JPH0881023A - Storage control device for arrival parts - Google Patents

Abstract

PURPOSE: To dispense with storage information correcting work so as to improve work efficiency by detecting the volume and weight of arrival parts from the length-width-height dimensions of the arrival parts, and determining a final storage place unnecessary to change afterwards at the time of the arrival of parts. CONSTITUTION: When parts arrive at a warehouse, the length-width-height dimensions of the arrival parts are detected by a dimension detecting means 11a, 11b, 12a, 12b, and the volume of the arrival parts is estimated by a volume estimating means 17 from the respective detected dimensions. A storage place judging means 21 then compares the estimated volume of the arrival parts with the corresponding storage capacity stored in a storage information data base 22 and judges whether the arrival parts can be stored in a preassigned storage place. In the affirmative case, this storage place is instructed, and in the negative case, an empty storage space is newly instructed. In the case of the storage place being determined, the storage capacity of this storage place after storing the arrival parts is obtained, and this data is stored in the data base 22.

Description

Detailed Description of the Invention

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to storage management of incoming parts, which uses a computer to manage the storage location of parts that arrive in various packing in a warehouse equipped with storage shelves for storing various manufactured parts. Regarding the device.

[0002]

2. Description of the Related Art When manufacturing a certain type of machine, parts required for assembling the machine are ordered, and manufacturing is started after all the ordered parts are prepared. However, since the delivery time of the various parts ordered is uneven, the delivered parts are stored separately for each model on the parts shelf of the warehouse until all the parts are available. Then, when all the parts to be manufactured are prepared for each model, the parts are taken out from the storage parts shelf.

Conventionally, a storage location management device is used to manage the storage location of parts for each model. This storage location management device classifies the manufacturing model according to the manufacturing model code of the slip attached to the received parts. Since the parts storage location is managed as storage management information for each manufacturing model, it is possible to specify the storage location in the storage shelf from the storage management information by classifying the manufacturing models of incoming parts.

Specifically, the code of the manufacturing model that has been set is searched from the storage management information managed by the computer when the parts are received, and the label indicating the storage location is output to instruct the storage location. If the corresponding code does not exist, an empty shelf in the storage shelf is found and the same label is used to instruct.

[0005] When the storage location of the searched manufacturing model is full and cannot be filled, a storage location is added to another location.
Or, even if the storage area is allocated to the upper part of the storage shelf, etc., even if it is a heavy item, it should be installed in another weight storage area. As described above, when a specific component is stored in a place other than the storage place originally assigned, it is necessary to change the storage management information each time.

[0006]

However, since the storage location is determined only by the manufacturing model code of the parts that arrive, it is possible to search for the storage location by manufacturing machine type.
It was not possible to accurately know the remaining storage capacity of the storage location. Therefore, whether or not incoming parts of various packing styles (often in size, but not always packed in a box but in an irregular shape in a bag) can be stored in a storage rack with a limited storage capacity Since it could not be determined, there was a work to change the final storage location after carrying it to the storage location. Similarly, when heavy goods are received, it is desirable to place them in the heavy storage area of the storage shelf (installed at a low position in consideration of shelf stability and work life), but again the storage location can be determined only by the manufacturing model code. Therefore, the storage location was changed after actually looking at the height position of the storage shelf of the corresponding code. Therefore, a lot of change work is required to input the storage location after the change to the computer, which causes a decrease in work efficiency.

The present invention has been made in view of the above circumstances, and by detecting the volume or weight of a received part, the final storage that does not require any change after the part is received. An object of the present invention is to provide a storage management device capable of determining a location, reducing the work of modifying storage information, and improving work efficiency.

[0008]

The present invention has taken the following means in order to achieve the above object. According to the present invention, which corresponds to claim 1, in a storage management device for an incoming part, which recognizes a manufacturing model code of the incoming part and designates a storage location of the incoming part based on the manufacturing model code, a vertical and horizontal direction and a height of the incoming part. Dimension detecting means for detecting the dimension in the vertical direction, volume estimating means for estimating the volume of the received part from the dimension of the received part detected by the size detecting means, storage location of the received part assigned for each manufacturing model, and those The storage information database that stores storage information indicating the current storage capacity of the storage location is compared with the storage volume stored in the storage information database and the storage volume stored in the storage information database, which has already been allocated. Storage location determination means for determining whether or not the in-stock parts can be stored in the storage location
When the storage location is determined, a value is obtained by subtracting the volume of the received parts from the storage capacity of the determined storage location as the storage capacity of the determined storage location in the storage information database.

According to the second aspect of the present invention, in the stocked parts storage management apparatus for recognizing the manufacturing model code of the stocked parts and designating the storage location of the stocked parts based on the manufacturing model code, the manufacturing model code is used. An ordering information database that stores the part code and quantity of the ordered parts correspondingly, a part information database that stores the weight information of each part corresponding to the part code, and the storage of the received parts assigned for each manufacturing model A storage information database in which storage information indicating a storage location and a storage area dedicated to heavy goods is stored, and the part code and quantity of the received part are read from the ordering information database based on the manufacturing model code of the received part, and the part is stored. Weight calculation means for reading the weight information corresponding to the part code from the information database and calculating the estimated installation weight A storage location determining means for determining a storage location of the incoming parts from a storage location dedicated to heavy goods if the expected installation weight calculated by the weight calculation means exceeds a predetermined heavy goods reference value; A database changing means for storing the storage location determined by the location determining means in the storage information database is provided.

According to a third aspect of the present invention, in a stocked parts storage management apparatus that recognizes a manufacturing model code of a stocked part and designates a storage location of the stocked part based on the manufacturing model code, the weight of the stocked part Weighing scales, a storage information database that stores storage information that indicates the storage location of incoming parts assigned to each manufacturing model and the storage area dedicated to heavy items, and the weight of incoming parts measured by the weighing scale. A storage location determination means for determining the storage location of the incoming parts from a storage location dedicated to heavy goods if a predetermined weight standard value is exceeded, and a storage location determined by the storage location determination means for the storage information database And a database changing means for storing the data in the database.

According to a fourth aspect of the present invention, there is provided display control means for displaying a virtual installation status image of a storage place where parts are installed in a two-dimensional or three-dimensional manner, and the storage information database is provided with: The maximum storage capacity information of the storage location and the volume information of the receiving parts obtained by the volume estimation means are stored, and the display control means forms a storage location image of a size based on the maximum storage capacity information, and the receipt It is characterized by creating an installation status image in which a virtual figure of an incoming part is fitted in the storage location image based on the volume information of the part.

[0012]

The present invention has the following effects by taking the above measures. According to the present invention corresponding to claim 1, the dimensions of the incoming parts in the vertical and horizontal directions and the height direction are detected by the dimension detecting means, and the volume of the incoming parts is estimated by the volume estimating means from the dimensions of the incoming parts. The storage location determination means compares the volume of the received parts obtained by the volume estimation means with the corresponding storage capacity stored in the storage information database, and whether the received parts can be stored in the storage area already assigned. Judge whether or not. If the received parts can be stored, the storage location is instructed. If the storage is impossible, for example, a new empty storage location is designated. When the storage location is confirmed, the storage capacity after installation is obtained by subtracting the volume of the received parts from the storage capacity of the confirmed storage location, and the obtained storage capacity is stored in the storage information database by the database changing means.

According to the present invention corresponding to claim 2, the weight calculation means reads out the component code and quantity of the received component from the ordering information database based on the manufacturing model code of the received component, and from the component information database. The weight information corresponding to the code is read. The estimated installation weight obtained by multiplying the number of received parts by the weight is input to the storage location determining means. The storage location judgment means determines whether the expected installation weight exceeds the predetermined weight standard value, and if the expected installation weight exceeds the heavy standard value, the storage location is determined from the heavy load exclusive storage location. To do. The storage location determined by the storage location determining means is stored in the storage information database by the database changing means.

According to the present invention corresponding to claim 3, the weight of the received parts is measured by the weight scale and input to the storage location determining means. The storage location determining means determines the storage location of the incoming parts from the storage location dedicated to the heavy objects stored in the storage information database if the weight of the incoming parts exceeds the predetermined weight standard value. The storage location determined by the storage location determining means is stored in the storage information database by the database changing means.

According to the fourth aspect of the present invention, the display control means creates and visualizes an installation status image in which a virtual figure of an incoming part is fitted in a storage location image having a size based on the maximum storage capacity information. To be done.

[0016]

Embodiments of the present invention will be described below. FIG. 1 is a configuration diagram of a storage management device according to an embodiment of the present invention. The storage management device of the present embodiment includes a self-propelled carry-in device 10 that conveys a received part M placed on a conveyance path in a predetermined direction. A pair of Y-size detecting photoelectric switch groups 11a and 11 on both sides of the transport path of the self-propelled carrier 10.
b are arranged to face each other. Photoelectric switch groups 11a, 11
b is composed of a plurality of photoelectric switches arranged continuously in the Y direction, which is the height direction of the incoming parts, one of which is a light emitting section and the other of which is a light receiving section. Self-propelled carrier 1
A pair of photoelectric switch groups 12a and 12b for detecting the X-dimension are arranged facing each other on the upper and lower sides of the transport path 0. The photoelectric switch groups 12a and 12b are composed of a plurality of photoelectric switches arranged continuously in a direction orthogonal to the transport direction, one of which serves as a light emitting portion and the other serves as a light receiving portion. Further, the self-propelled carry-in device 10 is integrally provided with a weight scale 13 so as to detect the weight of the received goods M placed on the conveyance path.

A slip in which an ordering code (a number issued by the ordering side to each parts manufacturer each time an order is placed) is attached to the received parts M is attached. A bar code reader 14 for reading the order code of this slip, and an input terminal 1 for the operator to input the order code using a keyboard or the like.
5 are provided.

The outputs of the photoelectric switch groups 11 and 12 are D / A.
It is input to the size calculator 17 via the converter 16. The size calculator 17 turns on the photoelectric switch groups 11 and 12,
It has a function of approximating a cube of the received part M from the OFF state and calculating the volume thereof. Also, the barcode reader 1
4 or the order code input from the input terminal 15 is input to the weight calculation unit 18. The weight calculator 18 is accessible to the ordering information database 19 and the parts information database 20, and has a function of calculating the weight information of the received parts M based on the information obtained therefrom.

The volume information of the received parts M calculated by the size calculation section 17 and the weight information of the received parts calculated by the weight calculation section 18 are input to the storage shelf determination section 19. The storage-shelf determination unit 19 can access the storage-shelf information database 22. The storage-shelf information database 22 can access the storage-shelf information database 22 to specify the storage shelf of the received parts and rewrite the storage capacity information of the storage shelf. You can do it.

The order information database 19 stores order information such as a manufacturing model code corresponding to an order code, a part code, and the number of parts ordered. The weight information per piece is registered in the parts information database 20 for each part code. The storage shelf information database 22 stores storage location information indicating the location of a storage shelf to which a manufacturing model has already been assigned, empty information indicating an empty storage shelf location to which a manufacturing model has not yet been assigned, and a storage area dedicated to heavy goods. The weight storage location information and the storage capacity information of each storage shelf are stored.

The storage location determined by the storage shelf determination section 19 is output from the label device 17. This label device 17
A label 25 indicating the arrangement configuration of the storage shelves is prepared in advance, and the position of the storage location input from the storage shelf determination unit 19 is marked on the label 25 and output.

Next, the operation of this embodiment configured as described above will be described with reference to the flowchart of FIG. First, since the order code written on the slip of the received parts M is input from the bar code reader 14 or the input terminal 15, the order code is read into the weight calculator 18 (step S1).

Based on the order code, the weight calculator 18 reads the manufacturing model code, part code and order quantity of the received parts from the order information database 19 (step S
2). Further, based on the part code read in step S2, the weight information of the received part M is acquired from the part information database 2
Read from 0. Then, the total weight M1 is calculated and stored based on the number of ordered parts M and the weight per unit (step S3).

Next, the incoming parts M are placed on the self-propelled carry-in device 10 and conveyed in the Z direction (step S4), the maximum dimensions of the incoming parts M in the X, Y and Z directions are calculated, and the incoming parts M An approximate cube value Q1 is obtained (step S5).

FIG. 3 shows the detailed processing contents of step S5. Incoming parts M are transported in the Z direction at a constant speed V, and photoelectric switch groups 12a and 12b for X-direction dimension detection.
From the ON / OFF state of the photoelectric switch of
The dimension in the direction is detected (step T1). In particular,
As shown in FIG. 4, the incoming parts M are photoelectric switch groups 12a,
Photoelectric switch (12a, 12b) arranged in the X direction by the incoming component M blocking the light beam when passing between 12b
Among them, Xr3 to Xr6 are turned off. The number of photoelectric switches in the OFF state is detected, and the detected number of photoelectric switches is multiplied by Xt (size per photoelectric switch) to obtain Xm. Similarly, the size Ym is obtained from the number of OFF photoelectric switches in the Y direction.

Incoming parts M are photoelectric switch groups 12a, 12
Dimension X at a specified interval until it completely passes between b
m, and find the maximum dimension Xm from that, the dimension X in the X direction
It is determined as 1 (steps T3 and T4). Similarly, the dimension Ym is obtained at a predetermined interval until the incoming component M completely passes between the photoelectric switch groups 11a and 11b, and the maximum dimension Ym is determined as the dimension Y1 in the Y direction (step T3, step T3). T4).

Further, the dimension measurement in the Z direction is performed in parallel with the processing of steps T1 to T4 (step T2).
As shown in FIG. 5, X-direction photoelectric switches 12a and 12b
The measurement start time is a time point at which at least one of them is turned on (part A) and at least one is turned off (part B). Then, after the measurement in the Z direction is started, the photoelectric switches 12a, 1
The time when all 2b are in the ON state (part C) is the measurement end time. The time Ta from the start of measurement to the end of measurement is measured, and the dimension Z1 of the incoming part M in the Z direction is obtained from the measured time Ta and the transport speed V (constant speed, which is an existing value) of the self-propelled carrier 10. .

In the size calculator 17, the above step T1
When (X1, Y1, Z1) is obtained by the processing from ~ T5, the volume (Q1) of a cube having three sides (X1, Y1, Z1) (this cube is called an approximate cube) is obtained ( Step T6). This volume Q1 becomes the estimated volume value of the received part M.

Next, the total weight M1 obtained in the process of step S3 and a preset heavy object determination reference value Mt.
It is determined whether or not it should be stored in the heavy goods storage rack by comparing with (step S6). If the total weight M1 exceeds the heavy load determination reference value Mt, the storage rack determination unit 21 is instructed to limit the setting position of the storage rack to the range of the heavy load installation rack number (step S7).

Next, the storage shelf determination unit 21 searches the storage shelf management database 22 and determines whether or not there is a storage shelf that has already been set based on the manufacturing model code obtained from the ordering code (step). S8). Incoming parts M brought in this time
If a storage shelf has already been assigned to the storage shelf management database 22, the remaining storage capacity Qo of the relevant storage shelf is read from the storage shelf management database 22 and it is determined whether or not the capacity of the shelf is sufficient (step S9). That is, the value obtained by adding the volume Q1 of the approximate cube of the received part M and the storage capacity Qo calculated in the process of step S5 is compared with the predetermined maximum storage capacity Qt of the storage shelf and added. Value (Q1 +
If Qo) does not exceed the maximum storage capacity Qt, the shelf number of the storage shelf that has already been set is instructed to the label device 24 (step S10). Since the label device 24 outputs the label 25 that marks the shelf number, this label 25 is used as the receiving part M.
Paste in and carry out the warehousing work. When the storage shelf determination unit 21 instructs the label device 24 to specify the shelf number, the storage unit capacity Q
1 is added to the storage capacity Qo of the storage shelf and recorded in the storage shelf management database 22 (step S11).

On the other hand, in the processing of step S8,
If it is determined that there is no corresponding manufacturing model code, an empty shelf number is searched from the storage shelf management database 22 (step S12). At this time, if the setting position of the storage rack is limited to the range of the heavy goods installation rack number in the process of step S7, the rack number that is vacant is determined from the range. Also, when it is determined that the storage capacity is insufficient in the process of step S9, the process proceeds to step S12 and the vacant shelf number is searched from the storage shelf management database 22. The determined shelf number is instructed to the label device 24, and the label 25 with the storage position 25a marked is output (step S12).

Next, the information about the received parts instructed to the label device 24, the position of the storage shelf and the storage capacity thereof are recorded in the storage shelf management database 22 (step S1).
3). In addition, in the case where an incoming part such as an indented product whose weight information is not specified in advance is carried in, the above step S
The following process is performed instead of the process of 3. That is, the weight scale 13 and the weight information reading unit 23 are activated to directly measure the weight of the incoming parts M. The weight information measured by the scale 13 and read by the weight information reading unit 23 is input to the weight calculation unit 18. Then, the weight calculator 18 stores the total weight M1 obtained by multiplying the weight of the received parts M by the ordered number. If the ordered quantity is not known, the weight of the received part M is stored as the total weight M1.

In this embodiment, the approximate cube information of the received parts M acquired by the size calculator 17 is stored in the storage rack information database 22 in the storage rack determination unit 21 in association with the manufacturing model code. There is.

When there is a storage shelf display instruction, the installation status creating unit 26 reads the remaining storage capacity of the storage shelf, the installed weight, and the approximate cube information of the incoming parts M from the storage shelf information database 22, and the data of FIG. The virtual installation status and quantitative data shown in (c) are displayed.

That is, the approximate cubes of the respective parts installed on the individual storage shelves are sequentially arranged in the space of the storage shelves to create a virtual installation status diagram. If the parts of the approximate cube are arranged in the space of the storage shelf, the front view (FIG. 6 (a)) and the left side view (FIG. 6 (b)) based on the three-dimensional information of the storage shelf and the approximate cube. , The stereoscopic perspective view (FIG. 6 (c)) and the like, and the display 2 is developed into an installation situation view viewed from an arbitrary angle.
Display on 7. In addition, a list R of received parts information can be displayed on the same screen displaying the installation status diagram.
When displaying the list R of received parts information, necessary information is read from the storage shelf information database 22 and displayed. Also, if there is an instruction to select the storage shelf to be displayed, a virtual installation status diagram of only the relevant storage shelf is created.

As described above, according to this embodiment, the storage capacity of the storage shelf is stored in the storage shelf information database 22,
The size of the incoming part M is detected by the photoelectric switches 11 and 12, and the approximate cube value Q1 is calculated from the size of the incoming part M by the size calculator 17, and there is a margin in the storage rack allocated for each manufacturing model. Since it is determined whether or not the received parts can be stored in the assigned storage shelves, it is not necessary to reset the storage shelves and work efficiency can be improved.

According to the present embodiment, the weight information of the parts is stored in the parts information database 20, and the total weight is obtained from the ordered quantity of the received parts and the weight information to judge the heavy object. It is possible to determine in advance whether or not the assigned storage rack is appropriate in terms of weight, and it is not necessary to re-set the storage rack, and work efficiency can be improved.

According to the present embodiment, the approximate cubes of the respective parts installed on the individual storage shelves are sequentially arranged in the space of the storage shelves to create a virtual installation status diagram and display it on the display 27. Since this is done, it is possible to easily grasp the installation status of the storage shelves.

In the above embodiment, the weight information can be always read from the weighing scale integrated in the apparatus, and there is a significant difference in comparison with the value of the weighing scale for the objects whose weight information can be read from the database. In this case, it may be configured such that a warning is issued from the computer in the case of an abnormality.

Next, another embodiment of the present invention will be described with reference to FIGS.
This will be described with reference to FIG. The present embodiment is a modified example of the photoelectric switch unit for detecting the dimensions of the incoming parts in the above-mentioned one embodiment. The parts different from the one embodiment will be described in detail.

In this embodiment, a pair of photoelectric switches 31 and 32 are arranged to face each other with the carrier path of the self-propelled carry-in device 10 vertically sandwiched therebetween, and a pair of photoelectric switches 33 and 3 are horizontally sandwiched with the carrier path.
4 are arranged facing each other. The photoelectric switches 31 and 33 serve as a light projecting unit, and the photoelectric switches 32 and 34 serve as a light receiving unit. X
The photoelectric switches 31 and 32 for detecting the dimension in the direction are configured to be movable in the X direction orthogonal to the transport direction (Z direction) by a drive mechanism (not shown). The photoelectric switches 33 and 34 for detecting the dimension in the Y direction are configured to be movable in the vertical direction by a drive mechanism (not shown).

In this embodiment thus constructed, the Y-direction photoelectric switches 33 and 34 are set to a position slightly higher than the carrying surface. Next, the self-propelled carry-in device 10 is used to receive the incoming parts
Is transported. The tip of the incoming part M is the Y-direction photoelectric switch 3
At the time of entering 3, 34, the output of the photoelectric switch 34 is OF
The state becomes the F state. The self-propelled carrier 10 is once stopped when the photoelectric switch 34 is first turned off from the start of the transportation of the received parts M, and the measurement is started.

After the measurement start point is set, intermittent movement is performed to stop the self-propelled carry-in device 10 at regular intervals. Each time the self-propelled carry-in device 10 is stopped, the X-direction photoelectric switch (31, 32) is moved left and right (reciprocating from point A to point B) at a known constant speed, and the photoelectric switch 32 O
Detects N / OFF state. The time from the position where the output of the photoelectric switch 32 is turned off for the first time to the time when it is turned on next is measured, and X is calculated from the off time and the moving speed.
The dimension Xm in the direction is calculated. Since the dimension Xm in the X direction is measured at each stop position, the maximum value is stored as X1. Since the photoelectric switch 32 is also turned off at the mesh position on the transport surface on which the incoming parts M are placed, the mesh information is stored in advance in the computer and excluded from the reading in the X direction.

Each time the self-propelled carry-in device 10 is stopped, the Y-direction photoelectric switch (33, 34) is moved up and down (reciprocating from point C to point D), and the output of the photoelectric switch 34 at that time. The OFF state of is detected. Similar to the case of the X direction, the time from the position where the output of the photoelectric switch 34 is first in the OFF state to the next ON state is measured,
The dimension Ym in the Y direction is obtained from the OFF time and the moving speed. Since the dimension Ym in the Y direction is measured at each stop position,
The maximum value among them is stored as Y1.

By repeating the intermittent movement a plurality of times from the measurement start point, there is a point that the Y-direction photoelectric switch (33, 34) is not turned off even if it is set to a position slightly higher than the conveying surface. After the measurement start point is set, if it is in the ON state even if it is set to the above position, that point is set as the measurement end point. The dimension of the incoming part M in the Z direction is calculated based on the driving amount of the self-propelled carry-in device 10 from the measurement start point to the measurement end point.

Thus read (X1, Y1,
Z1) information, the volume value Q1 of the approximate cube of the incoming parts M
Then, it is determined by comparing with the capacity in the storage shelf. According to this embodiment, a small number of photoelectric switches 31 to
At 34, the dimensions of the incoming parts can be detected. The present invention is not limited to the above embodiments, and various modifications can be made without departing from the gist of the present invention.

[0047]

As described above, according to the present invention, it is possible to easily determine the capacity of a received part, so that the accuracy of shelf setting is improved, and the input work such as resetting is eliminated, and the work efficiency is improved. According to the present invention, since the weight of the received parts is determined, there is no instruction to install a heavy object on the upper part, the input work such as resetting is eliminated, and the work efficiency is improved.

According to the present invention, not only the code information such as the manufacturing model code but also the information indicating the capacity is fetched as the storage shelf information, so that the installation condition of the storage location can be visually or quantitatively expressed and left at a glance. Since the capacity is known, there is an advantage that management is easy.

[Brief description of drawings]

FIG. 1 is a configuration diagram of a storage management device according to an embodiment of the present invention.

FIG. 2 is a flowchart showing the overall operation of the storage management device shown in FIG.

FIG. 3 is a flowchart showing in detail a part of the operation of the storage management device shown in FIG.

FIG. 4 is an X of incoming parts in the storage management device shown in FIG.
It is a figure which shows the dimension measurement operation | movement of a direction.

5 is a Z of the received parts in the storage management device shown in FIG.
It is a figure which shows the dimension measurement operation | movement of a direction.

FIG. 6 is a diagram showing a display example of an installation status in the storage management device shown in FIG.

FIG. 7 is a diagram showing a measurement principle of a storage management device according to another embodiment.

8 is a top view of incoming parts on the self-propelled carry-in device in the embodiment shown in FIG. 7. FIG.

9 is a diagram showing the principle of measurement in the Z direction in the embodiment shown in FIG.

[Explanation of symbols]

10 ... Self-propelled carry-in device, 11a, 11b ... Photoelectric switch group for Y dimension, 12a, 12b ... Photoelectric switch group for X dimension, 13 ... Weight scale, 14 ... Bar code reader, 15 ... Input terminal, 16 ... D / A converter, 17 ... Size calculator, 1
8 ... Weight calculator, 19 ... Order information database, 20 ...
Parts information database, 21 ... Storage rack determination unit, 22 ... Storage rack information database, 24 ... Label device, 26 ... Installation status creation unit, 27 ... Display.

Claims (4)

[Claims] 1. A storage management device for incoming parts, which recognizes a manufacturing model code of an incoming part and designates a storage location of the incoming part based on the manufacturing model code. Dimension detection means for detecting, volume estimation means for estimating the volume of the received parts from the dimensions of the received parts detected by the size detection means, storage location of the received parts assigned for each manufacturing model, and current storage location A storage information database in which storage information indicating storage capacity is stored, and the storage capacity already stored in the storage information database is compared by comparing the storage volume stored in the storage information database with the volume of the incoming parts obtained by the volume estimating means. When the storage location is determined and the storage location is determined, the volume of the received component is deducted from the storage capacity of the confirmed storage location. Storage management device in stock component which is characterized by comprising a database change means for storing the storage information database minus as a storage capacity of the determined storage location. 2. In the storage management device for the received parts, which recognizes the manufacturing model code of the received parts and designates the storage location of the received parts based on the manufacturing model code, the parts code of the ordered parts corresponding to the manufacturing model code. And an ordering information database in which the quantity is stored, a parts information database in which the weight information of individual parts is stored in correspondence with the part code, a storage area for incoming parts allocated for each manufacturing model, and a storage area dedicated to heavy goods The storage information database that stores the storage information indicating the storage component information and the component code and quantity of the received component are read from the ordering information database based on the manufacturing model code of the received component, and the component information database corresponds to the component code. Weight calculation means for reading the weight information to be calculated and calculating the expected installation weight, and the weight calculation means If the estimated installation weight exceeds a predetermined heavy load reference value, a storage place determination means for determining a storage place for the received parts from a storage place dedicated to heavy goods, and a storage determined by the storage place determination means A storage management device for incoming parts, comprising: a database changing means for storing a location in the storage information database. 3. A storage management device for a received part, which recognizes a manufactured model code of the received part and specifies a storage location of the received part based on the manufactured model code, and a weighing scale for measuring the weight of the received part. A storage information database that stores storage information that indicates the storage location of incoming parts assigned to each manufacturing model and the storage location dedicated to heavy items, and the weight of incoming parts measured by the weighing scale is a predetermined weight standard. Storage location determination means for determining the storage location of the received parts from the storage location dedicated to heavy goods if the value exceeds the value, and database changing means for storing the storage location determined by the storage location determination means in the storage information database. A storage management device for incoming parts, characterized by comprising: 4. A display control means for displaying a virtual installation status image of a storage location where parts are installed in a two-dimensional or three-dimensional manner, wherein the storage information database stores maximum storage capacity information of the storage location. It stores the volume information of the received parts obtained by the volume estimation means, the display control means forms a storage place image of a size based on the maximum storage capacity information, and stores it based on the volume information of the received parts. 2. The storage management device for stocked parts according to claim 1, wherein an installation status image is created by fitting a virtual figure of stocked parts in the place image.