JPH07123151A - Line construction data generating system - Google Patents

Abstract

PURPOSE:To easily and quickly change a large quantity of data by efficiently generating document data, which changes capital asset data, by easy operation. CONSTITUTION:In the case of an automatic processing command for generation of line construction data, the processing where indexes stored in a third storage means 18 are referred to call more necessary capital asset data stored in a first storage means 15 or a second storage means 16 and these data are subjected to sequence operation processing is performed instead of the sequential processing where these data are sequentially called and subjected to operation processing, and the processing result is stored in the second storage means 16 so that it can be called.

Description

Detailed Description of the Invention

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention easily and quickly performs the work of processing the form data necessary for rewriting old fixed asset data as new fixed asset data when conducting line work in telephone equipment. However, the present invention relates to a line construction data creation system suitable for reducing costs.

[0002]

2. Description of the Related Art There are two cases for laying telephone equipment: a case where new telephone equipment is laid and a case where telephone equipment that has already been laid is modified. I am calling it.

By the way, the data regarding telephone equipment includes
There is a wide variety of data in addition to data such as the material of the utility pole and its installation position, the data of the material / dimensions of the manhole and its installation position, and the data of the material of the cable (electric wire) and its wiring condition. Data relating to each telephone facility is input and managed as fixed asset data in the central management device.

Therefore, when each construction contractor carries out the track construction based on the construction schedule, the fixed asset data in the area relating to the track construction will be different, so that the construction before the construction in the area relating to the track construction will be fixed. After calling the asset data from the central management unit, it must be rewritten as new fixed asset data after construction.

Such work is called a so-called line construction data creation work, and each construction contractor rewrites the data using a terminal such as a microcomputer. At that time, central management is performed. Fixed asset data related to track construction called from the device is edited as form data for each type and sequentially displayed on the monitor screen. Then, the operator rewrites the data contents of necessary portions in the form data displayed on the monitor screen one by one to create new fixed asset data.

The new fixed asset data created in this manner is replaced with the fixed asset data before construction which is input and managed by the central management unit, and as a result, a huge amount of fixed assets which are input and managed by the central management unit. The asset data will always be managed as the latest fixed asset data.
The description of the method of transmitting / receiving fixed asset data to / from the central management device is omitted.

By the way, in the case of creating such line construction data, processing work for "core wire information data" for managing the cable wiring condition in a certain area and the status of various facilities in the certain area are performed. It is roughly divided into processing work for the "equipment inertia data" to be managed.
Therefore, it is necessary to rewrite the data contents before the construction for the respective data to the data contents after the construction.

As shown in FIG. 13, the above-mentioned core wire information data includes "fixed wiring section data" for specifying an area related to construction, "underground cable unit data" showing the status of underground wiring, and underground cable data. "Pointer data" indicating the cable pulling point, "Switching connection data" indicating the status of the connection between underground and aerial (connection at the feeder point), "Unit data for each direction" indicating the direction of the wired cable, etc. There is.

The facility information data includes each facility included in the area of the above-described core line information data,
For example, "Pole pole data" showing the equipment status of utility poles, "Manhole data" showing the equipment status of manholes (MH) / handholes (HH), etc. "Pipeline data" showing the equipment status for passing cables underground , "Overhead wiring data" that shows the status of cable equipment on the ground, "Underground distribution data" that shows the status of equipment of cables that run through pipelines underground, "Underground wiring" that shows the status of connection equipment between cables underground There are "subordinate connection data" and "building wiring data" showing the status of cable facilities for each housing (see FIGS. 6 (a) and 6 (b)).

FIG. 4 shows a block diagram of a railway construction data preparation system for processing these data. First
The storage unit 6 receives fixed asset data regarding telephone equipment for track construction from a central management unit (not shown).

Next, a predetermined command signal is input to the control means 1 from the external input device 9 based on a command from the operator who has selected the menu, and the control means 1 is controlled.
The processing means 3 is operated based on the control.

As shown in FIG. 5, the processing means 3 includes a first processing section 3 for executing at least data retrieval / calling.
1, a second processing unit 3 for displaying / editing on a monitor screen
2, a third processing unit 33 that performs transmission / reception with the calculation means 4,
It is composed of a fourth processing unit 34 for executing the suitability judgment of the calculation result, a fifth processing unit 35 for executing the output to the second storage unit 7, etc., and the operation of each processing unit 31 to 35 is controlled. It is executed while hierarchically transmitting and receiving to and from the control means 1 on the basis of the individual commands sequentially issued from the means 1.

Therefore, the fixed asset data retrieved and called by the operation of the first processing unit 31 is edited and displayed as form data on the monitor screen by the operation of the second processing unit 32.

The operator who is visually observing the display on the monitor screen sequentially inputs a command for modifying the data content, whereby the third processing unit 33 starts the operation of transmitting / receiving to / from the computing means 4. When the calculation means 4 is caused to modify the data content of the required portion of the form data displayed on the monitor screen and the suitability of the calculation result is checked by the operation of the fourth processing section 34, the second screen is displayed on the monitor screen. Processing unit 32
The new form data whose data content has been modified by the operation of is displayed.

The above operation is repeated to complete the creation of new form data, and thereafter, if there is a command from the operator, the new form data is stored in the second storage means 7 by the operation of the fifth processing unit 35. To be done.

The above-mentioned means 1 to 7 are connected to each other by an internal bus 8. Reference numeral 2 is an I / O unit for transferring signals between the control means 1 and an external input device 9. Reference numeral 5 is a first. It is an I / O unit that exchanges signals between the storage unit 6, the second storage unit 7, and the control unit 1.

[0017]

By the way, the processing means 3
The operation of each of the processing units 31 to 35 is performed while hierarchically transmitting and receiving to and from the control unit 1 based on the individual commands sequentially performed from the control unit 1 as described above.

Therefore, when modifying each form data,
The operator has to input necessary commands one after another while watching the display on the monitor screen, and even a skilled operator who is engaged in this task is forced to perform a complicated work for a considerably long time. .

In order to show this point, first, the case of the core line information data will be briefly described. That is, since the wiring situation regarding the cables in the area related to the track construction is changed with the occurrence of the track construction, it is necessary to modify the fixed asset data as the core line information in the area.

For example, the "cable unit name" wired in the area is from AA01 to AAnn to BB01.
When changed to BBnn, as the transfer processing of the "cable unit name", "underground cable unit data" P1, "feed point data" P2, "switch connection data" in the area shown in FIG. It is necessary to change each "cable unit name" in P3.

When the operation is started, a design equipment selection menu A1 is displayed as shown in FIG. In this case, since the respective items are arranged in series, they are actually displayed as two screens as shown in FIGS. 6 (a) and 6 (b). Is a design equipment selection menu A1-
1, A1-2 are displayed.

When the "core wire" menu is selected from the design equipment selection menu A1-1, a core wire selection menu A2 shown in FIG. 7 is displayed. It should be noted that each form data in the core line information data is set to be called in order, but each form data in the facility information data described later is set to be called individually.

Here, in order to register new “cable unit names” BB01 to BBnn in the area, the “direction-specific unit” P4 in the core selection menu A2 shown in FIG. 7 is selected. Then, the form data X1 as shown in FIG. 8 is displayed.
The data of BB01 to BBnn are input to 1 one by one.

That is, BB is added to the next form data X1-2.
In the case of inputting 02, the operation from FIG. 7 is repeatedly executed, and BBnn is repeatedly executed one by one.
The "cable unit name" is a set of "direction-specific cables" and "unit number" as shown in the form data X1 of FIG.

After this input, the display on the monitor screen returns to the core selection menu A2 of FIG. 7 again. Therefore, this time, when “Cable unit transfer” in the core selection menu A2 is selected, the form data X2 shown in FIG. 9 is displayed, and BB01 is input.

Next, since the process returns to the core selection menu A2 of FIG. 7, if “Transfer unit by direction” is selected, FIG.
The form data X3 as shown in is displayed. Therefore, BB01 is input to this form data X3.

By performing the above work,
The old and new core wire information data relating to "underground cable unit data" P1, "feed line data" P2, and "switch connection data" P3 in the area are modified.

The "cable unit name" of the core wire information data is "fictitious wiring data", "underground distribution data", "underground subordinate connection data", "building" of the equipment information data shown in FIG. It is also described in "Built-in wiring data".

Therefore, these "cable unit names"
Even when changing, the monitor screen is returned to the design equipment selection menu A1, and the "overhead wiring data", "underground distribution data", "underground subordinate connection data", "building included" are laid in the area. "Wiring data" and the like, and call AA01 to AAnn of them individually from BB01 to
Must be converted to BBnn.

For example, the design equipment selection menu A1 shown in FIG.
When you select the "Overhead wiring data" menu in
Since the form data Y1 as shown in FIG. 11 is displayed,
A change process is performed on this equipment form data Y1.

Next, the outline will be described based on the form data for telephone poles in the equipment information data.

When the operation is started, a design equipment selection menu A1 is displayed on the monitor screen, and if a utility pole menu is selected from the design equipment selection menu A1, the menu shown in FIG.
The form data Y2 for telephone poles as shown in 2 is displayed.

The data of the necessary place in this form data Y2 is rewritten and modified. Since this form data Y2 is for one electric pole, for example, 100 electric poles are present in the area related to track construction. When performing some data rewriting on the 100 lines, the data rewriting work is performed while sequentially calling the 100 form data Y2-1 to Y2-100.

In addition, within the area related to track construction, 10
When zero electric poles are newly installed, the operator creates new electric pole form data based on the standard electric pole form data and writes the data. Then, such work is repeated 99 times.

In the new form data in the core wire information data and the facility information data created as described above, all the data including the respective rewritten data are all stored in the central management unit. Create and attach a specified racode header so that it can be inherited as input / output items and managed for input.

After that, these are put together as a transmission file, the construction completion date, the construction name, etc. are entered in this transmission file, and the data is stored and fixed on a floppy disk as a transmission file to the central management unit, and a series of work is performed. Is ended.

As described above, in the conventional system,
Each form data X from the design equipment selection menu A1
1 to Xn and Y1 to Yn must be executed one by one in the order of searching, calling / rewriting, and storing, and the form data X1 to X are created in proportion to the size of the line work.
The number of n, Y1 to Yn also increases, and the operator is forced to repeat simple work for a long time.

Therefore, the construction contractor requires a considerable amount of time and labor to create new form data in order to accurately leave the fixed asset data modified by the construction in addition to the actual track construction work. It was requested to provide an efficient track construction data creation system.

The present invention has been made based on the above-mentioned circumstances, and an object thereof is to efficiently create form data for modifying fixed asset data by a simple operation and to generate a large amount of data. It is to provide a railroad construction data creation system capable of easily and rapidly modifying data.

[0040]

In order to achieve the above object, the present invention calls necessary fixed asset data from a first storage means for storing fixed asset data relating to telephone equipment for track construction. In the track construction data creation system that performs calculation processing based on a command from the operator and stores the calculation result as new fixed asset data in the second storage means, if there is a command for sequential processing from the operator, Call the required fixed asset data from the first storage means or the second storage means and display it on the monitor screen,
And means for sequentially processing the data contents of the necessary parts in the fixed asset data displayed on the monitor screen based on the operator's instruction, and storing the data as new fixed asset data in the second storage means so as to be callable. When an operator gives an instruction for automatic processing, the operation of the above-mentioned sequential processing means is stopped to activate the sequence instruction means, and the first storage means or the first storage means is operated based on the instruction from the sequence instruction means. (2) Data related to commands in the fixed asset data stored in the storage means are each given a unique index, and those indexes are stored in the third storage means, after which the content of the automatic processing command from the operator Required in relation to the instructions in the fixed asset data stored in the first storage means or the second storage means based on Automatic processing means for extracting fixed asset data appropriately while referring to the index stored in the third storage means, performing sequence operation processing, and storing this in the second storage means so that it can be called as new fixed asset data. And are provided.

[0041]

According to the present invention, when a predetermined automatic processing instruction is given by the operator, necessary data relating to the instruction is appropriately extracted from the fixed asset data received in the first storage means. , The fixed asset data is processed in sequence based on the content of the automatic processing command from the operator, and the result of this operation is stored in the second storage means as new fixed asset data. It is not necessary for the operator to rewrite data one by one by sequentially issuing a command while visually observing the monitor screen as in the prior art, and a large amount of data can be easily and rapidly modified.

[0042]

Embodiments of the present invention will be described in detail below with reference to the drawings. FIG. 1 is a block diagram showing an embodiment for performing the system according to the present invention.

In the figure, the control means 10 receives a command signal from an external input device 20 such as a keyboard operated by an operator via the I / O section 11, and controls all means described below in an internal bus. Control and control via 19.

Although not shown, the first storage means 15 receives fixed asset data concerning telephone equipment in a construction area necessary for conducting track construction from a central management unit in which fixed asset data concerning telephone equipment is stored. . Note that the transmission and reception of fixed asset data between the first storage means 15 and the central management device are not directly related to the gist of the present invention, so a detailed description thereof will be omitted.

The processing means 12 is means for executing an instruction on the basis of a command signal from the control means 10. Specifically, as shown in FIG. 2, the first processing section 121 for executing data retrieval / calling. , Second to execute display on monitor screen
Third for executing transmission / reception with the processing unit 122 and the calculation means 13
It comprises a processing unit 123, a fourth processing unit 124 for executing the suitability determination of the calculation result, a fifth processing unit 125 for executing the output to the second storage unit 16, and the like.

Each of the processing units 121 to 125 is normally executed while transmitting and receiving hierarchically to and from the control unit 10 based on individual commands sequentially issued from the control unit 10.

Upon receiving the command from the control means 10 and receiving the command signal from the third processing section 123, the calculation means 13 performs necessary calculation processing based on this, and then the calculation means 13 receives the command signal. If it is determined that the necessary arithmetic processing has been performed, the operation result of the fifth processing unit 125 causes the second storage unit 16 to receive and store the operation result.

On the other hand, the sequence command means 17 is operated while transmitting / receiving with the control means 10, and is activated when an automatic processing command is given by the operator, and the sequence command means 17 is applied to the respective processing units 121 to 125 of the processing means 10. Individual commands that are sequentially performed for hierarchical operation are stopped, the processing units 121 to 125 are selectively operated, and a sequence is performed based on a predetermined automatic processing command from the operator while transmitting and receiving with the control unit 10. Automatically perform automatic processing.

That is, when the operation of the sequence command means 17 is started, the necessary data related to the command is given a unique index from the fixed asset data received in the first storage means 15, and the index is added. Are stored in the third storage means 18.

After that, the necessary index is extracted while referring to the index of each fixed asset data stored in the third storage means 18, and the first processing unit 121 is executed based on the content of the automatic processing command from the operator. To fifth
It is possible to selectively issue an instruction to each processing unit up to the processing unit 125, to cause the operation unit 13 to perform a sequence operation process on each fixed asset data, and call the operation result to the second storage unit 18 as new fixed asset data. To store.

Further, the new fixed asset data after the arithmetic processing stored in the second storage means 18 has a unique index and a modified index capable of specifying the content of the arithmetically processed data. The modified index is also stored in the third storage unit 18.

Therefore, the railway construction data creating system according to the present invention has the processing units 121 to 125 of the processing means 12.
To the processing means 12 through the sequence command means 17 and a system in which the operator sequentially modifies the data contents of the necessary portions while visually observing the monitor screen by an individual command to the operator. It is provided with a system for automatically modifying the data content of a necessary part by a selective command to the processing units 121 to 125.

These operations will be described with reference to the flowchart shown in FIG. First, when system performance starts, an initial menu is displayed on the monitor screen (step 200). Next, it is judged whether or not the system performance is an automatic processing command (step 201). When it is judged that the system performance is not the automatic processing command, the operator selects the sequential modification process in the initial menu and proceeds to step 202 to execute it. Command the menu.

After that, it is judged what kind of input command is received from the operator (step 203), and if there is an input command, the sequential calculation process is performed based on the input command (step 204), and the sequential calculation process ends. Whether or not it is determined (step 205), the execution of the system is temporarily stopped when the sequential calculation processing is ended, but otherwise, the operation from step 203 is repeated.

On the other hand, if it is determined in step 201 that the system performance is an automatic processing command, the sequence command means 17 is activated and is related to the command in the fixed asset data received in the first storage means 15. A unique index is attached to each of the necessary data to be stored, and this index is stored in the third storage means 18 (step 20).
6).

After that, it is judged whether or not the index is stored from the first storage means 15 to the third storage means 18 (step 207), and if it is stored, the sequence operation processing is performed (step 208).

Here, each necessary fixed asset data is appropriately extracted from the first storage means 15 while referring to the unique index related to the instruction stored in the third storage means 18, and the automatic processing instruction from the operator is issued. Based on the contents of the above, the operation means is selectively instructed to each of the processing units 121 to 125 of the processing means 12, and the operation means 13 performs the sequence operation processing.

Next, it is judged whether or not a new automatic processing command has been input. If a new automatic processing command has been input, the process returns to step 208 and a new sequence operation process is performed. When no new automatic processing command is input, the sequence operation result is stored as new fixed asset data in the second storage means 16 so that it can be called up (step 210), and the completion of automatic processing is displayed (step 210). Step 211).

Thereafter, it is judged whether or not the automatic processing is to be performed again (step 212). When the automatic processing is to be performed again, the process returns to step 200 and a series of operations are repeated.
If the automatic processing is not performed again, it is determined whether or not the individual processing is performed (step 212). If the individual processing is performed, the operation proceeds from step 202. If not, the system is not executed. It is temporarily stopped.

According to such a line construction data creation system, it is possible to perform the following processes.

1. Batch automatic rewriting of data contents for different form data

In the core wire information data that manages the wiring status of the cables in the area related to the track construction, for example, “cable unit name” wired in the area
When changing from AA01 to BB01, as the transfer processing of the "cable unit name", "underground cable unit data" P1, "feed point data" P2, and "switch connection data" P3 in the area are transferred. It is necessary to change each "cable unit name" (see FIG. 13).

Conventionally, first, the design equipment selection menu A1 is called, the "core" menu is selected from the design equipment selection menu A1-1 to call the core selection menu A2, and the core selection menu A2 is selected. Select "Unit for each direction" to call the form data X1 (see FIG. 8), and input BB01 to this form data X1.

When this input is completed, the screen returns to the core selection menu A2 again, so that "cable unit transfer" in the core selection menu A2 is selected, and the form data X2 shown in FIG. 9 is called to input BB01. To do. When this input is completed, it returns to the core selection menu A2 again.
"Transfer unit by direction" is selected and the form data X3 shown in FIG. 10 is called to input BB01.

As described above, conventionally, the operator issues an instruction to sequentially call the required form data, and also issues an instruction to rewrite the data individually. The old and new core wire information data relating to “underground cable unit data” P1, “feed point data” P2, and “switch connection data” P3 in
You cannot change from 1 to BB01.

However, according to the system of the present invention, the area is designated and the "cable unit name" of the core wire information data is changed from AA01 to BB.
When an automatic processing command is issued so as to change the value to 01, the sequence command means 17 operates to cause BB01 from the first storage means 15 for the form data X1 of the "direction-specific unit".
Is input.

Next, the form data X2 of "cable unit transfer" and the form data X3 of "direction-specific unit transfer"
BB01 is input to, and based on this, the "cable unit name" relating to "underground cable unit data" P1, "feed point data" P2, "switch connection data" P3 in the area is changed from AA01 to BB01. As described above, new core line information data can be stored in the second storage means 18 as registration preparation data for the central management device so as to be callable.

The “cable unit name” of the core wire information data is “fictitious wiring data”, “underground distribution data”, “underground distribution lower part connection data”, and “building embedded wiring” of the equipment information data shown in FIG. Data ”and so on.

Therefore, these "cable unit names"
Even when changing, the conventional design equipment selection menu A1
Based on the above, the form data Y1 to Yn such as "fictitious wiring data", "underground distribution data", "underground distribution connection data" and "building wiring data" in the area are individually called, and those AA01 Had to be converted to BB01.

However, according to the system of the present invention, the area is designated and the "cable unit name" of the equipment information data is changed from AA01 to BB.
When an automatic processing command is issued so as to change the value to 01, the sequence command means 17 operates to extract necessary form data from the facility information data from the first storage means 15, and to collect those "cable unit names" together. Then AA01 to B
It can be changed to B01 and can be stored in the second storage unit 18 in a callable manner.

2. Automatic continuous copying of form data

Since the number of electric poles in the equipment information data is large, conventionally, for example, when 100 electric poles are newly installed in a certain area, the operator is newly established by using the standard electric pole form data as a model. Create the first utility pole form data, and add "power pole number (n)" to this utility pole form data.
Is input to write data of necessary items, and the creation of the first telephone pole form data is completed.

Then, in the same manner as this, the "electric pole number (n
+1) ”and the utility pole number (n + 2) ...

However, according to the system of the present invention, the area is designated, and in the facility information data, "electric pole number (n)" to "electric pole number (n + 9)
9) ”, an automatic processing command is issued to copy the utility pole form data up to 9), and the sequence command means 17 operates to extract the necessary utility pole form data from the first storage means 15 and copy it. At the same time, write the “telephone pole number (n)”.

In this way, the telephone pole number (n + 9
9) ”is added to create 100 pieces of telephone pole form data, which can be stored in the second storage unit 18 in a callable manner.

Since the data content of such different form data is automatically rewritten collectively and the process data is automatically copied continuously, it occupies about 60% of the work data and the line construction data creation system, which significantly reduces the work time. Can be realized.

In addition, since the unique index or the modified index of the data relating to the command is stored in the third storage means 18, when the sequence command means is operated,
By specifying these indexes, it is possible to identify a certain data content, display it on the monitor screen, and check only that data content.

Further, it goes without saying that the specified data can be appropriately written in the required form data.
It is also possible to make the cursor skip to that data portion of the form data, or to make only that data portion emit light.

Further, by re-editing each data item in the form data, the information normally displayed on two or more screens such as serial layout to parallel layout or blanking of blank data part is compressed into one screen. It is also possible to reduce the screen scrolling by displaying the above, and to improve the labor and the visibility of the operation.

[0080]

As described above, according to the present invention, when a predetermined automatic processing command is given by the operator, it is related to the command from the fixed asset data received in the first storage means. The necessary data is extracted as appropriate, and each fixed asset data is sequence-processed based on the content of the automatic processing command from the operator, and the calculation result is stored as new fixed asset data in the second storage means. When creating form data associated with construction, it is not necessary for the operator to rewrite data one by one by issuing a command one by one while observing the monitor screen as in the past.
A large amount of data can be easily modified at high speed.

[Brief description of drawings]

FIG. 1 is a block diagram showing an outline of a system according to the present invention.

FIG. 2 is an explanatory diagram showing the operation of each part of the processing means during automatic processing in FIG.

FIG. 3 is a flowchart showing an outline of the operation of the system according to the present invention.

FIG. 4 is a block diagram showing an outline of a conventional line construction data creation system.

5 is an explanatory diagram showing the operation of each part of the processing means during sequential processing in FIG. 4. FIG.

FIG. 6 is a diagram showing a display example of a design facility selection menu.

FIG. 7 is a diagram showing a display example of a core selection menu.

FIG. 8 is a view showing a first form data display example of a core selection menu.

FIG. 9 is a diagram showing a second form data display example of a core selection menu.

FIG. 10 is a diagram showing a third form data display example of the core selection menu.

FIG. 11 is a view showing a fourth form data display example of a core selection menu.

FIG. 12 is a view showing a display example of telephone pole form data in facility information data.

FIG. 13 is an explanatory diagram showing core wire information data in an area.

[Explanation of symbols]

 10 control means 11, 14 I / O 12 processing means 121 first processing section 122 second processing section 123 third processing section 124 fourth processing section 125 fifth processing section 13 computing means 15 first storage means 16 second storage means 17 Sequence Command Means 18 Third Storage Means 19 Internal Bus 20 External Input Device A1 (A1-1, A1-2) Design Equipment Selection Menu A2 Core Selection Menu X1, X2, X3 Form Data Y1 for Core Information Data Y2 Form data for facility information P Fixed wiring section P1 Underground cable unit P2 Line point P3 Switching connection P4 Directional unit

Claims (2)

[Claims] 1. The necessary fixed asset data is called from the first storage means for storing fixed asset data relating to telephone equipment for track construction, arithmetic processing is performed based on a command from an operator, and the arithmetic result is newly fixed. In the railroad construction data creation system for storing the asset data in the second storage means, when an operator issues a sequential processing command, necessary fixed asset data is called from the first storage means or the second storage means and a monitor screen is displayed. Is displayed on the monitor screen, and the data content of the necessary portion of the fixed asset data displayed on the monitor screen is sequentially processed based on the operator's command, and this is stored as new fixed asset data in the second storage means so as to be callable. If there is an instruction for automatic processing from the sequential processing means and the operator, the operation by the above-mentioned sequential processing means is performed. The sequence command means is stopped to activate the sequence command means, and based on the command from the sequence command means, the index unique to the data related to the command in the fixed asset data stored in the first storage means or the second storage means, respectively. And add those indexes to the third
The necessary fixed asset data related to the instruction in the fixed asset data stored in the first storage means or the second storage means based on the content of the automatic processing instruction from the operator An automatic processing means for appropriately extracting and performing sequence operation processing while referring to the index stored in the third storage means, and storing this in the second storage means so as to be callable as new fixed asset data. A railroad construction data creation system featuring. 2. The new fixed asset data after the arithmetic processing stored in the second storage means is provided with a unique index and a modified index capable of specifying the content of the arithmetically processed data. Claim 1 characterized by the above-mentioned.
Line construction data creation system described.