KR20220063635A - Onboard material warehouse management system using 3D scanner - Google Patents

Abstract

The present invention relates to an onboard material warehouse management system using a 3D scanner, which recognizes warehousing materials through 3D modeling when warehousing the materials in a material warehouse in a ship, displays information on a location of shelf on which the material can be stored, automatically generates and manages a list of materials, and provides information on the location of the shelf on which the material is stored when releasing the material, thereby enabling a user to easily find out the material. According to the present invention, the onboard material warehouse management system comprises: a vendor server transmitting warehousing material information and 3D modeling information of materials to a land management server; a land management server storing the warehousing material information and the 3D modeling information of the materials and synchronizing a material status with an onboard material management platform server; a 3D modeling information generator scanning the materials to be warehoused and shipped with a 3D scanner to generate the 3D modeling information; and a material management platform server storing the 3D modeling information and warehousing information of materials, recognizing warehousing or shipped materials by comparing 3D modeling information of warehousing or shipped materials with 3D modeling information of stored materials, displaying stocking location information of the warehoused materials or material shelf information on which the shipped materials are stacked, and generating and storing material information and synchronizes the material information with the land management server.

Description

Onboard material warehouse management system using 3D scanner}

The present invention relates to an onboard material warehouse management system using a 3D scanner. In particular, when materials are stored in a material warehouse on board, simply placing the materials on a shelf with a 3D scanner recognizes the materials in stock through 3D modeling, In addition to displaying location information, it automatically creates and manages a material list, and provides information on the location of the shelf on which the material is placed at the time of material delivery to the onboard material warehouse management system using a 3D scanner so that materials can be easily found. it's about

In general, a material warehouse for storing materials is provided onboard a ship, and the material warehouse uses shelves to store and manage materials. The required materials are received and stored in the material warehouse, and the materials stored in the material warehouse are released whenever necessary.

When materials are received and released from the warehouse, the manager manually records the material information in an Excel program such as a computer to manage the goods receipt and release. Here, the material information includes location information of the material.

In this handwritten material management method, in the case of a warehouse with a lot of materials, it is difficult to manage the storage and release of materials with respect to the location and quantity where the materials are stored.

In particular, since the handwriting method directly manages the current state of materials, there are disadvantages in that materials are frequently lost, inventory management is difficult, and it is necessary to rely on memory for the location of materials.

Therefore, there is a need for a method for accurately and easily managing the materials of the onboard material warehouse, where a lot of materials are stored, and the following <Patent Document 1> to <Patent Document 3> are conventionally proposed technologies according to these material management requirements. am.

In <Patent Document 1>, the tray can be quickly discharged from the operator based on the information on the tray while the tray is stored while grasping the information of the tray in which the storage object is accommodated, so that the storage and withdrawal of the object can be performed quickly. and, thereby, the reliability and efficiency of managing the storage object may be increased. In addition, since the trays are stored in a stacked state in the tray cassette, a large number of trays can be stored in a small space, thereby increasing space utilization. In addition, since the trays are placed on the tray cassette through the tray transfer module, the tray placement and discharge operation can be performed quickly and accurately.

In addition, <Patent Document 2> introduces the concept of Logistics 4.0 and introduces a camera and visual display, GPS receiver, QR code scanning unit, and Wi-Fi that use Hands free mobile computing technology in a warehouse of a distribution center. Smart glasses equipped with a communication unit, a Bluetooth communication unit, and a micro USB connection unit are connected to the interface engine of the App server, and are linked with the database and the warehouse management system (WMS/ERP/MES) of the distribution center. Receives work instruction messages from the warehouse management system of the distribution center through Wi-Fi communication and outputs them on a visual display. It recognizes and transmits to the warehouse management system (WMS/ERP/MES) of the distribution center to provide warehouse management, delivery management, and inventory management.

In addition, <Patent Document 3> discloses an RFID tag (Radio-Frequency Identification Tag) capable of distinguishing a specific object by interworking between a vision sensor module for partitioned space recognition and an object detection module for object recognition with an integrated management server, It detects and manages the location of the object to which the barcode (Bar Code) and QR code (Quick Response Code) are attached.

However, the prior art as described above has a disadvantage in that the overall system configuration is complicated because an RFID tag, a barcode, a QR code, etc. for checking material information and location information are additionally required in addition to the equipment for photographing the material.

Republic of Korea Patent Registration 10-1495641 (Registered on Feb. 16, 2015) (Automatic storage warehouse device) Republic of Korea Patent 10-2007914 (Registered on July 31, 2019) (Warehouse management system that provides QR code scanning function and location management based on beacon ID using smart glasses that can communicate with RFID reader) Republic of Korea Patent Registration 10-1517842 (Registered on April 29, 2015) (Automated device and management method for position recognition and integrated management of moving objects in a specific space)

Therefore, the present invention has been proposed to solve the problems occurring in the material management method and the prior art by the general manual work as described above. Recognizes incoming materials through 3D modeling, displays location information of shelves that can be stacked, and automatically creates and manages a material list The purpose is to provide an onboard material warehouse management system using a 3D scanner that can be found.

In order to achieve the above object, "inboard material warehouse management system using 3D scanner" according to the present invention,

a vendor server that transmits stock material information and material 3D modeling information to an onshore management server upon material warehousing, and receives warehousing completion information from the onshore management server upon completion of material warehousing;

an onshore management server for storing the stock material information and material 3D modeling information transmitted from the vendor server in a database and synchronizing the material status with the onboard material management platform server through satellite communication;

3D modeling information generator for generating 3D modeling information by scanning materials to be received and issued with a 3D scanner;

material shelves for stocking incoming materials;

Stores 3D modeling information and warehousing information of the material transmitted from the land management server through the satellite communication in a database, and compares 3D modeling information of the warehousing material generated by the 3D modeling information generator with 3D modeling information of the stored material to recognize incoming materials, generate and output the storage location information of incoming materials, create material information and synchronize it with storage and land management servers, and 3D modeling information of outgoing materials generated by the 3D modeling information generator when releasing materials a material management platform server that displays material shelf information on which outgoing materials are placed on the basis of, and synchronizes storage and land management servers by generating material information;

a display for displaying material input/output information output from the material management platform server;

It is characterized in that it comprises an input device for transferring the information on the quantity of goods received and issued when the material is received and released to the material management platform server.

In addition, "inboard material warehouse management system using 3D scanner" according to the present invention,

It may include a client terminal for accessing the onshore management server to check the material management status of the onboard material warehouse, and to check the material stocking status from the vendor server.

In the above, the 3D modeling information generator includes: a shelf including a support plate on which materials to be received or shipped are placed; a moving frame mounted on a 3D scanner for generating 3D modeling information by scanning the materials to be received or shipped installed on the shelf, and horizontally reciprocating based on the support plate on the shelf; and a horizontal guide unit for horizontally reciprocating the moving frame on a shelf while supporting the moving frame,

The moving frame may include a rotation guide for reciprocating the 3D scanner in a semicircular shape.

In the above, the material shelf is lit on the storage position display control signal or the departure shelf display control signal output from the material management platform server, and it is characterized in that it comprises a storage material display unit for displaying the storage location of the stock material or the material delivery position.

In the above, the material management platform server compares the recognized information on the material to be stocked with the information on the storage space of the preset material shelf, and generates and outputs information on the storage location of the material to be stored.

In the above, if the material management platform server does not know the location of the material to be shipped, when the material model name and number of shipments are entered, the material shelf searches for the material shelf where the material can be released, displays the searched shipment target material shelf, and at the same time, the shipment target through the display It is characterized in that the position information of the material shelf is displayed.

In the above, the material management platform server includes: a material shelf information providing unit for providing material shelf information on which materials are to be placed; a 3D modeling information receiver for receiving 3D modeling information of the material generated from the 3D modeling information generator; an input device interface for interfacing information input through the input device; It is characterized in that it includes a material information database for storing material information including material shelf information, incoming material information, material 3D modeling information, and a list of incoming and outgoing materials.

In the above, the material management platform server controls the generation and storage of material information for material management, controls the generation of material information at the time of material input and output, controls material recognition, and a control unit that controls the display of location information on the shelf for materials to be received and issued ; and a material recognition unit that compares 3D modeling information generated by the 3D modeling information receiving unit with the material 3D modeling information stored in the material information database under the control of the control unit to recognize a material to be received or shipped.

In the above, the material management platform server includes: a storage location information generating unit for generating material shelf information and storage location information on which materials to be stocked based on the material information and shelf information stored in the material information database under the control of the control unit; and a material release information generation unit for generating shelf and shipment location information on which materials to be shipped are placed on the basis of the material information and shelf information stored in the material information database under the control of the control unit,

The material information is characterized in that it includes the material storage status of each material shelf, and material information for stocking and outgoing.

In the above, the material management platform server includes: a material information generation unit for updating material information of a material shelf upon completion of material stocking or upon completion of material shipment by interworking with the material information database under the control of the control unit; It receives the stock material information and 3D modeling information transmitted from the land management server, and transmits it to the control unit, and transmits the material information output from the control unit to the land management server to synchronize the material status in real time. do it with

According to the present invention, when materials are stored in the material warehouse on board, the material is easily recognized using 3D modeling information of the material, and material information is automatically generated based on the recognition information, which promotes convenience in material status management. It works.

In addition, according to the present invention, when the material is shipped out, the material is simply recognized using 3D modeling information of the material, and material information is automatically generated based on the recognition information, thereby promoting convenience in material status management.

In addition, according to the present invention, by using the 3D modeling information of the material, the material shelf and storage location information on which the material is stored is provided when the material is received, and the material shelf and the material storage location information on which the material to be released is provided at the time of shipment. This has the effect of promoting the convenience in which the person in charge can conveniently receive or release materials.

1 is an overall configuration diagram of an onboard material warehouse management system using a 3D scanner according to the present invention;
Figure 2 is a block diagram of an embodiment of the material management platform server of Figure 1;
Figure 3a is an example of a material list database registered in the material information database in the present invention,
Figure 3b is an exemplary view of the shelf information database registered in the material information database in the present invention;
Figure 4 is an example of the display of the location information of the shelf where the material is to be placed among the shelves of the Lower DK of the onboard warehouse in the present invention;
Figure 5a is a material receipt process flow diagram in the present invention,
Figure 5b is a material release process flow diagram when the location of the material is known in the present invention;
Figure 5c is a flow chart of the material outgoing process when the location of the material is unknown in the present invention.

Hereinafter, an onboard material warehouse management system using a 3D scanner according to a preferred embodiment of the present invention will be described in detail with reference to the accompanying drawings.

The terms or words used in the present invention described below should not be construed as being limited to conventional or dictionary meanings, and the inventor may appropriately define the concept of terms to describe his invention in the best way. It should be interpreted as meaning and concept consistent with the technical idea of the present invention based on the principle that it can be.

Accordingly, the embodiments described in this specification and the configurations shown in the drawings are only preferred embodiments of the present invention, and do not represent all of the technical spirit of the present invention, so various equivalents and It should be understood that there may be variations.

1 is an overall configuration diagram of an onboard material warehouse management system using a 3D scanner according to a preferred embodiment of the present invention, a vendor server 100, a client terminal 200, a land management server 300, and a satellite communication unit 410 , a material management platform server 420 , a display 430 , an input device 440 , a material shelf 500 , and a 3D modeling information generator 600 .

Here, the vendor server 100, the client terminal 200, and the land management server 300 are located outside the ship, and the rest of the components are located inside the ship.

Vendor server 100 transmits stock material information and 3D modeling information of materials upon material warehousing to the land management server 300, and receives warehousing completion information from the land management server 300 upon completion of material warehousing. plays a role

The onshore management server 300 stores the stock material information and material 3D modeling information transmitted from the vendor server 100 in an internal database, and synchronizes the material status with the onboard material management platform server 420 through satellite communication. do

The 3D modeling information generator 600 serves to generate 3D modeling information by scanning materials to be received and shipped with a 3D scanner.

The 3D modeling information generator 600 is a shelf 601 including a support plate on which materials to be received or shipped, and a 3D scanner for generating 3D modeling information by scanning the materials to be received or shipped installed on the shelf 601 ( 604) is mounted, and the moving frame 603 horizontally reciprocating with respect to the support plate on the shelf 601, while supporting the moving frame 603, the moving frame 603 is horizontally mounted on the shelf 601 It includes a horizontal guide unit 602 for reciprocating movement, and the moving frame 603 includes a rotation guide 605 for reciprocating the 3D scanner 604 in a semicircular shape.

The material shelf 500 serves to store the stock material, and is turned on according to the storage position display control signal or the departure shelf display control signal output from the material management platform server 420 to light up the storage position of the goods in stock or the material release. It includes a material display unit (701 - 704) for entering and exiting for displaying the location. Here, only four display units 701 to 704 are displayed, but the present invention is not limited thereto, and fewer or more may be installed depending on the size of the material shelf.

There is a lower DK in the material warehouse in the ship, and as shown in FIG. 4, many material shelves are arranged in the lower DK.

The satellite communication unit 410 is located in the ship, and serves to relay material-related information between the land management server 300 and the material management platform server 420 through satellite communication.

The material management platform server 420 stores the 3D modeling information and the stocking information of the material transmitted from the land management server 300 through the satellite communication in the database, and the stocking material generated by the 3D modeling information generator 600 . By comparing the 3D modeling information of the 3D modeling information of the stored material with the 3D modeling information of the stored material, the incoming material is recognized, the storage location information of the incoming material is generated and output, and the material information is generated and stored and synchronized with the land management server 300, At the time of material release, based on the 3D modeling information of the outgoing material generated by the 3D modeling information generator 600, the material shelf information on which the outgoing material is placed is displayed, and the material information is generated and synchronized with the storage and land management server 300 plays a role

The material management platform server 420 may generate and output information on the location of the material to be stocked by comparing the recognized information of the material to be stocked with the information on the preset space of the material shelf.

In addition, if the material management platform server 420 does not know the location of the material to be shipped, when the material model name and the number of issued materials are input, the material management platform server 420 searches for a material shelf available for material shipment, displays the searched shipment target material shelf, and at the same time through the display It is possible to display the location information of the material shelf to be shipped.

As shown in FIG. 2 , the material management platform server 420 is a material shelf information providing unit 501 that provides material shelf information on which to place materials, and 3D of materials generated from the 3D modeling information generator 600 . 3D modeling information receiving unit 502 for receiving modeling information, input device interface 503 for interfacing information input through the input device 440, material shelf information, stock material information, material 3D modeling information, and input/output material list and a material information database 506 for storing material information including a.

In addition, the material management platform server 420 controls the generation and storage of material information for material management, controls the generation of material information at the time of material input and output, controls material recognition, and displays the location information of the material shelf for storage and shipment. By comparing the 3D modeling information generated by the 3D modeling information receiving unit 502 and the material 3D modeling information stored in the material information database 506 according to the control of the controlling control unit 505 and the control unit 505 to receive or release It may include a material recognition unit 507 for recognizing the target material.

In addition, the material management platform server 420 is based on the material information and shelf information stored in the material information database 506 under the control of the control unit 505, the material shelf and storage location information on which the material to be stocked is placed. Based on the material information and shelf information stored in the material information database 506 under the control of the generating unit 508 and the control unit 505, the shelf and shipment location information on which the materials to be shipped are placed are generated. It may include a material release information generating unit 509 that

Here, the material information may include the material storage status of each material shelf, and material information for stocking and outgoing.

In addition, the material management platform server 420 is linked with the material information database 506 under the control of the control unit 505 to update material information of the material shelf upon completion of material stocking or material shipment completion. The unit 510 receives the stock material information and 3D modeling information transmitted from the land management server 300 and transmits it to the control unit 505, and transmits the material information output from the control unit 505 to the land management server ( 300) and may include a communication unit 504 that synchronizes the material status in real time.

The display 430 serves to display the material arrival and departure information output from the material management platform server 420, and the input device 440 transmits the material storage and shipment quantity information at the time of material storage and shipment to the material management platform server ( 420). Here, the display 430 may be implemented as a touch screen capable of displaying information and inputting information, and the input device 440 may be implemented as a device capable of inputting information, such as a mouse or keyboard.

The client terminal 200 accesses the onshore management server 300 to check the material management status of the onboard material warehouse, and serves to check the material stocking status of the vendor server 100 . Such a client terminal 200 may be implemented as a terminal such as a smart phone carried by an administrator, or may be implemented as a personal computer (PC).

The operation of the onboard material warehouse management system using a 3D scanner according to a preferred embodiment of the present invention configured as described above will be described in detail with reference to FIGS. 1 to 5C attached thereto.

First, a vendor who wants to stock a material in a material warehouse on board uses the vendor server 100 to send material information including material name, quantity, unit volume, and manufacturer name and 3D modeling information of the material on land. It is transmitted to the management server 300 (S11).

When the warehousing of the material is completed, the land management server 300 transmits the warehousing completion information to the vendor server 100 so that the vendor can check it.

The onshore management server 300 stores the stock material information and material 3D modeling information transmitted from the vendor server 100 in an internal database, and stores the stock material information and material information on the ship's material management platform server 420 through satellite communication. By transmitting the material 3D modeling information, the material status is synchronized with the material management platform server 420 (S12).

The material management platform server 420 stores the 3D modeling information and stocking information of the material transmitted from the land management server 300 through the satellite communication in a database, and the warehouse generated by the 3D modeling information generator 600 . By comparing the 3D modeling information of the material with the 3D modeling information of the stored material, the incoming material is recognized. Then, based on the recognition information, it generates and outputs information on the location of the stocked material, and generates the material information and synchronizes it with the storage and land management server 300 . In addition, based on the 3D modeling information of the outgoing material generated by the 3D modeling information generator 600 at the time of material release, the material shelf information on which the outgoing material is placed is displayed, and the material information is generated and stored and the land management server 300 and synchronize

A more detailed explanation of this is as follows.

First, the communication unit 504 of the material management platform server 420 receives the stock material information and the 3D modeling information of the material received from the land management server 300 and transmits it to the control unit 505 . The control unit 505 registers the delivered material information and 3D modeling information to the material information database (506).

Here, the control unit 505 registers the own shelf information received from the material shelf information providing unit 501 in the material information database 506 . 3B illustrates an example of registered own shelf information, which may include shelf ID, DK location information, shelf name, shelf detail information, loading space (volume) information, and loading material number.

After that, if the material for warehousing on the material shelf 500 of the material warehouse in the ship is placed on the shelf 601 of the 3D modeling information generator 600, the 3D modeling information generator 600 uses the 3D scanner 604. It scans the material and generates 3D modeling information as a result.

That is, when the 3D modeling information generator 600 places the material to be stocked on the support plate of the shelf 601 , the horizontal guide unit 602 places the moving frame 603 on which the 3D scanner 604 is mounted on the shelf 601 . reciprocate horizontally. Here, it is assumed that the horizontal guide part 602 is initially located at the front end or the rear end of the shelf 601 .

When the horizontal movement of the moving frame 603 starts, the 3D scanner 604 scans the material to be worn on the shelf 601 to generate 3D modeling information. At this time, the 3D scanner 604 is reciprocally moved in a semicircle shape by the rotation guide 605 on the moving frame 603 to scan the material to be worn.

3D modeling information of the material to be scanned is completed is transmitted to the material management platform server 420 through the 3D scanner (604).

The 3D modeling information receiving unit 502 in the material management platform server 420 receives the 3D modeling information of the material transmitted from the 3D modeling information generator 600 and transmits it to the control unit 505 . The storage location information generation unit 508 calculates the volume through the volume calculation (area calculation) from the received 3D modeling information of the material to be worn (S13).

Next, the material recognition unit 507 recognizes the material wearing using the 3D modeling information of the material received received. That is, by comparing the 3D modeling information generated by the 3D modeling information receiving unit 502 and the material 3D modeling information stored in the material information database 506 under the control of the control unit 505, matching material information (model name) , number, material number). The information of the wearing material extracted in this way is expressed through the display 430 (S14).

When the material warehouse manager sees the display 430 and the information on the stock material input by the vendor matches the information on the stock material recognized by the material recognition unit 507, click the approval button through the input device 440 to The approval information is transmitted to the material management platform server 420 (S15).

The input device interface 503 of the material management platform server 420 transmits the approval information output through the input device 440 to the control unit 505 . The control unit 505 provides the volume information and quantity of the material to be stocked to the storage location information generation unit 508 according to the received approval information transmitted.

The storage location information generation unit 508 generates material shelf information and storage location information on which materials to be stocked based on the material information and shelf information stored in the material information database 506 under the control of the controller 505 . .

That is, the storage location information generation unit 508 generates information on the storage location of the material to be stocked by comparing the information on the recognized material and the space information of the preset material shelf. Here, the storage location information of the material to be received includes the material shelf on which the material is to be received and the location of the shelf on which the actual material is to be received on the corresponding material shelf.

After calculating the total required volume using the unit volume of the material and the quantity received (unit volume × quantity), the remaining space of the shelf database as shown in Fig. 3b is searched and the material shelf in the position with the most free space is prioritized is assigned to the highest material shelf. The load DK and shelf ID for that location are stored in the material number row of the material list database.

Here, the material warehousing manager can view the remaining space in the shelf database and arbitrarily assign a material storage location, and assign the priority of the DK to be loaded according to the location of the equipment that requires the material and the location of the onboard material warehouse. may be

The thus-generated placement location information is transmitted to the control unit 505 and simultaneously transmitted to the display 430 to be displayed on the screen of the display. In addition, the storage location information is transmitted to the corresponding material shelf 500 as a storage location display control signal through the control unit 505 . Accordingly, the input/export material display unit (eg, 501) of the corresponding material shelf 500 is turned on (S16).

Therefore, the material warehousing manager recognizes the storage location of the material through the display 430, moves to the material warehouse on the ship, and moves to the material shelf on which the incoming and outgoing material display unit 501 is lit to place the material.

When the material storage is completed, when the material stocking manager touches the material stocking confirmation information through the display 430, the control unit 505 registers the material stocking information in the material information database 506, and the material information generation unit 510 to create material information.

The material information generation unit 510 updates the material information of the material shelf upon completion of material stocking in conjunction with the material information database 506 under the control of the control unit 505, so that the material information can be obtained and register it in the material information database 506 .

3A is an example of a material list database generated by the material information generating unit 510 and registered in the material information database 506 . The material list database may have a form including material number, material name, modeling information, manufacturer, stocking date, stocking quantity, delivery date, outgoing quantity, remaining amount, unit volume, loading DK, and shelf ID.

When a new material is received, a material number is automatically created and assigned.

Next, when the material information is generated for the material to be stocked, the control unit 505 transmits the material information to the land management server 300 through the communication unit 504 to synchronize the material information (S17).

Here, the material information may include the material storage status of each material shelf, and material information received and issued.

Next, the process of releasing the materials stored in the onboard material warehouse will be described.

The issuing process may differ depending on the case where the material issue manager knows the location of the issued material and does not know the location of the issued material.

First, if the material release manager knows the location of the material to be issued, it moves to the material shelf of the material warehouse, withdraws the material to be shipped out, and puts it on the 3D modeling information generator 600 . The 3D modeling information generator 600 performs the same operation as when the material is received, and 3D scans the material to be shipped to generate 3D modeling information of the material to be shipped (S21).

The 3D modeling information of the material issued in this way is transmitted to the material management platform server 420 .

The 3D modeling information receiving unit 502 in the material management platform server 420 receives the 3D modeling information of the outgoing material transmitted from the 3D modeling information generator 600 and transmits it to the control unit 505 .

Next, the material recognition unit 507 recognizes the shipment material using the received 3D modeling information of the shipment material (S22). That is, by comparing the 3D modeling information of the outgoing material generated by the 3D modeling information receiving unit 502 and the material 3D modeling information stored in the material information database 506 under the control of the control unit 505, the matching material Extract information (model name, number, material number). The information of the shipment material extracted in this way is expressed through the display 430 (S23).

The material release manager sees the display 430 to check the release material, and if the release material is correct, enters the quantity of the material to be shipped through the input device 440 and executes a release command. Quantity information of materials to be shipped and a delivery command generated through this execution are transmitted to the material management platform server 420 .

The input device interface 503 of the material management platform server 420 transmits the quantity information of the materials to be shipped and the delivery command output through the input device 440 to the control unit 505 . The control unit 505 provides information on the material to be shipped to the material delivery information generation unit 509 according to the delivered delivery command.

The material release information generation unit 509 searches the material information database 506 using the information of the material delivered from the control unit 505, and generates information on the shelf and shipment location on which the material to be shipped is placed.

The generated shelf and shipment location information on which materials to be shipped are placed are transmitted to the control unit 505 and simultaneously transmitted to the display 430 to be displayed on the screen of the display. In addition, the shipment location information is transmitted to the corresponding material shelf 500 as a shipment location display control signal through the control unit 505 . Accordingly, the input/export material display unit (eg, 701 ) of the corresponding material shelf 500 is turned on.

Therefore, the material release manager recognizes the release location of the material through the display 430, moves to the material warehouse on the ship, moves to the material shelf on which the incoming and outgoing material display unit 701 is lit, and releases the material.

When the material release is completed, when the material release manager touches the material release confirmation information through the display 430 , the control unit 505 registers the material release information in the material information database 506 , and the material information generation unit 510 . to create material information.

The material information generating unit 510 automatically updates the material information of the material shelf upon completion of the material shipment in conjunction with the material information database 506 under the control of the control unit 505, so that the material status can be known. Information is generated and registered in the material information database 506 .

Next, when the material information is generated for the material to be shipped, the control unit 505 transmits the material information to the land management server 300 through the communication unit 504 to synchronize the material information (S24). Here, the material information may include the material storage status of each material shelf, and material information received and issued.

On the other hand, as another method of the release process, when the material release manager does not know the location of the material, the material list is searched through the display 430, and the model name and number information of the material to be issued is input to search for the material to be issued ( S31). Here, you can search for the location of the released material just by entering the model name of the issued material.

That is, the material release information generation unit 509 searches the material information database 506 using the model name of the material to be shipped, and generates location information of the material having the same model name as the material to be shipped. Here, the location information of the material may include information on the shelf of the material on which the material to be shipped is placed and the location of the shipment on the shelf.

The generated shelf and shipment location information on which materials to be shipped are placed are transmitted to the control unit 505 , and simultaneously transmitted to the display 430 to be displayed on the screen of the display. In addition, the shipment location information is transmitted to the corresponding material shelf 500 as a shipment location display control signal through the control unit 505 . Accordingly, the input/export material display unit (eg, 701) of the corresponding material shelf 500 is turned on (S32).

Therefore, the material release manager recognizes the storage location of the material through the display 430, moves to the material warehouse on the ship, and moves to the material shelf on which the incoming and outgoing material display unit 701 is lit to release the material.

When the material release is completed, when the material release manager touches the material release confirmation information through the display 430 , the control unit 505 registers the material release information in the material information database 506 , and the material information generation unit 510 . to create material information.

The material information generating unit 510 automatically updates the material information of the material shelf upon completion of material shipment in conjunction with the material information database 506 under the control of the control unit 505, so that the material status can be known. Generate information and register it in the material information database 506 (S33).

Next, when the material information is generated for the material to be shipped, the control unit 505 transmits the material information to the land management server 300 through the communication unit 504 to synchronize the material information (S34). Here, the material information may include the material storage status of each material shelf, and material information for stocking and outgoing.

On the other hand, the material management person can use the client terminal 200 to connect to the onshore management server 30), request the material status on board, check the material status on board, and also request the stock material status stocked by the vendor. In this way, you can conveniently check the status of incoming materials.

As described above, the present invention uses 3D modeling information of materials to generate and store material information to be easily stored in the database of the platform server, thereby making it convenient to create and manage material information.

In addition, even when materials are released, the location information of the materials to be shipped is easily provided using the 3D modeling information of the materials, and material information is automatically generated to facilitate the creation and management of the material information for delivery.

Although the invention made by the present inventor has been described in detail according to the above embodiment, the present invention is not limited to the above embodiment and it is common knowledge in the art that various changes can be made without departing from the gist of the present invention. It is self-evident to those who have

100: vendor server
200: client terminal
300: land management server
410: satellite communication unit
420: material management platform server
430: display
440: input device
500: material shelf
501: material shelf information providing unit
502: 3D modeling information receiving unit
503: input device interface
504: communication department
505: control
506: material information database
507: material recognition unit
508: storage location information generation unit
509: material release information generation unit
510: material information generation unit
600: 3D modeling information generator
601: shelf
602: horizontal guide unit
603: moving frame
604: 3D Scanner
605: rotation guide

Claims (10)

As a system for managing materials in the onboard material warehouse based on 3D modeling information of materials,
a vendor server that transmits stock material information and material 3D modeling information to an onshore management server upon material warehousing, and receives warehousing completion information from the onshore management server upon completion of material warehousing;
an onshore management server for storing the stock material information and material 3D modeling information transmitted from the vendor server in a database and synchronizing the material status with the onboard material management platform server through satellite communication;
3D modeling information generator for generating 3D modeling information by scanning materials to be received and issued with a 3D scanner;
material shelves for stocking incoming materials;
Stores 3D modeling information and warehousing information of the material transmitted from the land management server through the satellite communication in a database, and compares 3D modeling information of the warehousing material generated by the 3D modeling information generator with 3D modeling information of the stored material Recognizes the incoming material, generates and outputs the information on the storage location of the incoming material, and displays the material shelf information on which the outgoing material is placed based on the 3D modeling information of the outgoing material created in the 3D modeling information generator when the material is released. a material management platform server that generates and stores material information and synchronizes with the onshore management server;
a display for displaying material input/output information output from the material management platform server; and
An onboard material warehouse management system using a 3D scanner, characterized in that it includes an input device that transmits information on the quantity of goods received and issued when warehousing and releasing materials to the material management platform server.
The onboard material warehouse using a 3D scanner as set forth in claim 1, further comprising a client terminal for accessing the onshore management server to check the material management status of the onboard material warehouse, and check the stocking status of the material received from the vendor server. management system.
The method according to claim 1, The 3D modeling information generator is a shelf including a support plate to put the material to be put in or out; a moving frame mounted on a 3D scanner for generating 3D modeling information by scanning the materials to be received or shipped installed on the shelf, and horizontally reciprocating based on the support plate on the shelf; and a horizontal guide unit for horizontally reciprocating the moving frame on a shelf while supporting the moving frame,
The moving frame is an onboard material warehouse management system using a 3D scanner, characterized in that it includes a rotation guide for reciprocating the 3D scanner in a semicircle shape.
The method according to claim 1, The material shelf is a storage location display control signal or output shelf display control signal output from the material management platform server, which is turned on to indicate the storage location of the stock material or the material delivery position, characterized in that it comprises a material display unit. Onboard material warehouse management system using 3D scanner.
The method according to claim 1, wherein the material management platform server compares the recognized information of the stock material with the preset storage space information of the material shelf, and generates and outputs the information on the storage location of the material to be stored in the ship using a 3D scanner. Material warehouse management system.
The method according to claim 1, If the material management platform server does not know the location of the material to be shipped, when the material model name and the number of issued materials are input, it searches for a material shelf on which the material can be released, displays the searched shipment target material shelf, and displays the display at the same time. A material warehouse management system on board using a 3D scanner, characterized in that it displays the location information of the material shelf to be shipped through.
The method according to claim 1, The material management platform server is a material shelf information providing unit for providing material shelf information on which materials are to be placed; a 3D modeling information receiver for receiving 3D modeling information of the material generated from the 3D modeling information generator; an input device interface for interfacing information input through the input device; Onboard material warehouse management system using a 3D scanner, characterized in that it includes a material information database for storing material information including material shelf information, incoming material information, material 3D modeling information, and incoming and outgoing material list.
The method according to claim 7, The material management platform server controls the generation and storage of material information for material management, controls the generation of material information at the time of material input and output, controls material recognition, and displays the location information of the material shelf to be received and shipped. a control unit to control; 3D scanner comprising a material recognition unit that compares 3D modeling information generated by the 3D modeling information receiving unit with the material 3D modeling information stored in the material information database under the control of the control unit to recognize a material to be received or shipped Onboard material warehouse management system using
The method according to claim 8, The material management platform server, the material information and shelf information stored in the material information database under the control of the control unit on the basis of the material information to be stored on the shelf and the storage location information generating unit to generate the material shelf and storage location information ; and a material release information generating unit for generating shelf and shipment location information on which materials to be shipped are placed on the basis of the material information and shelf information stored in the material information database under the control of the control unit,
The material information is an onboard material warehouse management system using a 3D scanner, characterized in that it includes the material storage status, stocking and outgoing material information of each material shelf.
The method according to claim 8, wherein the material management platform server is a material information generation unit for updating the material information of the material shelf upon completion of material stocking or material delivery in conjunction with the material information database under the control of the control unit; It receives the stock material information and 3D modeling information transmitted from the land management server, and transmits it to the control unit, and transmits the material information output from the control unit to the land management server to synchronize the material status in real time. Onboard material warehouse management system using 3D scanner.

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