JP7621114B2 - Identification form allocation method, identification form allocation control device, and identification form allocation control program - Google Patents

Description

The present invention relates to an identifying form assignment method, an identifying form assignment control device, and an identifying form assignment control program for arranging a plurality of unit individuals, to which one of a plurality of visually identifiable identifying forms is assigned, in a predetermined arrangement pattern.

Patent Document 1 describes a layout support system that intuitively and easily shows how appropriate each of the candidate locations for installing equipment is. In Patent Document 1, map data showing the shape and size of the target area for installing equipment and seat data showing multiple seat positions within the target area are stored, the target area for installation is divided into multiple regions according to a predetermined criterion, weights are calculated for each region based on the influence of the multiple seat positions, a layout support image is generated in which seat icons are superimposed on multiple seat positions on a map of the target area for installation in which the display contents of the multiple regions are changed according to the weights, and the layout support image is displayed on a display device, making it possible to intuitively and easily show how appropriate each of the candidate locations for installing equipment is.

Patent document 1 visually notifies candidates for equipment installation from each weighted seat position, and differs from technology that classifies seats based on predetermined conditions.

Patent document 2 describes how a smooth color scheme proposal is made based on the customer's image of the color scheme.

JP 2017-167976 A JP 2008-83443 A

However, for example, in the combination of Patent Document 1 and Patent Document 2, although it is technically possible to color-code seats, there is no element of classifying seats based on predetermined conditions.

Furthermore, Patent Documents 1 and 2 do not state or suggest any concept that would be practical under the specified conditions.

An object of the present invention is to provide an identification form assignment method, an identification form assignment control device, and an identification form assignment control program that can easily achieve practical assignment when assigning multiple types of visually identifiable identification forms to each of unit individuals in an aggregate structure in which the unit individuals are arranged in a predetermined arrangement pattern.

In addition to the above object, another object of the present invention is to provide an identification form assignment method, an identification form assignment control device, and an identification form assignment control program that can create an arrangement pattern that is not only practical but also aesthetically pleasing.

The aggregate structure according to the present invention is characterized in that, in an aggregate structure in which a plurality of unit individuals, each of which is assigned one of a plurality of visually identifiable types of identification forms, is arranged in a predetermined arrangement pattern, the identification forms are assigned so as to maintain a minimum interval between the unit individuals that is set for each type of identification form.

According to the present invention, when the minimum distance between unit individuals is, for example, a social distance to avoid mutual interference, the social distance can be visually and intuitively recognized by allocating identification forms. Since the allocation of identification forms is ultimately randomly arranged, it is easy to realize an allocation that combines design and practicality.

The aggregate structure of the present invention is characterized in that it is configured such that, in an aggregate structure in which a plurality of unit individuals, each of which is assigned one of a plurality of types of visually identifiable identification forms, is arranged in a predetermined arrangement pattern, the first condition for assigning the identification forms based on the required design is satisfied for the entire applied identification forms, and the second condition for assigning the identification forms so as to maintain the minimum interval between the unit individuals for the same type of identification form in the entire applied identification forms is satisfied.

According to the present invention, the first condition is that in an aggregate structure arranged in a predetermined arrangement pattern, the identification form is assigned based on the required design in the entirety of the identification form to be applied.

The second condition is that, for units of the same type of identification form, the identification form is assigned so as to maintain the minimum interval between the unit individuals that is set.

By assigning an identification form so that both the first and second conditions are met, it is possible to provide a design that is both aesthetically pleasing and practical (ensuring social distancing) when the minimum distance between unit individuals is, for example, a social distance to avoid mutual interference.

The collective structure of the present invention is characterized in that the unit individuals are seats arranged with a predetermined regularity.

According to the present invention, for example, if the unit individuals are seats installed in a hall, the seats are arranged in advance with regularity in row and column directions.

The present invention is useful for such seats when the minimum distance to adjacent seats is not maintained.

In the aggregate structure of the present invention, the identification form is color, and the color assigned by the assignment process is assigned to each of the unit individuals.

According to the present invention, by using color as the identification form, it becomes possible to identify visually and intuitively.

The identification form assignment method of the present invention is an identification form assignment method using an identification form assignment control device that assigns multiple types of visually identifiable identification forms to each of unit individuals in an aggregate structure in which the unit individuals are arranged in a predetermined array pattern , wherein the identification form assignment control device executes an assignment process under a first condition for all applied identification forms, which assigns the identification forms based on a required design, while executing an assignment process under a second condition for each identification form of the same type within all applied identification forms, which assigns the identification forms so as to maintain a set minimum spacing between the unit individuals , and repeatedly executes the assignment process based on the first condition and the second condition until the number of assignments to the unit individuals reaches a predetermined number .

According to the present invention, for all applied identification forms, an allocation process is performed under a first condition in which the identification form is assigned based on the required design, while for identification form units of the same type among all applied identification forms, an allocation process is performed under a second condition in which an identification form is assigned so as to maintain the minimum interval between unit individuals that is set. This makes it possible to easily achieve an allocation that combines design and practicality when assigning multiple types of visually identifiable identification forms to each of the unit individuals for an aggregate structure arranged in a predetermined arrangement pattern.

The identification form allocation control device of the present invention is an identification form allocation control device that assigns multiple types of visually identifiable identification forms to each of unit individuals in an aggregate structure in which unit individuals are arranged in a predetermined arrangement pattern, and is characterized in that it has a first reception unit that accepts a design of the arrangement pattern of the aggregate structure, a second reception unit that accepts a minimum spacing between the unit individuals, and a processing control unit that controls the execution of an assignment process based on a first condition for assigning the identification form to the unit individuals based on the design accepted by the first reception unit, for all applied identification forms, and a second condition for assigning the identification form to the unit individuals so as to maintain the minimum spacing accepted by the second reception unit, for identification forms of the same type among all applied identification forms, and is characterized in that the processing control unit repeatedly executes the assignment process based on the first condition and the second condition until the number of assignments to the unit individuals reaches a predetermined number .

According to the present invention, the first reception unit receives the design of the array pattern of the aggregate structure. The second reception unit receives the minimum spacing between unit individuals.

The processing control unit controls the execution of an allocation process based on a first condition for allocating the identification form to the unit individual based on the design accepted by the first reception unit, and based on a second condition for allocating the identification form to the unit individual so as to maintain the minimum interval accepted by the second reception unit, for identification form units of the same type within the allocating identification forms.

This makes it easy to assign multiple types of visually identifiable identification forms to each of the individual units of an aggregate structure arranged in a predetermined arrangement pattern, making it possible to easily achieve an assignment that combines design and practicality.

In the identification form assignment method and identification form assignment control device of the present invention, the specified number is the total number of unit individuals, and if the assigned number does not reach the total number after a predetermined number of assignment processes, the first condition or the second condition is adjusted.

According to the present invention, it is preferable to allocate the identification form to the entire number of unit individuals while maintaining the first and second conditions, but unit individuals that have not been allocated may be identified with another type of identification form. However, if the target number of allocations (predetermined number) is the entire number, if the number of allocations does not reach the entire number after a predetermined number of allocation processes, the first or second condition can be adjusted.

The identification form allocation control program according to the present invention is characterized in that it causes a computer to operate as the above-mentioned identification form allocation control device.

According to the present invention, when multiple types of visually identifiable identification forms are assigned to each of the individual units of an aggregate structure arranged in a predetermined arrangement pattern, it is possible to easily realize an assignment that combines design and practicality.

As described above, the present invention has the effect of easily realizing an assignment that combines design and practicality when multiple types of visually identifiable identification forms are assigned to each of the unit individuals of an aggregate structure in which the unit individuals are arranged in a predetermined arrangement pattern.

In addition to the above effects, the present invention makes it easy to realize an arrangement pattern of identification forms that is assigned with practicality, but also with design features.

2 is a block diagram showing a hardware configuration of an allocation control device according to the present embodiment; 2 is a functional block diagram of an allocation control device according to the present embodiment. FIG. FIG. 11 is a pattern diagram showing color groupings applied to a color scheme pattern in the present embodiment. 1A and 1B are a plan view and a side view, respectively, of a multipurpose hall according to the present embodiment. FIG. 1 is a coloring pattern diagram for explaining an example of the execution of a coloring algorithm that is executed based on the first and second conditions of the present embodiment. (A) is a plan view of a seat in this embodiment, (B) is a pattern diagram of the color scheme pattern result (symbol notation) based on the conditions (random + distance), and (C) is a diagram showing the applied colors and color groupings. 10 is a flowchart showing a flow of processing based on a coloring algorithm according to the present embodiment. 13A and 13B are diagrams showing seat coloring patterns according to a first modified example of the first condition, in which FIG. 13A shows a coloring pattern based on symbols and FIG. 13B shows a coloring pattern based on a leaf pattern.

Figure 1 is a schematic diagram of an allocation control device 10 for assigning a color as an identification form according to this embodiment to each of the individual seats 22 (350 seats are shown in Figure 4 (A), but the numbers are only indices). The allocation control device 10 includes a microcomputer 12.

The microcomputer 12 has a CPU 12A, a RAM 12B, a ROM 12C, an input/output device (I/O) 12D, and a bus 12E such as a data bus or a control bus that connects these.

The I/O 12D is connected to a large-scale storage device 14, which functions as a database that stores target information (such as the number of seats 22 as a group, the arrangement state, etc.) on which the seats 22 to be colored are installed, the coloring conditions for the seats 22, the coloring algorithm (program) executed based on the coloring conditions, and the information required to execute the coloring algorithm (color information, color grouping information, etc.).

That is, in this embodiment, the large-scale storage device 14 stores the color information and color grouping information shown in FIG. 3, which are applied as a visually identifiable form of identification.

(Details of color information and color grouping information "Example")

It is preferable that at least the information required to execute the coloring algorithm (color information, color grouping information, etc.) is stored in advance in the large-scale storage device 14.

There are a total of 17 colors in the color information, which are classified into 10 groups (G0 to G9) (see Table 1). The colors in each group are assigned to the seats 22 based on a color-allocation algorithm with predefined conditions.

Devices that can be used for the large-scale storage device 14 include a hard disk, an optical disk, and a flash memory. The target information may be stored in the RAM 12B and ROM 12C of the microcomputer 12. The coloring algorithm (program) may be stored in the ROM 12C, and the microcomputer 12 may be dedicated to allocation control.

An input device 18 and an output device 20 are also connected to the I/O 12D. The input device 18 is composed of, for example, a keyboard, a mouse, etc., and allows information to be input by an operator. The output device 20 is composed of, for example, a monitor, a printer, etc., and allows information to be output in a state that can be recognized by the operator.

A touch panel or the like that combines the functions of both the input device 18 and the output device 20 may also be used.

Figure 2 shows a block diagram in which the coloring algorithm (distinguishing form allocation control) executed by the CPU 12A of the allocation control device 10 according to this embodiment is classified by function. Note that the blocks shown in Figure 2 are classified by function and do not limit the hardware configuration of the allocation control device 10.

The input device 18 is connected to a color-scheme target facility information receiving section 50, a color scheme condition receiving section 52, and an execution instruction receiving section 54.

The color-matching target facility information receiving unit 50 receives color-matching target facility information input from the input device 18.

Figure 4 shows a multipurpose hall 24 as an example of a facility to be color-coordinated.

(Structure of Multipurpose Hall 24)

As shown in FIG. 4(A), a stage 26 is installed on the front wall side (left side of FIG. 4(A)) of the multipurpose hall 24, and seats 22 are arranged in multiple vertical rows and multiple horizontal rows on the floor surface 28 facing the stage 26, forming a seat group 23 as a collective structure. For example, when the purpose is to give a lecture, a speaker will stand on the stage 26 and give a lecture.

The multipurpose hall 24 shown in FIG. 4 has a total of 350 seats 22 arranged in rows (=25 seats) x columns (=14 seats) facing the stage 26.

As shown in FIG. 4B, the seats 22 are arranged in a stepped manner in the vertical direction, with the seats 22 rising higher as they move further away from the stage 26. This ensures that those sitting in the seats 22 at the front do not obstruct the line of sight of those sitting in front of them toward the stage 26.

A seat storage section 30 is provided at the rear of the multipurpose hall 24 (on the rear wall side of the floor surface 28 (right side of Figure 4 (A)). The floor surface of the seats 22 at each height, arranged in a stepped manner, is designed to move horizontally in the direction of the seat storage section 30. As a result, all of the seats 22 can be stored in the seat storage section 30 in a folded state so that they shrink in the height direction. In the stored state, the multipurpose hall 24 becomes a space where there are no seats 22 on the floor surface 28, and can be used for purposes other than lectures (sports, etc.).

The color-matching target facility information receiving unit 50 shown in FIG. 2 receives the number of seats and the arrangement of the seats 22 (such as a floor plan or image information of the area in which the seats 22 are arranged) when the color-matching target facility is the multipurpose hall 24.

The color scheme condition receiving unit 52 receives the color scheme conditions. In this embodiment, two types of conditions are set as the color scheme conditions.

The first condition is that, across all colors applied, each seat is assigned a color based on the required design.

The second condition is that colors are assigned so that seats 22 of the same type and color unit maintain the set pitch (social distance).

The first condition in this embodiment is that the colors are arranged randomly. In the case of random arrangement, there is no regularity between the same colors or between different colors, and it is also acceptable for the same colors to be adjacent.

On the other hand, the second condition imposes some regularity (second condition) on the random arrangement of the first condition.

Note that the first condition is optional and the second condition is required, but if the first condition is set, both the first and second conditions must be met.

The color-matching target facility information received by the color-matching target facility information receiving unit 50 and the conditions (first and second conditions) received by the color-matching condition receiving unit 52 are each stored in the large-scale storage device 14.

With the facility information and conditions to be colored stored in the large-scale storage device 14, an instruction to execute the coloring algorithm is input to the input device 18. The execution instruction from the input device 18 is received by the execution instruction receiving unit 54.

The execution instruction receiving unit 54 is connected to the information sending instruction unit 56 and sends an execution instruction to the information sending instruction unit 56.

When the information transmission instruction unit 56 receives an execution instruction, it instructs the large-scale storage device 14 to transmit the color-matching target facility information and conditions corresponding to the execution instruction.

Although not shown in the figure, if the color-matching target facility information and conditions corresponding to the execution instruction are not stored in the large-scale storage device 14, notification information prompting the input of color-matching target facility information and conditions can be output to the output device 20.

The large-scale memory device 14 is connected to the seat coordinate generation unit 58 and the coloring algorithm execution unit 60.

When the large-scale storage device 14 receives a sending instruction from the information sending instruction unit 56, it sends the color-matching target facility information and conditions corresponding to the execution instruction to the seat coordinate generation unit 58 and the color-matching algorithm execution unit 60.

More specifically, the seat coordinate generation unit 58 is sent the arrangement state of the seats 22 (plan view and image information of the area in which the seats 22 are arranged, etc.). In addition, the number of seats, the first condition (design information), and the second condition (distance information) are sent to the coloring algorithm execution unit 60.

The seat coordinate generation unit 58 generates two-dimensional coordinates (e.g., x-y coordinates on the plan view of FIG. 4(A)) based on the position of each seat 22 and sends them to the seat pitch calculation unit 64.

The initial coordinate setting unit 62 sets the initial coordinates that are the starting point for executing the coloring algorithm, and sends them to the coloring algorithm execution unit 60.

The seat pitch calculation unit 64 calculates the seat pitch between adjacent seats 22 (in this embodiment, 1.0 m vertically and horizontally), and sends the calculated seat pitch to the color scheme algorithm execution unit 60.

When all the information (number of seats, first condition, second condition, initial coordinates, and seat pitch) is collected, the coloring algorithm execution unit 60 executes a pre-programmed coloring algorithm (programming process using the microcomputer 12) and assigns a color to each seat 22.

(The coloring algorithm execution process)

Figure 5 shows a part of an example of the execution process of the coloring algorithm. When the coloring algorithm execution unit 60 starts, it sets up a diagram 32 generated with a number of squares corresponding to the number of seats 22. In this embodiment, the diagram 32 has 25 x 14 = 350 squares.

Initially, the cell 32A1 (see the hatched cell in Figure 5) corresponding to the coordinates set by the initial coordinate setting unit 62 is identified, and the next candidate cell (next candidate cell 32A2) is selected based on the first condition (see the dotted cell in Figure 5).

If the selected next candidate square 32A2 does not meet the second condition, the process of selecting the next candidate square is repeated.

In this embodiment, the selection of the next candidate square is repeated a pre-specified number of times, and at this time, although there may be cases where colors are assigned to all squares (350 squares), there may also be cases where no colors are assigned.

In this embodiment, if a color cannot be assigned to all the squares (350 squares), the second condition is changed and the process is continued until a color is assigned to all the squares (350 squares) (execution of CASE1 to CASE4 shown below).

(CASE 1) 8 types of group colors + 22 seats of the same group color with a distance of 2m, and a color-matching algorithm is executed.

Result: 216 spaces (216 seats) secured

(CASE 2) 8 types of group colors + 22 seats of the same group color with a distance of 1.1m, color-matching algorithm executed

Result: 334 spaces (334 seats) secured

(CASE 3) 9 types of group colors + 22 seats of the same group color with a distance of 1.1m, color-matching algorithm executed

Result: 345 spaces (345 seats) secured

(CASE 4) 10 types of group colors + 22 seats of the same group color with a distance of 1.1m, color-matching algorithm executed

Result: 350 spaces (350 seats) secured (all spaces secured)

In this embodiment, the coloring algorithm is repeated until the result of CASE 4 is obtained.

Note that the present invention does not negate the results of CASE 1 to CASE 3, and color allocation may be applied only to reserved seats 22, in particular maintaining the second condition (distance) (details will be explained in the modified example).

As shown in FIG. 2, the coloring algorithm execution unit 60 is connected to the visualization unit 66, and sends the results of the coloring algorithm execution to the visualization unit 66.

As shown in Figure 6 (A), the visualization unit 66 assigns a color pattern to a diagram 36 that resembles a seat arrangement diagram 34 of the seats 22 (see Figure 6 (B)).

The color scheme shown in Figure 6 (B) ensures a distance of 2 m between group 1 (yellow) and group 8 (white) (yellow-yellow, white-white, yellow-white) as the second condition, and ensures a distance of 1.1 m between the other colors as the second condition, illustrating an example of a composite color scheme.

In FIG. 6(B), the color scheme pattern is represented by the color scheme identification symbols shown in FIG. 6(C), but each square in the diagram 36 may be painted with the color that corresponds to each identification symbol.

This chart 36 is output by the output device 20 (displayed on a monitor or printed on paper), allowing the operator (color scheme designer) to visually confirm the color scheme pattern based on the color scheme algorithm.

The operation of this embodiment will be explained below with reference to the flowchart in Figure 7.

Figure 7 is a flowchart showing the process flow based on the coloring algorithm of this embodiment.

This flowchart is started when an execution command is input from the input device 18, with the color-scheme target facility information received by the color-scheme target facility information receiving unit 50 and the conditions (first and second conditions) received by the color scheme condition receiving unit 52 being stored in the large-scale storage device 14.

In step 100, the arrangement pattern information of the seats 22 is obtained, then the process proceeds to step 102 where the arrangement coordinates of the seats 22 are generated, and the process proceeds to step 104.

In step 104, the initial coordinate position, which is the coordinate selected when the coloring algorithm is started, is determined, and the process proceeds to step 106.

In the next step 106, a coloring algorithm is formulated using the number of seats, number of colors, color grouping conditions, the first condition (in this embodiment, a random arrangement in which each seat 22 is one pixel), and the second condition (the distance between the seats 22) as parameters, and the process proceeds to step 108.

In step 108, a process of assigning colors to each seat 22 is performed based on the formulated coloring algorithm. The process of executing this coloring algorithm is as described above with reference to FIG. 5.

That is, the square 32A1 (see the hatched square in Figure 5) corresponding to the initial coordinates is identified, the next candidate square (next candidate square 32A2) is selected based on the first condition (see the dotted square in Figure 5), and if the selected next candidate square 32A2 does not meet the second condition, the next candidate square is selected again, and this process is repeated up to a pre-specified number of times, and if colors have not been assigned to all squares (350 squares), the second condition is changed, and this is repeated until colors are assigned to all squares (350 squares) (execution under the conditions of CASE 1 to CASE 4 described above).

As a result, a color can be assigned to every seat (350 seats) (see Figure 6 (B)).

In the next step 110, the allocation results are notified. For example, by assigning color identification symbols to a diagram 36 (see FIG. 6B) that mimics the seating arrangement, or by filling it with color itself, the color pattern of the seats 22 can be visually recognized.

In this embodiment, the seats 22 installed in the multipurpose hall 24 are arranged in a so-called grid pattern, with 25 rows horizontally and 14 rows vertically, as viewed from the stage 26. However, the seats 22 may be arranged with a 1/2 width offset in the front-to-back direction (for example, an arrangement in which the lines connecting the centers of gravity of the four surrounding seats form a diamond shape). The seats 22 may also be divided into several islands separated by an aisle.

Therefore, in this embodiment, each seat 22 is captured as a coordinate from a plan view of the multipurpose hall 24 (floor surface 28) in which the seats 22 are installed. Therefore, the coloring algorithm of this embodiment can be applied even in extreme cases where the seats 22 are placed randomly.

As described above, in this embodiment, the overall arrangement pattern of the seats 22 (first condition) and the distance between the seats 22 (second condition) are set, and then a color scheme algorithm is formulated using the number of seats, number of colors, and color grouping as parameters, and colors are assigned to the seats 22. The result is made intuitively recognizable through the eyes, that is, by marking the squares representing the seats 22 with color identification symbols or filling each square with the assigned color, the operator (color scheme designer) can intuitively recognize the color scheme pattern of the seats 22.

In other words, by maintaining the first condition while arranging the colors so that the second condition is met, it is possible to realize a seating arrangement that is both aesthetically pleasing and practical, with the seats 22 seemingly arranged in a color-coded arrangement that potentially ensures social distancing.

(Variation 1)

In this embodiment, the coloring algorithm is executed to change mainly the second condition (distance), and CASE 1 to CASE 4 are executed to color all the seats (350 seats).

In other words, the allocation process is repeated by changing changeable parameters (color type, grouping, distance, etc.) until all seats are assigned.

This is based on the first condition (design) and the second condition (distancing available for all seats).

In contrast, in variant 1, the second condition is fixed; for example, the second condition, distance (2 m), is not changed. As a result, as in CASE 1, the seats (216 seats) that meet the condition are assigned a color that maintains distance. On the other hand, the seats that are not assigned (the remaining seats) are assigned a color (or a monochrome pattern, etc.) that is not used in the algorithm processing.

(Variation 2)

In this embodiment, color is used as the identification form, but seat patterns, markings, etc. may also be used as the identification form.

(Variation 3)

In this embodiment, colors are assigned so that the two conditions of design and distance are met, but colors may be assigned based only on distance. Since the set of seats 22 after color assignment based only on distance ultimately has a design element (random color arrangement), it is not necessary to make design a condition for control.

(Variation 4)

In this embodiment, the first condition (design information) is a random arrangement, but the first condition may be a color scheme that allows letters, symbols, etc. to be visually recognized, as shown in FIG. 8(A) (in FIG. 8A, the design uses the letter "C" as a motif), or a color scheme that allows a leaf pattern to be visually recognized, as shown in FIG. 8(B).

(Variation 5)

In this embodiment, the identification symbols (numbers, colors) that indicate the color scheme pattern are automatically arranged randomly and with a certain distance, but after automatic setting, manual changes (hue) and adjustments (brightness, color) may also be possible.

For example, by adjusting (brightness, saturation) and changing (hue) colors within the range of the same group (color type), it is possible to maintain the distance pattern.

(Variation 6)

In this embodiment, a multipurpose hall 24 is applied as the facility to be colored, and the seats 22 are movable and can be accommodated, but the facility to be colored is not limited to a multipurpose hall 24 or movable seats 22, and may be other facilities such as a theater with fixed seats or a stadium with seating for watching sports.

(Variation 7)

In this embodiment, the seat 22 has been used as an example of a unit individual, but in addition to the seat 22, it is also possible to use markers (colored tape, balloons, stones, etc.) to mark the standing position, and the unit individual may include a person moving towards the marker.

10 Allocation control device 12 Microcomputer 12A CPU
12B RAM
12C ROM
12D Input/output device (I/O)
12E Bus 14 Large-scale memory device 22 Seat (unit)
23 Seat group (assembly structure)
18 Input device 20 Output device 50 Color-matching target facility information receiving unit 52 Color-matching condition receiving unit (first receiving unit, second receiving unit)
54 Execution instruction receiving unit 56 Information transmission instruction unit 58 Seat coordinate generating unit 60 Coloring algorithm executing unit (processing control unit)
62 Initial coordinate setting unit 64 Seat pitch calculation unit

Claims (5)

1. A method for assigning an identification form to an aggregate structure in which unit individuals are arranged in a predetermined arrangement pattern, the method comprising: using an identification form assignment control device to assign a plurality of visually identifiable identification forms to each of the unit individuals;
The identification form assignment control device,
In the totality of the identification features to be applied, an allocation process is carried out under a first condition in which the identification features are allocated based on the requested design,
In the identification form unit of the same type among all the applied identification forms, an allocation process is performed under a second condition for allocating the identification form so as to maintain a minimum interval between the unit individuals that is set,
repeating the allocation process based on the first condition and the second condition until the number of allocations to the unit individuals reaches a predetermined number.
Method of assigning identification form. 2. The method of claim 1, wherein the predetermined number is a total number of the unit individuals, and the first condition or the second condition is adjusted if the total number of the assigned numbers is not reached after a predetermined number of the assignment processes. 1. An identification form allocation control device that allocates a plurality of visually identifiable identification forms to each of unit individuals in an aggregate structure in which unit individuals are arranged in a predetermined arrangement pattern, comprising:
A first reception unit that receives a design of an arrangement pattern of the aggregate structure;
A second reception unit that receives the minimum interval of the unit individuals;
a processing control unit that controls execution of an allocation process based on a first condition for allocating the identifying features to the unit individuals based on the design accepted by the first acceptance unit among all of the identifying features to be applied, and a second condition for allocating the identifying features to the unit individuals based on the second condition for allocating the identifying features to the unit individuals in units of the same type of identifying features among all of the identifying features to be applied so as to maintain the minimum interval accepted by the second acceptance unit;
The processing control unit,
an identification form allocation control device that repeatedly executes an allocation process based on the first condition and the second condition until the number of allocations to the unit individuals reaches a predetermined number. 4. The identification form allocation control device according to claim 3, wherein the predetermined number is the total number of the unit individuals, and when the total number of allocations is not reached after a predetermined number of allocation processes, the first condition or the second condition is adjusted. Computer,
5. The identification mode allocation control device according to claim 3 or 4,
Identification form allocation control program.