CN112434378A - Design method for drawing interactive control by shipbuilding enterprise line chart - Google Patents
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Abstract
The invention discloses a design method for a shipbuilding enterprise line list drawing interaction control, which belongs to the technical field of communication, wherein a Model-View Model framework is established to comprise a Model module, a View module and a View Model module, so that the technical problem of improving the line list drawing efficiency is solved.
Description
Technical Field
The invention belongs to the technical field of ships, and relates to a design method for drawing interactive controls by a shipbuilding enterprise line chart.
Background
The line table is the plan of the highest level of the shipbuilding enterprise and is a compendium file for guiding operation and production. The line table directly reflects the order and production load of the enterprise. Because the shipbuilding project cycle is long (>1 year), the line chart needs to contain 3-5 years of order basic information and project key node time, and the time span of cutting, bottoming, launching, pilot, delivery and other main nodes and each production stage is directly drawn in a Gantt chart form by taking a month as a time unit. At present, most enterprises still adopt a manual drawing method, and although some enterprises realize software drawing, some enterprises lack an interactive adjustment function, so that the operation is inconvenient and the efficiency is low.
The shipbuilding enterprise line chart is a variant Gantt chart. The horizontal direction is a time axis, generally taking months as basic units, and the order condition within three to five years can be completely drawn on A3 paper. The vertical is the project axis, with each row representing a project, typically arranged in chronological order of the start of the project entering the dock for pick-up.
Disclosure of Invention
The invention aims to provide a design method for drawing interactive controls by a shipbuilding enterprise line list, which solves the technical problem of improving the line list compiling efficiency.
In order to achieve the purpose, the invention adopts the following technical scheme:
a design method for drawing interactive controls by a shipbuilding enterprise line chart comprises the following steps:
step 1: establishing a Model-View Model framework, wherein the Model-View Model framework comprises a Model module, a View module and a View Model module;
step 2: the Model module is responsible for defining a basic data structure and a container of the line table entry, and realizes the functions of adding, modifying, deleting and inquiring items and the function of simultaneously managing a plurality of items;
the View module is responsible for drawing the graph of the line table and simultaneously responsible for acquiring and transmitting data of user interactive operation;
and 4, the ViewModel module is responsible for reading the data in the Model module, processing the user interactive operation data transmitted by the View module, and storing the processing result to the Model module.
Preferably, in performing step 2, the basic data structure of the line table entry is different fields defined by the Model module according to the primary time node of the entry.
Preferably, the container is a List container for managing a plurality of item data Items.
Preferably, when step 3 is executed, the detailed steps of drawing the graph of the line table by the View module are as follows:
step A1: reading all project basic data to be drawn and project sequences;
step A2: calculating the minimum Min of all node dates, saving the minimum Min as Ts, and taking the Ts as the starting point of a time coordinate axis drawn by a line table;
step A3: reading the length Lc and the width Wc of the canvas;
step A4: reading a pixel width Wm of a time axis unit in a system configuration;
step A5: obtaining the time coordinate scale number Cc in the canvas by calculating Wc/Wm;
step A6: drawing a header, taking Ts as an X coordinate starting point, drawing time scales, and drawing time characters on time axis scales;
step A7: drawing dotted lines in the Y direction on the whole scale at the rest part except the gauge outfit, and filling the dotted lines with different shading;
step A8: reading a piece of project node data;
step A9: obtaining the CSD date of the date, and obtaining a time difference Ds by using CSD-Ts;
step A10: obtaining a time axis, namely the whole scale of an X axis, from a Ds whole month part, dividing a days part of Ds by the number of days of the month in which SC is positioned by the width Wm of the scale to obtain an SC sub-scale deviant, and adding the sub-scale deviant to the whole scale coordinate to obtain an X coordinate of an SC node and storing the X coordinate as Xsc;
a11, reading the height Ph of a project diagram in system configuration, reading the height Yh of a header, and calculating Yh + Ph/2 to obtain a Y coordinate Ysc of an SC;
step A12: drawing a graph of the SC according to the (Xsc, Ysc) and the legend of the SC in the system configuration, and temporarily storing the coordinate point;
step A13: step A9 is executed, and the next node graph is drawn continuously until all the nodes are drawn completely;
step A14: reading a connection line legend of an SC-KL section in the system configuration, and drawing a connection line according to SC and KL coordinates in the step A10;
step A15: step A14 is executed, the connecting line between the next two nodes is drawn continuously until all the connecting lines between the nodes with the forced sequence are drawn completely;
step A16: step A8 is executed to continue drawing the next project until all projects are drawn.
Preferably, when step 4 is executed, after the View model module receives the user operation data sent from the View module, the user operation data is first subjected to processing for judging the operation type, and then corresponding operation is performed according to the operation type.
The invention relates to a design method for drawing interactive controls of shipbuilding enterprise line list, which solves the technical problem of improving the line list compiling efficiency.
Drawings
FIG. 1 is a diagram of a Model-View-ViewModel architecture according to the present invention;
fig. 2 is a data flow diagram of the present invention.
Detailed Description
In order to make the technical problems, technical solutions and advantages of the present invention more apparent, the following detailed description is given with reference to the accompanying drawings and specific embodiments.
As shown in fig. 1-2, the present embodiment provides a design method for drawing an interactive control by a shipbuilding enterprise line chart, including the following steps:
step 1: establishing a Model-View Model framework, wherein the Model-View Model framework comprises a Model module, a View module and a View Model module;
step 2: the Model module is responsible for defining a basic data structure and a container of the line table entry, and realizes the functions of adding, modifying, deleting and inquiring items and the function of simultaneously managing a plurality of items;
the View module is responsible for drawing the graph of the line table and simultaneously responsible for acquiring and transmitting data of user interactive operation;
and 4, the ViewModel module is responsible for reading the data in the Model module, processing the user interactive operation data transmitted by the View module, and storing the processing result to the Model module.
Preferably, in performing step 2, the basic data structure of the line table entry is different fields defined by the Model module according to the primary time node of the entry.
Preferably, the container is a List container for managing a plurality of item data Items.
In this embodiment, according to the main time node of the project, the fields designed for the data model are shown in table 1:
TABLE 1
In this embodiment, the general items are drawn in the above order, and some nodes may be omitted from the special items (for example, half-floating, some items may not be needed). The mandatory order field in table 1 indicates that this field has mandatory logical context with other fields, and the Project field has uniqueness.
In this embodiment, the specific functions of the List container are as follows:
newly-added items: two cases are: A. the new addition of items is made according to a given initial value (all necessary fields as parameters). B. And reading the period among the nodes from the fixed template for calculation and adding according to the given SC value as a project starting point.
And modifying the node time: three cases: A. the individual node modifications, the modification ranges are determined in the order in the table above, e.g. a single node modification to HF must lie in this interval (KL, LA). B. And the subsequent nodes are sequentially delayed, one node is adjusted at the moment, and the subsequent nodes are sequentially adjusted forwards or backwards according to the sequence in the above and the interval of the original nodes. For example: the ST date is adjusted to 20 days later, and the subsequent PC and PD dates are increased by 20 days according to the original time. C. The project is wholly forward or backward, and all nodes of the project are increased or decreased by days.
Deleting the item: the Item is deleted from the List.
Item sequence adjustment: the order of the items is adjusted from the List container.
Preferably, when step 3 is executed, the detailed steps of drawing the graph of the line table by the View module are as follows:
step A1: reading all project basic data to be drawn and project sequences;
step A2: calculating the minimum Min of all node dates, saving the minimum Min as Ts, and taking the Ts as the starting point of a time coordinate axis drawn by a line table;
step A3: reading the length Lc and the width Wc of the canvas;
step A4: reading a pixel width Wm of a time axis unit in a system configuration;
step A5: obtaining the time coordinate scale number Cc in the canvas by calculating Wc/Wm;
step A6: drawing a header, taking Ts as an X coordinate starting point, drawing time scales, and drawing time characters on time axis scales;
step A7: drawing dotted lines in the Y direction on the whole scale at the rest part except the gauge outfit, and filling the dotted lines with different shading;
step A8: reading a piece of project node data;
step A9: obtaining the CSD date of the date, and obtaining a time difference Ds by using CSD-Ts;
step A10: obtaining a time axis, namely the whole scale of an X axis, from a Ds whole month part, dividing a days part of Ds by the number of days of the month in which SC is positioned by the width Wm of the scale to obtain an SC sub-scale deviant, and adding the sub-scale deviant to the whole scale coordinate to obtain an X coordinate of an SC node and storing the X coordinate as Xsc;
a11, reading the height Ph of a project diagram in system configuration, reading the height Yh of a header, and calculating Yh + Ph/2 to obtain a Y coordinate Ysc of an SC;
step A12: drawing a graph of the SC according to the (Xsc, Ysc) and the legend of the SC in the system configuration, and temporarily storing the coordinate point;
step A13: step A9 is executed, and the next node graph is drawn continuously until all the nodes are drawn completely;
step A14: reading a connection line legend of an SC-KL section in the system configuration, and drawing a connection line according to SC and KL coordinates in the step A10;
step A15: step A14 is executed, the connecting line between the next two nodes is drawn continuously until all the connecting lines between the nodes with the forced sequence are drawn completely;
step A16: step A8 is executed to continue drawing the next project until all projects are drawn.
In this embodiment, the interaction process of the user operation is specifically shown in table 2:
TABLE 2
In this embodiment, in order to implement different graphic symbols (different legends are used by different enterprises, or different legends are used for business and production), View implements a standard interface, and can perform dynamic switching during operation. When the user operates, the module acquires the keyboard state and the start-stop position coordinates when the mouse clicks or drags, judges the node name of the area corresponding to the module, the item name of the area corresponding to the module and the state of the current line table, and sends the node name, the item name and the state of the current line table to the ViewModel for processing.
Preferably, when step 4 is executed, after the View model module receives the user operation data sent from the View module, the user operation data is first subjected to processing for judging the operation type, and then corresponding operation is performed according to the operation type.
In this embodiment, the operation types are shown in table 3:
TABLE 3
In this embodiment, the implementation of steps 1 to 4 is implemented based on a Net Winfrom window platform, and the programming language is C #, which specifically includes the following steps:
step S1: firstly, three controls are mainly arranged on a Winform window, and the names, the types and the main functions are as follows:
the ConfigPanel, which is inherited to PropertyGrid, is mainly used for displaying and operating the configuration parameters of the system and the line graph. The color, the size, the position and the like of each graph can be dynamically modified, the graph takes effect immediately after being confirmed, and then SpChart is informed to redraw the line table;
the ProjectsGrid inherits from GridView, mainly displays detailed text information of the item, can adjust the specific date of each node of the item by the text information in the control, automatically transfers the data to SpChart after confirmation, and then redraws the line table graph to realize automatic updating;
SpChart inherits from UserControl, and mainly realizes automatic drawing and interactive operation of a line table, namely all functions of the View are drawn by adopting Windows GDI;
step S2: the following two categories are set in the background, and the main functions are as follows:
ModelData mainly realizes the functions of the Model. The DateTime class of C # is used to indicate the date. The method supports serialization, and can store data into a file or read data from the file;
VmProxy: the method mainly realizes the functions of the Viewmodel and realizes the data modification of Pjdata by the interactive operation of SpChart.
Step S3: the SpChart control is carried out according to the following steps when drawing the line table:
step B1: reading project data from ChartProxy, obtaining the minimum node date, and determining the starting point of the SpChart time axis;
step B2: drawing a gauge head: the height of the first row of the header is multiplied by 60 percent, and the annual characters are drawn; the height of the second row is equal to the height of the head of the table multiplied by 40 percent, and the month number is drawn;
step B3: drawing a project area monthly partition line: drawing a month boundary according to the whole-scale X coordinate of the header time axis, wherein the boundary between the current 12 months and the next 1 day is drawn by a solid line, and the other boundaries are drawn by dotted lines;
step B4: filling the monthly background of the project area: the adjacent months are filled without shading to increase the identification degree. Calculating the date of the new year of the lunar calendar, and filling the lunar calendar with special shading;
step B5: reading a first item SC node, calculating the coordinate Psc of an SC graph according to the processing method of the drawing process of the second part of View, and drawing according to the symbol definition in the legend, wherein the SC graph is a solid rectangle in the embodiment;
step B6: defining the font and color of characters in system configuration, and drawing the date font of the SC node at coordinates (Psc.X, Psc.Y + Yd) according to the format of MM-dd, wherein the Y-direction offset value Yd of the font and the graph is used as the font and color definition;
step B7: drawing a first project remaining node graph according to the method loop of step B5 and step B6;
step B8: reading a width set value of a node connecting line in the system configuration, and drawing connecting lines among all nodes;
step B9: all items are drawn according to the method of step B5 through step B8.
In this embodiment, the method for processing interaction adjustment mainly processes a mouse event as follows:
step R1: creating two variables P1 and P2 of type Point; the user needs to judge the node dragging according to the following three events:
step Z1: when the system, windows, forms, control, mouse down event occurs, saving the point of the mouse to P1; judging the item number and the node name of the current user point according to the calculation method of the View part operation type;
step Z2: when a system, windows, forms, control, mouse event occurs, saving the point of the mouse to P2; this step needs to be executed circularly until the event of step Z3 occurs;
step Z3: when a system, Windows, Forms, control, MouseUp event occurs, according to the last P2 coordinate of the step Z2, judging the operation type of the user according to the calculation method for judging the operation type in the View;
step R2: if the operation is a drag for a single node, then calculate the new date represented by point P2; if the operation is moving for the entire project, the time difference represented by (P2-P1) is calculated; if the operation is adjusted according to the item sequence, calculating a new line number at the released position of the mouse;
step R3: the result obtained in the step R2 is passed as a parameter to the Processor class, which completes the subsequent processing according to the ViewModel partial operation type and the processing method thereof.
The implementation realizes linkage updating of the text data of the ProjectGird and SpChart, and the most accurate operation method is adopted for adjusting a single node by directly inputting the date in the ProjectGird because the mouse operation is not high in accuracy. The linkage method mainly adopts an observer mode in a design mode, both ProjectGird and SpChart have double identities, and the observer is a main body and an observer of the opposite side, and can inform the opposite side when data is updated, so that the updating operation of an interface is executed, and the bidirectional automatic updating is realized.
In order to realize the modification of the system configuration and the real-time linkage updating of SpChart, an observer mode is adopted between the Sysconf and SpChart, SpChart serves as an observer, and the SpChart immediately informs the SpChart control to immediately update when the Sysconf is updated.
The function of serialization is realized in PJData and SysConf classes, and the data in the classes are stored into files.
The invention relates to a design method for drawing interactive controls of shipbuilding enterprise line list, which solves the technical problem of improving the line list compiling efficiency.
As will be appreciated by one skilled in the art, embodiments of the present application may be provided as a method, system, or computer program product. Accordingly, the present application may take the form of an entirely hardware embodiment, an entirely software embodiment or an embodiment combining software and hardware aspects. Furthermore, the present application may take the form of a computer program product embodied on one or more computer-readable storage media (including, but not limited to, disk storage, optical storage, and the like) having computer-usable program code embodied therein.
The present application is described with reference to flowchart illustrations and/or block diagrams of methods, apparatus (systems) and computer program products according to embodiments of the application. It will be understood that each flow and/or block of the flow diagrams and/or block diagrams, and combinations of flows and/or blocks in the flow diagrams and/or block diagrams, can be implemented by computer program instructions. These computer program instructions may be provided to a processor of a general purpose computer, special purpose computer, embedded processor, or other programmable data processing apparatus to produce a machine, such that the instructions, which execute via the processor of the computer or other programmable data processing apparatus, create means for implementing the functions specified in the flowchart flow or flows and/or block or blocks.
These computer program instructions may also be stored in a computer-readable storage medium that can direct a computer or other programmable data processing apparatus to function in a particular manner, such that the instructions stored in the computer-readable storage medium produce an article of manufacture including instruction means which implement the function specified in the flowchart flow or flows and/or block diagram block or blocks.
These computer program instructions may also be loaded onto a computer or other programmable data processing apparatus to cause a series of operational steps to be performed on the computer or other programmable apparatus to produce a computer implemented process such that the instructions which execute on the computer or other programmable apparatus provide steps for implementing the functions specified in the flowchart flow or flows and/or block diagram block or blocks.
While the foregoing is directed to the preferred embodiment of the present invention, it will be understood by those skilled in the art that various changes and modifications may be made without departing from the spirit and scope of the invention as defined in the appended claims.
Claims (5)
1. A design method for drawing interactive controls by a shipbuilding enterprise line chart is characterized by comprising the following steps: the method comprises the following steps:
step 1: establishing a Model-View Model framework, wherein the Model-View Model framework comprises a Model module, a View module and a View Model module;
step 2: the Model module is responsible for defining a basic data structure and a container of the line table entry, and realizes the functions of adding, modifying, deleting and inquiring items and the function of simultaneously managing a plurality of items;
the View module is responsible for drawing the graph of the line table and simultaneously responsible for acquiring and transmitting data of user interactive operation;
and 4, the ViewModel module is responsible for reading the data in the Model module, processing the user interactive operation data transmitted by the View module, and storing the processing result to the Model module.
2. The design method for drawing interactive control by shipbuilding enterprise line chart according to claim 1, characterized in that: in step 2, the basic data structure of the line table entry is the different fields defined by the Model module according to the primary time node of the entry.
3. The design method for drawing interactive control by shipbuilding enterprise line chart according to claim 1, characterized in that: the container is a List container for managing a plurality of item data Items.
4. The design method for drawing interactive control by shipbuilding enterprise line chart according to claim 1, characterized in that: when the step 3 is executed, the detailed steps of drawing the graph of the line table by the View module are as follows:
step A1: reading all project basic data to be drawn and project sequences;
step A2: calculating the minimum Min of all node dates, saving the minimum Min as Ts, and taking the Ts as the starting point of a time coordinate axis drawn by a line table;
step A3: reading the length Lc and the width Wc of the canvas;
step A4: reading a pixel width Wm of a time axis unit in a system configuration;
step A5: obtaining the time coordinate scale number Cc in the canvas by calculating Wc/Wm;
step A6: drawing a header, taking Ts as an X coordinate starting point, drawing time scales, and drawing time characters on time axis scales;
step A7: drawing dotted lines in the Y direction on the whole scale at the rest part except the gauge outfit, and filling the dotted lines with different shading;
step A8: reading a piece of project node data;
step A9: obtaining the CSD date of the date, and obtaining a time difference Ds by using CSD-Ts;
step A10: obtaining a time axis, namely the whole scale of an X axis, from a Ds whole month part, dividing a days part of Ds by the number of days of the month in which SC is positioned by the width Wm of the scale to obtain an SC sub-scale deviant, and adding the sub-scale deviant to the whole scale coordinate to obtain an X coordinate of an SC node and storing the X coordinate as Xsc;
a11, reading the height Ph of a project diagram in system configuration, reading the height Yh of a header, and calculating Yh + Ph/2 to obtain a Y coordinate Ysc of an SC;
step A12: drawing a graph of the SC according to the (Xsc, Ysc) and the legend of the SC in the system configuration, and temporarily storing the coordinate point;
step A13: step A9 is executed, and the next node graph is drawn continuously until all the nodes are drawn completely;
step A14: reading a connection line legend of an SC-KL section in the system configuration, and drawing a connection line according to SC and KL coordinates in the step A10;
step A15: step A14 is executed, the connecting line between the next two nodes is drawn continuously until all the connecting lines between the nodes with the forced sequence are drawn completely;
step A16: step A8 is executed to continue drawing the next project until all projects are drawn.
5. The design method for drawing interactive control by shipbuilding enterprise line chart according to claim 1, characterized in that: when the step 4 is executed, after the View model module receives the user operation data transmitted by the View module, the user operation data is preferably subjected to processing of judging the operation type, and then corresponding operation is performed according to the operation type.
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