents of the table showing the size of the input window stored in the fourth storage section. In FIG. 5, W _b and L _b are the width in the X axis direction and the length in the Y axis direction of the input window, respectively, as shown in FIG.

Next, the operation of this embodiment will be described with reference to the flowcharts shown in FIGS. 6 and 7 and the display screen of the system display section shown in FIG. First, a work menu screen is displayed according to an instruction from the input unit 11, and then required survey items or measurement target portions are displayed (step S ₁ shown in FIG. 6). For example, in the data display section 21 shown in FIG.
4 is displayed, and the screen shown in FIG. 8 is displayed on the system display unit 22. In FIG. 8, 22a indicates a "item input" mode indicating that it is possible to input the survey result and the measurement result. Reference numerals 22b and 22c are scroll instruction portions for scrolling the screen, and 22d is an end instruction portion for returning the screen to the work menu screen shown in FIG.

Now, when the operator inputs a survey result or a measurement result by pen-touching a required input area 103 to input an instruction, the control section 15 judges this (procedure S).
₂₎ find the input region corresponding the input region table 30 based on the current screen number and coordinates of the pen touch position, extracts the information _{X a, Y a, W a} , the L _a (Step S _3), the corresponding The input area 103 to be displayed is highlighted in black and white (step S ₄ ).

Next, it is judged whether or not the input window 130 is already displayed (step S ₅ ), and if it is displayed, whether or not the input area 103 is hidden by the input window 130 at all. determine (Step S _6), if they are hidden, with the exception of the display of the input window 130 and redisplay the findings, the entire target portion screen (Step S _7), the procedure S in FIG. 7 Go to ₉ . Further, the process proceeds to Step S ₉ immediately 7 if the input window 130 in Step S ₅ is determined to have been displayed. Further, if it is determined in step S ₆ that the input area 103 is not hidden by the input window 130, the process proceeds to step S _{19 of} FIG. 7. Further, if it is determined not to be input instruction from the input region 103 in step S ₂ performs processing corresponding to the screen displayed in Step S ₁ (Step S _8).

The processing from step S ₉ to step S ₁₆ shown in FIG. 7 is processing for deciding the display position of the input window so that part or all of the input area 103 is hidden by the input window 130 and cannot be seen. . Input window 13
The display position of 0 is the input window 13 as shown in FIG.
It is designated by coordinates P _b (X _b , Y _b ) at the upper left of 0.

First, the control unit 15 determines whether or not the input window in the X-axis direction falls within the screen off the right end of the input area 103 (step S ₉ ). This determination is made by the control unit 15 calculating the following equation. _{W- (X a + W a)} > W b When this equation holds, in the X-axis direction, the input region 1
03 and the input window 130 do not overlap. In this case, then, the control unit 15, in the Y-axis direction, whether the input area 103 and the input window 130 overlaps judged by the following equation (Step S _{10). L- (Y a + L a)} > L b both do not overlap if this equation holds. in this way,
X-axis direction, when no overlap both in Y-axis direction, for displaying the input window 130 in the lower right (predetermined area) of the screen, the upper left corner point P _b (X _b, Y _b) of the input window of the coordinates _{(X b = W-W b} , Y b = L-L b) is set to (Step S _11).

When it is determined in step S ₁₀ that the input area 103 and the input window 130 overlap each other in the Y-axis direction, the input window 130 is displayed at the upper right of the screen. Therefore, the point P _{b at} the upper left corner of the input window 130 is displayed. (X _b ,
The coordinates of _{Y b) (X b = W} -W b, is set to Y _b = 0) (Step S _12). When it is determined in step S ₉ that they overlap in the X-axis direction, it is determined in step S ₁₀ whether or not the input window 130 and the input area 103 overlap in the Y-axis direction.
The judgment is made using the same formula as that used in the process (step S ₁₃ ). When they do not overlap, that is, when they overlap in the X-axis direction and do not overlap in the Y-axis direction, the input window 130 is displayed at the lower left, so the input window 13 is displayed.
The coordinates of the point P _b (X _b , Y _b ) at the upper left corner of 0 are (X _b = 0, Y
_b = L−L _b ) (step S ₁₄ ).

In the process of step S ₁₃ , when it is determined that they overlap in the Y-axis direction, that is, when they are determined to overlap in either direction, the control unit 15 (Y _a >
L _b ), and when this formula is satisfied, the input window 130 is displayed at the upper left of the screen, and therefore the coordinates of the point P _b (X _b , Y _b ) at the upper left corner of the input window 130 are set to (X _b
= 0, Y _b = 0) (step S ₁₆ ). Step S ₁₅
In formula (Y _a> L _b) if is not satisfied, then an error appears in the system display unit 22 (Step S _17), the procedure shown in FIG. 6 S
Return to ₂ .

Step S ₁₁ , Step S ₁₂ , Step S ₁₄ , Step S ₁₆
In the processing of 1, when the display position of the input window 130 is determined, the control unit 15 displays the input window 130 at the display position P _b (X _b , Y _b ) (step S ₁₈ ), and the operator's investigation result or The input of the measurement result is accepted, the black and white reversal of the input position is released, and the input content is displayed in the input area (step S ₁₉ ). Then, the process returns to step S ₂ shown in FIG.

Thus, in this embodiment, the input area 10
Since the display position of the input window 130 is determined so as not to be hidden by the input window 130, the investigation and measurement of the relevant portion can be efficiently performed without the troublesome operation of moving the input window 130. You can

In the above description of the embodiment, the numerical value input window has been described as an example, but the character input window can of course be processed in the same manner.

[0037]

As described above, according to the present invention, the display position of the input window is automatically determined so that the input areas of the survey result and the measurement result are not hidden by the input window. Therefore, the measurement can be efficiently performed without a troublesome operation.

[Brief description of drawings]

FIG. 1 is a system configuration diagram of an investigation data processing device at an elevator replacement site according to an embodiment of the present invention.

FIG. 2 is a diagram showing a display screen of a display unit shown in FIG.

FIG. 3 is a diagram illustrating a display screen of a display unit shown in FIG.

FIG. 4 is a diagram illustrating a part of the storage contents of a storage unit shown in FIG.

5 is a diagram illustrating a part of the stored contents of a storage unit shown in FIG.

6 is a flowchart explaining the operation of the apparatus shown in FIG.

FIG. 7 is a flowchart illustrating the operation of the device shown in FIG.

8 is a diagram showing a part of a display screen of the display unit shown in FIG.

FIG. 9 is a diagram showing a conventional dimension measurement record table.

FIG. 10 is a diagram showing a conventional survey result record table.

FIG. 11 is a diagram showing a drawing created based on a dimension measurement record table.

FIG. 12 is a diagram showing a work menu displayed on the display unit of the survey data processing device.

FIG. 13 is a diagram showing a part of a survey result record table displayed on the display unit of the survey data processing device.

FIG. 14 is a diagram showing a part of a dimension measurement record table displayed on the display unit of the survey data processing device.

FIG. 15 is a diagram showing a numerical value input window displayed on the display unit of the survey data processing device.

[Explanation of symbols]

 10 data processing device for investigation 11 input unit 12a first storage unit 12b second storage unit 12c third storage unit 12d fourth storage unit 12e ROM 12f RAM 13 display unit 14 input / output unit 15 control unit

Claims (2)

[Claims] 1. A first storage for storing a predetermined survey item and an input area for inputting the survey result thereof and a measurement location and an input area for inputting the measurement result of the survey item in the field where the elevator is replaced. Storage unit, a second storage unit that stores the survey result of the survey item and the measurement result of the measurement point, a display unit that displays data arbitrarily extracted from the first storage unit, and this display In a survey data processing device comprising an instruction means for instructing each of the input areas on a screen displayed on the unit, and a control section for performing a predetermined control, a third storage section for storing each of the input areas, A fourth storage unit that stores the size of the input window displayed in the predetermined area, the instructing means based on the data stored in the third storage unit and the data stored in the fourth storage unit. Determination means for determining whether or not an overlapping portion will occur between the input area designated by 1. and a predetermined area of the input window, and the input area is overlapped when the determination portion determines that an overlapping portion will occur. And a display position moving means for moving the display position of the input window, which does not exist, from the predetermined area. 2. The display device according to claim 1, wherein the predetermined area of the input window is one corner of the screen of the display unit, and the position moved by the display position moving means is:
A data collection device for investigation at an elevator exchange site, which is one of the other three corners of the screen of the display unit.