Method for associating 2D logic model and 3D model of optical cable loop in electrical secondary design

Abstract

The present invention relates to the technical field of electrical design data processing, and discloses a method for associating a two-dimensional logic model and a three-dimensional model of an electrical secondary design optical cable loop, comprising step 1: parsing the network configuration in the two-dimensional logic model file, and storing the parsed data in a specific format; step 2: parsing the model in the three-dimensional model file, and storing the parsed data in a specific storage format; step 3: associating the extracted information with the device and the optical cable respectively; step 4: associating the device information associated with the device and the optical cable information. The present invention completes the automatic association of data by automatically matching after defining the data type.

Description

Technical Field

[0001] The present invention relates to the technical field of electrical design data processing, and in particular to a method for associating a two-dimensional logic model and a three-dimensional model of an electrical secondary design optical cable loop. Background Art

[0002] In the electrical secondary design, the optical cable wiring data is completed through post-data collation. During the laying process of the optical cable 3D model, the optical cable data of the 2D design cannot be matched, and a complete optical cable list cannot be generated. Manual matching or table processing methods are not only inefficient, but also prone to unchecked matching errors, affecting the normal construction progress and maintenance of the power plant. Summary of the invention

[0003] The purpose of the present invention is to solve the above problems and provide a method for associating a two-dimensional logical model and a three-dimensional model of an electrical secondary design optical cable loop, which automatically matches after defining the data type and completes automatic data association.

[0004] The technical solution adopted by the present invention is:

[0005] A method for associating a two-dimensional logic model and a three-dimensional model of an electrical secondary design optical cable loop, characterized in that it comprises the following steps:

[0006] Step 1: Parse the network configuration in the two-dimensional logic model file, and store the parsed data in the storage format of equipment information TEquipment: ID-Code-Name-Location-Screen, device information TiedInfo: ID-EquipmentID, device virtual terminal signal TDoiInfo: ID-IEDID, optical cable information TCable: ID-Code-StartEquCode-EndEquCode, core wire information TWire: ID-CableID, virtual terminal configuration relationship information TExrRef: ID-DOIID-ConfigurationID-WireID;

[0007] Step 2: Parse the model in the 3D model file, and store the parsed data in the storage format of device information CLDevice: ID-Code-Name-Location-Screen and optical cable information Cable: ID-Code-StartEquCode-EndEquCode;

[0008] Step 3: Correlate the equipment and the optical cable according to the information extracted in Step 1 and Step 2 respectively;

[0009] Step 4: After associating the information according to the above steps, the device information associated with the device is obtained by associating the device information with the equipment information; the core wire information on the optical cable, the core wire information of the optical cable and the virtual terminal information are obtained by associating the core wire information, the virtual terminal information and the optical cable information.

[0010] Furthermore, the device association method in step 3 is to use the device number to match the device information TEquipment extracted from the two-dimensional logical model and the device information CLDevice extracted from the three-dimensional model, that is, TEquipment.Code=CLDevice.Code.

[0011] Furthermore, the device association method in step 3 is to match the device location and screen number according to the device information TEquipment extracted from the two-dimensional logical model and the device information CLDevice extracted from the three-dimensional model, that is, TEquipment.Location=CLDevice.Location and TEquipment.Screen=CLDevice.Screen.

[0012] Furthermore, the equipment association results are divided into associated and unassociated, and displayed visually in a table. For items that cannot be automatically associated, manual association is performed to establish a correspondence between the equipment number TEquipment.Code in the two-dimensional logical model and the equipment number CLDevice.Code in the three-dimensional logical model.

[0013] Furthermore, the optical cable association method in step 3 is to match the optical cable information TCable extracted from the two-dimensional logical model and the optical cable information CLCable extracted from the three-dimensional model using the optical cable number, that is, TCable.Code=CLCable.Code.

[0014] Further, in step 4, items with the same equipment ID as that of all devices are found according to the ID of the equipment information, i.e., TEquipment.ID=TiedInfo.EquipmentID; items with the same optical cable ID as that of all core wire information are found according to the ID of the optical cable information, i.e., TCable.ID=Twire.CableID; items with the same information ID as that of all virtual terminal information are found according to the core wire information ID, i.e., TWireID=TExrRef.WireID.

[0015] The beneficial effects of the present invention are:

[0016] (1) Automatically match 2D logical model data with 3D data to form complete optical cable data;

[0017] (2) The data generated by the correlation method is traceable and easy to query, providing strong data support for power plants. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Attached Figure 1 is a flow chart of the association method of the present invention. DETAILED DESCRIPTION

[0019] The specific implementation method of the optical cable logic loop verification method in the electrical secondary design of the present invention is described in detail below with reference to the accompanying drawings.

[0020] See attached Figure 1 The method for associating a two-dimensional logical model with a three-dimensional physical model of the present invention has the following specific associating steps:

[0021] Step 1: Parse the network configuration in the two-dimensional logical model file, and store the parsed data in the storage format of equipment information TEquipment: ID-Code-Name-Location-Screen, device information TiedInfo: ID-EquipmentID, device virtual terminal signal TDoiInfo: ID-IEDID, optical cable information TCable: ID-Code-StartEquCode-EndEquCode, core wire information TWire: ID-CableID, and virtual terminal configuration relationship information TExrRef: ID-DOIID-ConfigurationID-WireID.

[0022] Among them, in the equipment information TEquipment: ID-Code-Name-Location-Screen, ID is the unique identifier of all automatically generated equipment, Code is the number of the equipment, Name is the name of the equipment, Location is the location of the equipment, and Screen is the screen number; in the device information TiedInfo: ID-EquipmentID, ID is the unique identifier of all automatically generated device information, and EquipmentID is the ID of the device to which the device belongs; in the device virtual terminal signal TDoiInfo: ID-IEDID, ID is the unique identifier of all automatically generated device virtual terminal signals, and IEDID is the ID of the device to which it belongs; optical cable information TCable: ID-Code-StartEquCode-En In dEquCode, ID is the unique identifier among all automatically generated optical cables, Code is the optical cable number, StartEquCode is the starting device number of the optical cable connection, and EndEquCode is the ending device number of the optical cable connection; in the core wire information TWire: ID-CableID, ID is the unique identifier among all automatically generated core wires, and CableID is the ID of the optical cable to which it belongs; in the virtual terminal configuration relationship information TExrRef: ID-DOIID-ConfigurationID-WireID, ID is the unique identifier among all automatically generated virtual terminal configuration relationships, DOIID is the virtual terminal signal ID of the device on this side, ConfigurationID is the virtual terminal signal ID of the device on the opposite side, and WireID is the ID of the core wire to which it belongs.

[0023] Step 2: Parse the model in the 3D model file, and store the parsed data in the storage format of device information CLDevice: ID-Code-Name-Location-Screen and optical cable information Cable: ID-Code-StartEquCode-EndEquCode;

[0024] Among them, in the device information CLDevice: ID-Code-Name-Location-Screen, ID is the unique identifier of all automatically generated devices, Code is the device number, Name is the device name, Location is the device location, and Screen is the screen number; in the optical cable information CLCable: ID-Code-StartEquCode-EndEquCode, ID is the unique identifier of all automatically generated optical cables, Code is the optical cable number, StartEquCode is the starting device number of the optical cable connection, and EndEquCode is the end device number of the optical cable connection.

[0025] Step 3: Associate the devices and optical cables based on the information extracted in Step 1 and Step 2, respectively.

[0026] Step 4: After associating the information according to the above steps, the device information associated with the device is obtained by associating the device information with the equipment information; the core wire information on the optical cable, the core wire information of the optical cable and the virtual terminal information are obtained by associating the core wire information, the virtual terminal information and the optical cable information.

[0027] In the specific and device data, the two-dimensional logical model may also be stored in the extended data, and the stored extended data can be directly deserialized into CLCable structure data.

[0028] When associating the specific two-dimensional logical model information with the three-dimensional physical model information, the device information and the optical cable information are associated respectively.

[0029] The specific implementation method of device information association is as follows:

[0030] The equipment information TEquipment extracted from the 2D logical model and the equipment information CLDevice extracted from the 3D model are matched using the first method of equipment number, i.e. TEquipment.Code = CLDevice.Code, followed by matching according to the second method of equipment location and screen number, i.e. TEquipment.Location = CLDevice.Location and TEquipment.Screen = CLDevice.Screen. If the 3D model does not have equipment location information, it can only be automatically associated by equipment number. For items that cannot be automatically associated, manual association is used to establish the corresponding relationship between the equipment number TEquipment.Code in the 2D logical model and the equipment number CLDevice.Code in the 3D logical model.

[0031] The specific implementation of optical cable information association is as follows:

[0032] The cable information TCable extracted from the 2D logical model and the cable information CLCable extracted from the 3D model are matched using the cable number, that is, TCable.Code = CLCable.Code. The cable information in the cable inventory stored in the 3D model is converted into CLCable and then associated according to the rules.

[0033] Finally, the device information associated with the device is obtained by associating the device information with the equipment information; the core information on the optical cable, the core information of the optical cable, and the virtual terminal information are associated with the optical cable information. According to the device ID, find the items with the same equipment ID in all devices, that is, TEquipment.ID=TiedInfo.EquipmentID; according to the cable information ID, find the items with the same cable ID in all core information, that is, TCable.ID=Twire.CableID; according to the core information ID, find the items with the same information ID in all virtual terminal information, that is, TWireID=TExrRef.WireID.

[0034] The above are only preferred embodiments of the present invention. It should be pointed out that ordinary technicians in this technical field can make several improvements and modifications without departing from the principles of the present invention. These improvements and modifications should also be regarded as the protection scope of the present invention.

Claims

1. A method for associating a two-dimensional logic model with a three-dimensional model of an electrical secondary design optical cable loop, characterized in that: The steps include: Step 1: Parse the network configuration in the two-dimensional logic model file, and store the parsed data in the storage format of equipment information TEquipment: ID-Code-Name-Location-Screen, device information TiedInfo: ID-EquipmentID, device virtual terminal signal TDoiInfo: ID-IEDID, optical cable information TCable: ID-Code-StartEquCode-EndEquCode, core wire information TWire: ID-CableID, virtual terminal configuration relationship information TExrRef: ID-DOIID-ConfigurationID-WireID; Among them, in the equipment information TEquipment: ID-Code-Name-Location-Screen, ID is the unique identifier of all automatically generated equipment, Code is the number of the equipment, Name is the name of the equipment, Location is the location of the equipment, and Screen is the screen number; in the device information TiedInfo: ID-EquipmentID, ID is the unique identifier of all automatically generated device information, and EquipmentID is the ID of the device to which the device belongs; in the device virtual terminal signal TDoiInfo: ID-IEDID, ID is the unique identifier of all automatically generated device virtual terminal signals, and IEDID is the ID of the device to which it belongs; optical cable information TCable: ID-Code-StartEquCode-En In dEquCode, ID is the unique identifier of all automatically generated optical cables, Code is the optical cable number, StartEquCode is the starting device number of the optical cable connection, and EndEquCode is the ending device number of the optical cable connection; in core wire information TWire: ID-CableID, ID is the unique identifier of all automatically generated core wires, and CableID is the ID of the optical cable to which it belongs; in virtual terminal configuration relationship information TExrRef: ID-DOIID-ConfigurationID-WireID, ID is the unique identifier of all automatically generated virtual terminal configuration relationships, DOIID is the virtual terminal signal ID of the local device, ConfigurationID is the virtual terminal signal ID of the opposite device, and WireID is the ID of the core wire to which it belongs; Step 2: Parse the model in the 3D model file, and store the parsed data in the storage format of device information CLDevice: ID-Code-Name-Location-Screen and optical cable information Cable: ID-Code-StartEquCode-EndEquCode; Among them, in the device information CLDevice: ID-Code-Name-Location-Screen, ID is the unique identifier of all automatically generated devices, Code is the device number, Name is the device name, Location is the device location, and Screen is the screen number; in the optical cable information CLCable: ID-Code-StartEquCode-EndEquCode, ID is the unique identifier of all automatically generated optical cables, Code is the optical cable number, StartEquCode is the starting device number of the optical cable connection, and EndEquCode is the end device number of the optical cable connection; Step 3: Associate the devices and optical cables based on the information extracted in Step 1 and Step 2, respectively. The device association method is to use the device number to match the device information TEquipment extracted from the two-dimensional logical model and the device information CLDevice extracted from the three-dimensional model, that is, TEquipment.Code = CLDevice.Code. Or use the device location and screen number for matching, that is, TEquipment.Location = CLDevice.Location and TEquipment.Screen = CLDevice.Screen; The optical cable association method is to match the optical cable information TCable extracted from the two-dimensional logical model and the optical cable information CLCable extracted from the three-dimensional model using the optical cable number, that is, TCable.Code=CLCable.Code; Step 4: After associating the information according to the above steps, the device information is associated with the equipment information to obtain the device information associated with the equipment; the core wire information, virtual terminal information and optical cable information are associated to obtain the core wire information on the optical cable, the core wire information of the optical cable and the virtual terminal information. According to the ID of the equipment information, find the items with the same equipment ID in all devices, that is, TEquipment.ID=TiedInfo.EquipmentID; according to the ID of the optical cable information, find the items with the same optical cable ID in all core wire information, that is, TCable.ID=Twire.CableID; according to the ID of the core wire information, find the items with the same information ID in all virtual terminal information, that is, TWireID=TExrRef.WireID.

2. The method for associating a two-dimensional logic model with a three-dimensional model of an electrical secondary design optical cable loop according to claim 1, characterized in that: The equipment association results are divided into associated and unassociated, and displayed visually in a table. For items that cannot be automatically associated, manual association is performed to establish the correspondence between the equipment number TEquipment.Code in the two-dimensional logical model and the equipment number CLDevice.Code in the three-dimensional logical model.

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