Automatic drawing method and device for storeroom of vehicle depot
The automatic drawing method and device for vehicle depots in urban rail transit enhance design efficiency and reduce errors by decomposing warehouses into basic units and using preset parameters and algorithms, thus lowering designer dependency.
Patent Information
- Application Number
- CN202411029509.9
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-07-30
- Publication Date
- 2024-12-20
AI Technical Summary
Traditional rail transit line design in urban rail transit vehicle depots is time-consuming, prone to errors, and requires extensive professional knowledge, leading to high designer dependency.
An automatic drawing method and device that decomposes the warehouse into basic warehouses, uses preset parameters and algorithms to combine and draw vehicle depots, reducing human error and designer requirements by employing a preset module, editing module, calculation module, and drawing module.
The method and device enhance design efficiency, reduce errors, and lower the skill requirements for designers by automating the drawing process using predefined parameters and algorithms.
Smart Images
Figure CN119167469A_ABST
Abstract
Description
Technical Field
[0001] The invention belongs to the technical field of rail transportation, and in particular relates to an automatic drawing method and device for a warehouse of a vehicle depot. Background Art
[0002] Urban rail transit vehicle bases are logistical bases that ensure the normal operation of trains. Among them, various operation depots and maintenance depots are important components of urban rail transit yards. The main function of operation depots and maintenance depots (hereinafter collectively referred to as parking garages) is to undertake vehicle parking, maintenance, inspection and repair work.
[0003] In the current rail transit line design, it is necessary to visualize the line information and display an intuitive 2D diagram. In traditional line design, the garages, pillars, tracks, car barriers and other information in the line design stage are drawn manually based on the professional knowledge of designers, which is not only prone to errors but also has a high proportion of repetitive work.
[0004] In summary, the traditional circuit design has the following shortcomings: 1) The design takes a long time.
[0005] 2) The design process is prone to errors: Because the subjective behavior of designers is easily affected by external factors, the probability of data errors in the design process increases.
[0006] 3) High requirements for designers: Designers often need to understand a lot of professional knowledge such as rail transit, civil engineering and engineering drawing. If there are special requirements during the line design process, experienced designers are also required to participate. Summary of the invention
[0007] In order to solve the above problems, the embodiment of the present invention provides a method and device for automatically drawing a warehouse of a vehicle depot, which realizes the automatic drawing of the warehouse, improves the design efficiency, reduces the probability of error, and reduces the requirements for designers. The technical solution is as follows: On the one hand, an embodiment of the present invention provides a method for automatically drawing a warehouse of a vehicle depot, comprising: Preset basic warehouse; Combine basic warehouses and automatically draw warehouses of vehicle depots according to warehouse control parameters; The control parameters are default values or input values.
[0008] Specifically, the automatic drawing method of the warehouse of the vehicle depot provided by the embodiment of the present invention includes the following steps: Pre-set the basic parameters of the basic warehouse and the size algorithm of the basic warehouse; Obtain the combination rules of the basic warehouse edited by the user and the control parameters for drawing the basic warehouse; According to the default values in the basic parameters, the input values in the control parameters, or the default values and the input values according to the size algorithm, the number of tracks, track length, storehouse size, column size, column distribution and vehicle blocking conditions of each basic storehouse are obtained; Automatic drawing of warehouses, tracks and car barriers based on combination rules; The control parameters include basic storehouse parameters, column size parameters and garage width parameters.
[0009] On the other hand, an embodiment of the present invention further provides an automatic drawing device for a warehouse of a vehicle depot, comprising: The preset module is used to preset the basic parameters of the basic warehouse and the size algorithm of the basic warehouse; An editing module, used to obtain the combination rules of the basic warehouse edited by the user and to draw the control parameters of the basic warehouse; A calculation module is used to obtain the number of tracks, track length, garage width, column size, column distribution and vehicle blocking conditions of each basic warehouse according to the default values in the basic parameters, the input values in the control parameters or the default values and input values according to the size algorithm; The drawing module is used to realize the automatic drawing of warehouses, tracks and car barriers according to the combination rules. The technical solution provided by the embodiment of the present invention has the following beneficial effects: the embodiment of the present invention provides a method and device for automatically drawing a warehouse of a vehicle depot, which realizes the automatic drawing of the warehouse, improves the design efficiency, reduces the probability of errors, and reduces the requirements for designers. Specifically, in this patent, warehouses are classified into a variety of basic warehouses, and the common parameters and default values of each basic warehouse are sorted out. Algorithms such as the number of tracks, track length, warehouse length, and warehouse width are pre-entered. Non-common parameters are entered through the control parameters of drawing basic warehouses through interaction with people, and finally the warehouse is automatically drawn. BRIEF DESCRIPTION OF THE DRAWINGS
[0010] Figure 1 is a flow chart of a method for automatically drawing a warehouse of a vehicle depot in an embodiment of the present invention; Figure 2 It is a schematic diagram of adding a new warehouse combination in the warehouse editing page; Figure 3 This is a schematic diagram of the basic warehouse editing page of the parking train inspection warehouse; Figure 4 This is a schematic diagram of the warehouse editing page; Figure 5 This is a schematic diagram of the column size editing page; Figure 6 This is a diagram of the garage width editing page; Figure 7 It is a schematic diagram of the depot's warehouse drawn automatically. DETAILED DESCRIPTION
[0011] In order to make the objectives, technical solutions and advantages of the present invention more clear, the present invention will be further described in detail below with reference to the accompanying drawings.
[0012] Example 1 See also Figure 1 Embodiment 1 provides a method for automatically drawing a warehouse of a vehicle depot, and the method for automatically drawing a warehouse of a vehicle depot includes: Preset basic warehouse; this patent decomposes the warehouse of the vehicle depot into multiple basic warehouses according to functions, characteristics, etc.; specifically, it is decomposed into seven basic warehouses, but this is not a limitation of this patent.
[0013] Combine the basic warehouses and automatically draw the warehouse of the vehicle depot according to the control parameters of the warehouse.
[0014] The control parameters are default values or input values, etc. The default values can be entered before automatic drawing or system default settings, and the input values can be entered in advance before drawing or during the drawing process. In addition, the applicant divides the control parameters into common parameters and non-common parameters to reduce the setting of parameters and reduce errors in the parameter setting process.
[0015] The method can realize automatic drawing based on CAD or its related software.
[0016] Specifically, the automatic drawing method of the warehouse of the vehicle depot provided by the embodiment of the present invention includes the following steps: Step 1: Pre-set the basic parameters of the basic warehouse and the size algorithm of the basic warehouse.
[0017] Step 2: Obtain the combination rules of the basic warehouse edited by the user and the control parameters for drawing the basic warehouse.
[0018] Step 3: According to the default values in the basic parameters, the input values in the control parameters, or the default values and input values according to the size algorithm, the number of tracks, track length, warehouse size, column size, column distribution and vehicle blocking conditions of each basic warehouse are obtained.
[0019] Step 4: Automatically draw the warehouse, track and car stop according to the combination rules and the calculation results of step 3.
[0020] Among them, the control parameters include basic warehouse parameters, column size parameters and garage width parameters.
[0021] Among them, automatic drawing is carried out according to the following rules: the track is represented by a straight line; the warehouse is represented by a rectangular frame; the starting end of the track is aligned with the corresponding end of the frame; in a warehouse combination, the columns between different basic warehouses are overlapping; in a warehouse combination, it is not necessary to draw a frame for each basic warehouse; in a warehouse combination, the maximum warehouse length of each basic warehouse is used as the length of the frame; a car block is set or not at the end of the track (in special cases, such as a parking train inspection warehouse with one line and three rows, there is no car block at the end of the warehouse because both sides can enter the warehouse. In other cases, a car block is set at the end of the track).
[0022] Among them, the basic parameters include vehicle type, marshaling, longitudinal dimensions of pillars (not covered), transverse dimensions of pillars (not covered), longitudinal dimensions of pillars (covered), transverse dimensions of pillars (covered), automatic driving attributes, vehicle block attributes, whether covered, minimum dimensions of relevant parts of the garage, and longitudinal dimensions of the road. Among them, automatic driving attributes include whether automatic driving, coupler spacing, and safe distance from the rear of the train. Vehicle block attributes include vehicle block type, vehicle block number, and vehicle block length. Vehicle block types include fixed hydraulic vehicle blocks and friction vehicle blocks. The minimum dimensions of relevant parts of the garage include the width of the passage between car bodies (without pillars), the width of the passage between the car body and the side wall, the width of the passage between the car body and the pillar, and the net width of the front and rear passages in the garage.
[0023] Among them, the basic warehouses include parking train inspection warehouse, weekly and monthly inspection warehouse, scheduled maintenance warehouse, temporary repair warehouse, static adjustment warehouse, cleaning warehouse and horizontal maintenance work area.
[0024] Among them, the basic warehouse parameters of parking inspection warehouse, scheduled maintenance warehouse, temporary maintenance warehouse, static adjustment warehouse and cleaning warehouse all include longitudinal overall control parameters and transverse overall control parameters. The longitudinal overall control parameters include the total number of columns, the number of columns per line, the length of the warehouse and the longitudinal maintenance area, etc.; the transverse overall control parameters include the number of column spans.
[0025] Taking the parking train inspection depot as an example, for the parking train inspection depot: the depot length parameters include common control parameters, the first row and the second row (for one row and one row, there is no second row), etc. Among them, the common control parameters include the depth of the ground below, the depth of the inspection trench, the step width, the step height, the step length of the trench, the proportion of column inspection pits (for non-automatic driving, select 50% or 100%, for automatic driving, there is no such parameter), the safety distance from the hook to the step, the type of car block, the length of the car block, the additional length of the car block and the width of the channel at the end of the depot. The first row includes the width of the channel in front of the depot, the form of the front transition section, the slope gradient of the front transition section, the length of the slope intrusion of the front head of the vehicle, the form of the rear transition section, the slope gradient of the rear transition section and the length of the slope intrusion of the rear head of the vehicle. The second column includes the width of the passage in front of the depot, the form of the front transition section, the slope gradient of the front transition section, the length of the front vehicle head intruding into the slope, the form of the rear transition section, the slope gradient of the rear transition section and the length of the rear vehicle head intruding into the slope (both the first and second columns of non-automatic driving (100% pillar-type inspection pits) and the first and second columns of automatic driving use this parameter), etc.; or, the second column includes the width of the passage in front of the depot, the distance between the train and the flat aisle, the parking error and the distance between the train and the vehicle barrier (the first and second columns of non-automatic driving (50% pillar-type inspection pits use this parameter instead), etc.
[0026] Among them, the basic warehouse parameters are designed according to the actual situation, and the warehouse length parameters usually also include common control parameters and non-common control parameters (such as position parameters).
[0027] Among them, the number of single-line columns includes one-line-one-column, one-line-two-column and one-line-three-column. The number of column spans includes the number of spans and the number of tracks. The number of spans can be calculated from the basic warehouse parameters or input values, and the number of tracks is the default value or input value. If the car stop type is hydraulic, there is a field for the additional length of the car stop. If the car stop type is friction, there is no additional length of the car stop. If the front (rear) end transition form is a step, the slope gradient and the front (rear) end head intrusion slope length are not allowed to be filled in. Among them, when the basic warehouse is automatically drawn, the length of the basic warehouse can be obtained by the following methods: Method 1: Calculate the reference range of the warehouse length according to the control parameters and their corresponding basic parameters and size algorithms and display them, and manually enter the warehouse length. Method 2: Obtain the attribute value of the warehouse, and automatically calculate the length of the warehouse according to the attribute value, control parameters and their corresponding basic parameters and size algorithms of the warehouse; the calculation formula of the warehouse length is: track length + width of the warehouse tail channel + longitudinal dimension of the column + longitudinal maintenance area.
[0028] Among them, column size parameters include the number of column rows, the horizontal dimension at the front of the garage, the vertical dimension at the front of the garage, the horizontal dimension at the end of the garage, the vertical dimension at the end of the garage, the maximum column width, whether there is a wall and the horizontal proportion of the wall to the column, etc. Garage width parameters include the width of the passage between the car bodies (without columns), the width of the passage between the car body and the side wall, and the width of the passage between the car body and the column side, etc.
[0029] Specifically, see Figure 2-7 The automatic drawing method of the warehouse of the vehicle depot provided by the embodiment of the present invention comprises the following steps: S101: Get the warehouse editing page, which includes a warehouse combination editing window, a warehouse thumbnail display window, a basic warehouse editing link, a column size editing link and a garage width editing link. The warehouse thumbnail only displays the combined warehouse outline, the track centerline and the name of the basic warehouse, and it corresponds to the two-dimensional model drawn in step S103.
[0030] S102: In the warehouse combination editing window, edit the warehouse combination rules by adding or removing basic warehouses and adjusting the vertical arrangement order of each basic warehouse. Open the basic warehouse editing page through the basic warehouse editing link to edit the basic warehouse parameters. Open the column size editing page through the column editing link to edit the column size parameters. The column size parameters include the number of spans and the number of tracks. The number of spans and the number of tracks are calculated from the basic warehouse parameters or manually input. Open the garage width editing page through the garage width editing link to edit the size parameters of each basic warehouse. At the same time, the thumbnails of the warehouses are displayed in the warehouse thumbnail display window.
[0031] S103: Automatically draw a two-dimensional model of the warehouse at a designated location according to the basic parameters, the dimension algorithm and the settings of step S102.
[0032] The calculation rules for spans and tracks are: input the total number of column digits and the number of single-line column digits, spans = total number of column digits / single-line column digits / default number of tracks per span. If the user has edited the number of tracks in the column spans and increased or decreased the spans, the corresponding total number of column digits and spans will be changed accordingly; if the total number of column digits is edited after the column spans have been edited, there will be two situations: one situation: if the adjusted total number of column digits is larger than before, the spans will continue to increase based on the original spans; the other situation: if the adjusted total number of column digits is smaller than before, the spans will be subtracted from the original spans.
[0033] Further, see Figure 2-4 In the warehouse editing page, you can edit warehouses of multiple vehicle depots. The warehouses of multiple vehicle depots are displayed in the form of labels (such as Warehouse 1, Warehouse 2 and Warehouse 3, etc.) and are located above the warehouse combination editing window; click the corresponding label to switch to the warehouse of the corresponding vehicle depot.
[0034] The calculation rules for column dimensions are as follows: the number of column rows is the number of spans + 1; when calculating the longitudinal and transverse dimensions of the warehouse, the maximum column width is used for calculation; the transverse dimension in front of the warehouse, the longitudinal dimension in front of the warehouse, the transverse dimension at the end of the warehouse, and the longitudinal dimension at the end of the warehouse are not included in the calculation of the transverse and longitudinal dimensions of the warehouse.
[0035] The calculation rules for the garage are: use the minimum size of the relevant parts of each garage to calculate the horizontal size of the warehouse or calculate the horizontal size of the warehouse based on the input value.
[0036] Example 2 Embodiment 2 provides specific steps of a method for automatically drawing a warehouse of a vehicle depot, as follows: Edit warehouse combination rules See also Figure 2 , Add a new warehouse combination: Click the "Add" button in the upper right corner, a new grouping interface pops up, enter the group name, click the "OK" button, and add a new warehouse combination on the left. Delete a warehouse combination: Select a warehouse combination, click the "Delete" button, a prompt interface pops up, click "OK" and the warehouse combination is deleted.
[0037] Add warehouse: First, select a warehouse combination, click the "Add" button, the new warehouse interface pops up, select the warehouse type, click "OK", and the added warehouse will be added under the warehouse combination. Different warehouse types require different parameters. Currently, there are parking train inspection warehouses, weekly and monthly inspection warehouses, scheduled maintenance warehouses, temporary maintenance warehouses, static adjustment warehouses, cleaning warehouses, and horizontal maintenance areas.
[0038] Delete a warehouse: Select a warehouse and click the "Delete" button. A prompt interface will pop up. Click "OK" to delete the warehouse. The warehouse thumbnail will be deleted from the warehouse thumbnail. Click "Cancel" to abandon the warehouse deletion operation.
[0039] Move up / down: Select a warehouse and click the "Move up / down" button. The warehouse thumbnail will move accordingly.
[0040] See also Figure 7 , the warehouse thumbnail displays: warehouse outline, track centerline, and sub-warehouse name. Note: (1) In a warehouse combination, the columns between different warehouses overlap. (2) In a warehouse combination, it is not necessary to draw a border for each small warehouse. For example, if the parking train inspection warehouse and the weekly and monthly inspection warehouse are combined, it is sufficient to draw an outer contour. There is no need to draw the border of each small warehouse. (3) In one plan, there are multiple warehouse combinations. (4) Warehouses in a warehouse combination can be moved up and down.
[0041] To edit a cross-column combination, you need to set the following parameters: Number of spans: Default, cannot be edited. Number of tracks: Default is 2, can also be entered.
[0042] Description: Number of spans: total number of columns / number of columns per line / default number of tracks per span (default value is 2). Enter the number of tracks in the input box and edit it. After entering or editing, click OK to change. You can add and delete spans, and edit the number of tracks. In the main span combination page, after editing the data, the main span number and total number of columns need to be changed accordingly.
[0043] The rules are as follows: (1) Enter the total number of column digits and the number of single-line column digits. Column span number = total number of column digits / single-line column digits / default number of tracks per span (default value is 2). (2) If the user has edited the number of tracks in the column span combination and increased or decreased the number of column spans, the corresponding total number of column digits and column span number will be changed accordingly. (3) If the user has edited the column span combination and directly manually adjusted the total number of column digits, there will be two situations. One: The adjusted total number of column digits is larger than before. In this case, the number of spans will continue to increase based on the original column span combination. For example, the original total number of column digits is 40, with 7 spans. Later, the total number of column digits is directly changed to 44, then the number of spans will continue to increase according to (44-40) / 2 / 2. Another: The adjusted total number of column digits is smaller than before. In this case, the number of spans will be subtracted from the original column span combination. For example, the original total number of column digits is 40, with 7 spans. Later, the total number of digits was changed to 36. If the last span is exactly 2 tracks, then the total number of digits for 2 tracks is 4, so the last span can be subtracted directly. If it is not enough after subtracting the last span, continue to subtract one span. If there is a surplus after subtracting the last span, then a span needs to be added with the surplus. Note that the total number of digits = the sum of the number of tracks * the number of digits for a single line.
[0044] Editing Post Sizes See also Figure 5 , select warehouse: According to the warehouse in the warehouse combination, the warehouse tab is displayed again. The i-th row of columns: According to the selected warehouse, the column span combination, the value +1, displays the number of column rows. The following parameters need to be set: Horizontal size at the front of the warehouse: default value, editable. Unit: m. Vertical size at the front of the warehouse: default value, editable. Unit: m. Horizontal size at the end of the warehouse: default value, editable. Unit: m. Vertical size at the end of the warehouse: default value, editable. Unit: m. Is there a wall: select Yes or No. The proportion of the wall to the horizontal size of the column: enter a value.
[0045] Note: If you select Yes in the basic parameters, whether to cover, the default value is 2, if you select No, the default value is 1. When calculating the longitudinal and transverse dimensions of the warehouse, the maximum column width is used for calculation. The transverse dimension of the front of the warehouse, the longitudinal dimension of the front of the warehouse, the transverse dimension of the end of the warehouse, and the longitudinal dimension of the end of the warehouse are not included in the calculation of the transverse and longitudinal dimensions of the warehouse. Is there a wall: If you select Yes, it means there is a side wall. The side wall is in the column. The proportion of the wall in the transverse dimension of the column: indicates the position of the wall in the transverse dimension of the column. The thickness of the wall is generally 200mm.
[0046] Edit Garage Width See also Figure 6 , set different garages, set the minimum value of the width of the passage between the car bodies (without columns), the width of the passage between the car body and the side wall, the width of the passage between the car body and the column side, and the net width of the front and rear passages in the garage. The following parameters need to be set: Passageway width between vehicle bodies (without pillars): default value, editable. Unit: m. Passageway width between vehicle body and side wall: default value, editable. Unit: m. Passageway width between vehicle body and pillars: default value, editable. Unit: m. Net width of front and rear passages in the warehouse: default value, editable. Unit: m.
[0047] Note: 1) It is the minimum size design of the relevant parts of each garage. It can also be directly used as the default value for calculating the horizontal size of the warehouse. You can edit and modify the default value and save it. 2) Channel width between car bodies (without pillars): It means the distance between the car bodies of two trains when there is no pillar in the middle. Different warehouses have corresponding distance requirements. 3) Channel width between car body and side wall: It means the distance between the car body and the side wall. Different warehouses have corresponding distance requirements. 4) Channel width between car body and column side: It means the distance between the car body and the column side. Different warehouses have corresponding distance requirements. 5) Net width of front and rear channels in the warehouse: The minimum value of the width of the front and rear channels in the longitudinal direction of the warehouse. It is only used as a judgment here, not as a calculated value. The calculated value is set in the warehouse editing.
[0048] Update the warehouse 1. Select a warehouse combination and click the "Update Warehouse" button to jump to the drawing page. 2. On the drawing page, select the prompt "Please select an object" and select the white border of the warehouse. 3. A prompt "Are you sure to update the selected warehouse" pops up. Select "Yes" to update the warehouse. Select "No" to abandon this operation. The automatically drawn warehouse is as follows Figure 7 shown.
[0049] Example 3 Embodiment 3 provides an automatic drawing device for a warehouse of a vehicle depot, comprising: The preset module is used to pre-set the basic parameters of the basic warehouse and the size algorithm of the basic warehouse.
[0050] The editing module is used to obtain the combination rules of the basic warehouse edited by the user and to draw the control parameters of the basic warehouse.
[0051] The calculation module is used to obtain the number of tracks, track length, garage width, column size, column distribution and vehicle blocking conditions of each basic warehouse according to the default values in the basic parameters, the input values in the control parameters, or the default values and input values according to the size algorithm.
[0052] The drawing module is used to realize the automatic drawing of warehouses, tracks and car barriers according to the combination rules.
[0053] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principle of the present invention should be included in the protection scope of the present invention.
Claims
1. The automatic drawing method of the warehouse of the vehicle depot is characterized by: include: Preset basic warehouse; Combine basic warehouses and automatically draw warehouses of vehicle depots according to warehouse control parameters; The control parameters are default values or input values.
2. The automatic drawing method of the warehouse of the vehicle depot according to claim 1 is characterized in that: The steps include: Pre-set the basic parameters of the basic warehouse and the size algorithm of the basic warehouse; Obtain the combination rules of the basic warehouse edited by the user and the control parameters for drawing the basic warehouse; According to the default values in the basic parameters, the input values in the control parameters, or the default values and the input values according to the size algorithm, the number of tracks, track length, storehouse size, column size, column distribution and vehicle blocking conditions of each basic storehouse are obtained; Automatic drawing of warehouses, tracks and car barriers based on combination rules; The control parameters include basic storehouse parameters, column size parameters and garage width parameters.
3. The automatic drawing method of the warehouse of the vehicle depot according to claim 2 is characterized in that: Automatic drawing is performed according to the following rules: The track is represented by a straight line; The warehouse is represented by a rectangular border; The beginning of the track is aligned with the corresponding end of the frame; In a warehouse combination, the columns between different basic warehouses overlap; In a warehouse combination, it is not necessary to draw a border for each basic warehouse; In a warehouse combination, the maximum warehouse length of each basic warehouse is used as the length of the border; There may or may not be a car stop at the end of the track.
4. The automatic drawing method of a warehouse of a vehicle depot according to claim 2, characterized in that: The basic parameters include vehicle type, marshaling, longitudinal dimension of pillar (not covered), transverse dimension of pillar (not covered), longitudinal dimension of pillar (covered), transverse dimension of pillar (covered), automatic driving attribute, vehicle barrier attribute, whether covered, minimum dimension of relevant parts of garage and longitudinal dimension of road; The automatic driving attributes include whether automatic driving is in progress, the coupler spacing, and the safety distance of the train tail; The gear attributes include gear type, gear number and gear length, and the gear type includes fixed hydraulic gear and friction gear; The minimum dimensions of the relevant parts of the garage include the width of the passage between vehicle bodies (without columns), the width of the passage between the vehicle body and the side wall, the width of the passage between the vehicle body and the columns, and the net width of the front and rear passages in the garage.
5. The automatic drawing method of a warehouse of a vehicle depot according to claim 2, characterized in that: The basic warehouse includes a parking train inspection warehouse, a weekly and monthly inspection warehouse, a scheduled maintenance warehouse, an emergency maintenance warehouse, a static adjustment warehouse, a cleaning warehouse and a transverse maintenance work area; The basic warehouse parameters of the parking train inspection warehouse, scheduled maintenance warehouse, temporary maintenance warehouse, static adjustment warehouse, cleaning warehouse and weekly inspection warehouse all include longitudinal overall control parameters and transverse overall control parameters; The longitudinal overall control parameters include the total number of columns, the number of columns in a single line, the length of the warehouse and the longitudinal maintenance area; the transverse overall control parameters include the number of column spans; The single-line column number includes one line and one column, one line and two columns, and one line and three columns; The column span number includes the span number and the track number. The span number can be calculated from the basic warehouse parameters or is an input value, and the track number is a default value or an input value.
6. The automatic drawing method of a warehouse of a vehicle depot according to claim 5, characterized in that: When automatically drawing a basic warehouse, the length of the basic warehouse can be obtained by the following methods: Method 1: Calculate the reference range of the warehouse length based on the control parameters and their corresponding basic parameters and size algorithm and display it, and manually input the warehouse length; Method 2: Obtain the property value of the warehouse, and automatically calculate the length of the warehouse according to the property value of the warehouse, the control parameters and their corresponding basic parameters, and the size algorithm.
7. The automatic drawing method of a warehouse of a vehicle depot according to claim 5, characterized in that: The column size parameters include the number of column rows, the horizontal dimension at the front of the warehouse, the vertical dimension at the front of the warehouse, the horizontal dimension at the end of the warehouse, the vertical dimension at the end of the warehouse, the maximum column width, whether there is a wall and the horizontal proportion of the wall to the column; The garage width parameters include the channel width between the car bodies (without columns), the channel width between the car body and the side wall, and the channel width between the car body and the column side.
8. The automatic drawing method of a warehouse of a vehicle depot according to claim 7, characterized in that: The steps include: S101: Obtain a warehouse editing page, which includes a warehouse combination editing window, a warehouse thumbnail display window, a basic warehouse editing link, a column size editing link, and a garage width editing link. The warehouse thumbnail only displays the combined warehouse outline, the track centerline, and the name of the basic warehouse, and corresponds to the two-dimensional model drawn in step S103; S102: In the warehouse combination editing window, the warehouse combination rules are edited by adding or removing basic warehouses and adjusting the vertical arrangement order of each basic warehouse; the basic warehouse editing page is opened through the basic warehouse editing link to edit the basic warehouse parameters; Click the column edit link to open the column size edit page to edit the column size parameters; click the garage width edit link to open the garage width edit page to edit the size parameters of each basic warehouse; at the same time, the warehouse thumbnail is displayed in the warehouse thumbnail display window; S103: Automatically draw a two-dimensional model of the warehouse at a designated location according to the basic parameters, the dimension algorithm and the settings of step S102.
9. The automatic drawing method of a warehouse of a vehicle depot according to claim 8, characterized in that: On the warehouse editing page, you can edit warehouses of multiple vehicle depots. The warehouses of multiple vehicle depots are displayed in the form of labels and are located above the warehouse combination editing window; click the corresponding label to switch to the warehouse of the corresponding vehicle depot.
10. Automatic drawing device for the warehouse of the vehicle depot, characterized in that: include: The preset module is used to preset the basic parameters of the basic warehouse and the size algorithm of the basic warehouse; An editing module, used to obtain the combination rules of the basic warehouse edited by the user and to draw the control parameters of the basic warehouse; A calculation module is used to obtain the number of tracks, track length, garage width, column size, column distribution and vehicle blocking conditions of each basic warehouse according to the default values in the basic parameters, the input values in the control parameters or the default values and input values according to the size algorithm; The drawing module is used to realize the automatic drawing of warehouses, tracks and car barriers according to the combination rules.