CN116757916B - Method and system for controlling change of graphic drawing engine - Google Patents
Method and system for controlling change of graphic drawing engine Download PDFInfo
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- CN116757916B CN116757916B CN202311048046.6A CN202311048046A CN116757916B CN 116757916 B CN116757916 B CN 116757916B CN 202311048046 A CN202311048046 A CN 202311048046A CN 116757916 B CN116757916 B CN 116757916B
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- 238000009877 rendering Methods 0.000 claims description 54
- 230000003044 adaptive effect Effects 0.000 claims description 12
- 230000003993 interaction Effects 0.000 claims description 12
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- 230000002159 abnormal effect Effects 0.000 claims description 10
- 238000005070 sampling Methods 0.000 claims description 10
- 238000010276 construction Methods 0.000 claims description 6
- 238000013507 mapping Methods 0.000 claims description 6
- 230000011218 segmentation Effects 0.000 claims description 6
- 230000006978 adaptation Effects 0.000 claims description 4
- 238000007689 inspection Methods 0.000 claims description 4
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- G—PHYSICS
- G06—COMPUTING; CALCULATING OR COUNTING
- G06T—IMAGE DATA PROCESSING OR GENERATION, IN GENERAL
- G06T1/00—General purpose image data processing
- G06T1/20—Processor architectures; Processor configuration, e.g. pipelining
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- G—PHYSICS
- G06—COMPUTING; CALCULATING OR COUNTING
- G06T—IMAGE DATA PROCESSING OR GENERATION, IN GENERAL
- G06T1/00—General purpose image data processing
- G06T1/60—Memory management
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- G—PHYSICS
- G06—COMPUTING; CALCULATING OR COUNTING
- G06T—IMAGE DATA PROCESSING OR GENERATION, IN GENERAL
- G06T11/00—2D [Two Dimensional] image generation
- G06T11/001—Texturing; Colouring; Generation of texture or colour
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
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- Y02D10/00—Energy efficient computing, e.g. low power processors, power management or thermal management
Abstract
The invention relates to the technical field of graphic drawing, and provides a method and a system for controlling the change of graphic drawing engines, wherein a plurality of graphic drawing engines are constructed based on a historical graphic drawing log of a graphic drawing processing end, so that matched graphic drawing engines can be provided for different graphic drawing requirements in the process of executing graphic drawing tasks by the graphic drawing processing end, and a proper storage interval is configured for each graphic drawing engine, so that the data storage requirements in the graphic drawing process are ensured; dividing the graph drawing task data into a plurality of task sub-data, loading the task sub-data into a corresponding graph drawing engine, providing optimal graph drawing for each task sub-data, and improving the quality and efficiency of graph drawing operation corresponding to each task sub-data; and the graphic drawing engine is also subjected to changing processing, so that the performance of the graphic drawing engine is improved, and then the graphic drawing layers generated by all the graphic drawing engines are overlapped to obtain a graphic drawing finished product graph, so that the accuracy and the reliability of the graphic drawing operation are improved.
Description
Technical Field
The present invention relates to the field of graphics rendering technology, and in particular, to a method and system for controlling a change of a graphics rendering engine.
Background
In a computer graphics rendering process, a single graphics rendering engine is typically employed to complete the entire graphics rendering operation. In the working process of a single graphic drawing engine, the graphic drawing engine processes the whole graphic data, and each time a part of graphic data is processed, a part of graphic content is correspondingly drawn. The method can facilitate centralized processing of the graphic data and effectively prevent the condition of missing processing of the graphic data. However, a certain graphic drawing short board exists in a single graphic drawing engine, so that all graphic drawing requirements cannot be met, for example, the shape of contour lines and the accuracy of graphic color configuration in the graphic drawing process cannot be ensured, and therefore, a graphic formed by the single graphic drawing engine cannot have higher image quality, and the efficiency and the reliability of graphic drawing are reduced.
Disclosure of Invention
Aiming at the defects existing in the prior art, the invention provides a method and a system for controlling the change of a graph drawing engine, which are used for constructing a plurality of graph drawing engines based on a historical graph drawing log of a graph drawing processing end, providing matched graph drawing engines for different graph drawing requirements in the process of executing a graph drawing task by the graph drawing processing end, configuring a proper storage interval for each graph drawing engine, and ensuring the data storage requirements in the graph drawing process; dividing graphic drawing task data into a plurality of task sub-data, loading the task sub-data into corresponding graphic drawing engines, providing optimal graphic drawing for each task sub-data, improving the quality and efficiency of graphic drawing operation corresponding to each task sub-data, and avoiding the conditions of low drawing efficiency and large drawing error caused by processing all data by a single graphic drawing engine; and the graphic drawing engine is also subjected to changing processing, so that the performance of the graphic drawing engine is improved, and then the graphic drawing layers generated by all the graphic drawing engines are overlapped to obtain a graphic drawing finished product graph, so that the accuracy and the reliability of the graphic drawing operation are improved.
The invention provides a change control method of a graphic drawing engine, which comprises the following steps:
step S1, constructing a plurality of graphic drawing engines based on a historical graphic drawing log of a graphic drawing processing end, defining a plurality of task execution storage intervals at the graphic drawing processing end, and marking each image drawing engine and each task execution storage interval;
s2, analyzing a graph drawing request from a user side to obtain corresponding graph drawing task data; dividing the graphic drawing task data into a plurality of task sub-data based on graphic drawing elements of the graphic drawing task data, and loading the task sub-data into corresponding graphic drawing engines;
step S3, based on the preliminary checking result of the graph drawing engine on the task sub-data, distributing a corresponding task execution storage interval for the graph drawing engine; changing the graphic drawing engine based on the processing state information of the graphic drawing engine on the task sub-data;
step S4, based on the processing result of the task sub-data output by the graph drawing engine, a corresponding graph drawing layer is generated; and then, respectively superposing the graphic drawing layers generated after the task sub-data are processed by the corresponding graphic drawing engines to obtain a graphic drawing finished product graph.
In one embodiment of the disclosure, in the step S1, it includes:
analyzing a historical graph drawing log of a graph drawing processing end to obtain graph drawing tool component information which is correspondingly called by the graph drawing processing end for processing different types of graph drawing tasks in the process of drawing the historical graph;
constructing a plurality of graphic drawing engines based on the graphic drawing tool component information; wherein each graphic rendering engine is formed by loading a plurality of graphic rendering tool components on a graphic rendering frame;
dividing the free storage space of the graphic drawing processing end into a plurality of task execution storage intervals based on the free storage space of the graphic drawing processing end and the storage space which is required by the graphic drawing processing end for processing different graphic drawing tasks in the historical graphic drawing process;
and carrying out the identification of the adaptive graph drawing function on each graph drawing engine and the identification of the storage address of each task execution storage interval.
In one embodiment of the disclosure, in the step S2, it includes:
extracting storage position information of graphic drawing task data initiated by a user side in the user side from a graphic drawing request from the user side, and sampling the graphic drawing task data based on the storage position information to obtain a graphic drawing task data sample; judging whether the graph drawing task data sample comprises abnormal data components or not, if so, not calling the graph drawing task data; if not, the graph drawing task data is called;
Dividing the graphic drawing task data into a plurality of task sub-data based on drawing elements of the fetched graphic drawing task data about graphic outlines, graphic chromaticity distribution and a background portion of the graphic;
and loading the task sub-data to the corresponding graph drawing engine based on the graph drawing engine identification corresponding adaptation graph drawing function and the data type corresponding to the task sub-data.
In one embodiment of the disclosure, in the step S3, it includes:
based on the graph drawing engine, carrying out preliminary examination on the loaded task sub-data, and estimating the total data processing amount in the process of processing the task sub-data by the graph drawing engine; selecting a corresponding task execution storage interval based on the total data processing amount, and constructing a data interaction channel between the graphic drawing engine and the task execution storage interval based on a storage address of the selected task execution storage interval;
and based on the processing progress information of the graphic drawing engine on the task sub-data, updating the graphic drawing tool component of the graphic drawing engine.
In one embodiment of the disclosure, in the step S4, it includes:
Mapping the processing result of the sub-data of the task output by the graphic drawing engine to a preset blank graphic layer to generate a corresponding graphic drawing layer; and then, respectively superposing the graphic drawing layers generated after the task sub-data are processed by the corresponding graphic drawing engines to obtain a graphic drawing finished product graph, and adjusting graphic visual parameters of the graphic drawing finished product graph.
The invention also provides a change control system of the graphic drawing engine, comprising:
the graphic drawing engine construction module is used for constructing a plurality of graphic drawing engines based on the historical graphic drawing logs of the graphic drawing processing end;
the storage interval dividing module is used for dividing a plurality of task execution storage intervals at the graphic drawing processing end;
the identification processing module is used for identifying each image drawing engine and each task execution storage interval;
the graphic drawing task data acquisition module is used for analyzing the graphic drawing request from the user side to obtain corresponding graphic drawing task data;
the graphic drawing task data segmentation and loading module is used for segmenting the graphic drawing task data into a plurality of task sub-data based on graphic drawing elements of the graphic drawing task data and loading the task sub-data into corresponding graphic drawing engines;
The storage interval distribution module is used for distributing corresponding task execution storage intervals for the graph drawing engine based on the preliminary checking result of the graph drawing engine on the task sub-data;
a graphic drawing engine changing module, configured to change the graphic drawing engine based on processing state information of the graphic drawing engine on the task sub-data;
the graphic drawing layer generation module is used for outputting a processing result about the task sub-data based on the graphic drawing engine to generate a corresponding graphic drawing layer;
and the graph drawing finished product graph forming module is used for superposing graph drawing layers generated after all task sub-data are processed by the corresponding graph drawing engines respectively to obtain a graph drawing finished product graph.
In one embodiment of the disclosure, the graphic rendering engine construction module is configured to construct a plurality of graphic rendering engines based on a historical graphic rendering log of a graphic rendering processing end, including:
analyzing a historical graph drawing log of a graph drawing processing end to obtain graph drawing tool component information which is correspondingly called by the graph drawing processing end for processing different types of graph drawing tasks in the process of drawing the historical graph;
Constructing a plurality of graphic drawing engines based on the graphic drawing tool component information; wherein each graphic rendering engine is formed by loading a plurality of graphic rendering tool components on a graphic rendering frame;
the storage interval dividing module is used for dividing a plurality of task execution storage intervals at the graph drawing processing end, and comprises the following steps:
dividing the free storage space of the graphic drawing processing end into a plurality of task execution storage intervals based on the free storage space of the graphic drawing processing end and the storage space which is required by the graphic drawing processing end for processing different graphic drawing tasks in the historical graphic drawing process;
the identification processing module is used for identifying each image drawing engine and each task execution storage interval, and comprises the following steps:
and carrying out the identification of the adaptive graph drawing function on each graph drawing engine and the identification of the storage address of each task execution storage interval.
In an embodiment of the disclosure, the graphics drawing task data obtaining module is configured to analyze a graphics drawing request from a user side to obtain corresponding graphics drawing task data, and includes:
Extracting storage position information of graphic drawing task data initiated by a user side in the user side from a graphic drawing request from the user side, and sampling the graphic drawing task data based on the storage position information to obtain a graphic drawing task data sample; judging whether the graph drawing task data sample comprises abnormal data components or not, if so, not calling the graph drawing task data; if not, the graph drawing task data is called;
the graph drawing task data segmentation and loading module is used for segmenting the graph drawing task data into a plurality of task sub-data based on graph drawing elements of the graph drawing task data, and loading the task sub-data to a corresponding graph drawing engine, and comprises the following steps:
dividing the graphic drawing task data into a plurality of task sub-data based on drawing elements of the fetched graphic drawing task data about graphic outlines, graphic chromaticity distribution and a background portion of the graphic;
and loading the task sub-data to the corresponding graph drawing engine based on the graph drawing engine identification corresponding adaptation graph drawing function and the data type corresponding to the task sub-data.
In one disclosed embodiment of the present application, the storage interval allocation module is configured to allocate a corresponding task execution storage interval to the graphics drawing engine based on a preliminary inspection result of the task sub-data by the graphics drawing engine, including:
based on the graph drawing engine, carrying out preliminary examination on the loaded task sub-data, and estimating the total data processing amount in the process of processing the task sub-data by the graph drawing engine; selecting a corresponding task execution storage interval based on the total data processing amount, and constructing a data interaction channel between the graphic drawing engine and the task execution storage interval based on a storage address of the selected task execution storage interval;
the graphic drawing engine changing module is used for changing the graphic drawing engine based on the processing state information of the graphic drawing engine on the task sub-data, and comprises the following steps:
and based on the processing progress information of the graphic drawing engine on the task sub-data, updating the graphic drawing tool component of the graphic drawing engine.
In one embodiment of the disclosure, the graphics drawing layer generating module is configured to generate a corresponding graphics drawing layer based on a processing result of the graphics drawing engine output with respect to the task sub-data, and includes:
Mapping the processing result of the sub-data of the task output by the graphic drawing engine to a preset blank graphic layer to generate a corresponding graphic drawing layer;
the graphics drawing finished product graphics forming module is used for superposing graphics drawing layers generated after all task sub-data are processed by corresponding graphics drawing engines respectively to obtain a graphics drawing finished product graphics, and comprises the following steps:
and superposing the graphic drawing layers generated after all the task sub-data are processed by the corresponding graphic drawing engines respectively to obtain a graphic drawing finished product graph, and adjusting graphic visual parameters of the graphic drawing finished product graph.
Compared with the prior art, the change control method and the change control system of the graphic drawing engine construct a plurality of graphic drawing engines based on the historical graphic drawing log of the graphic drawing processing end, can provide matched graphic drawing engines for different graphic drawing requirements in the process of executing graphic drawing tasks by the graphic drawing processing end, and also configure a proper storage interval for each graphic drawing engine so as to ensure the data storage requirements in the process of drawing the graphics; dividing graphic drawing task data into a plurality of task sub-data, loading the task sub-data into corresponding graphic drawing engines, providing optimal graphic drawing for each task sub-data, improving the quality and efficiency of graphic drawing operation corresponding to each task sub-data, and avoiding the conditions of low drawing efficiency and large drawing error caused by processing all data by a single graphic drawing engine; and the graphic drawing engine is also subjected to changing processing, so that the performance of the graphic drawing engine is improved, and then the graphic drawing layers generated by all the graphic drawing engines are overlapped to obtain a graphic drawing finished product graph, so that the accuracy and the reliability of the graphic drawing operation are improved.
Additional features and advantages of the invention will be set forth in the description which follows, and in part will be obvious from the description, or may be learned by practice of the invention. The objectives and other advantages of the invention will be realized and attained by the structure particularly pointed out in the written description and claims thereof as well as the appended drawings.
The technical scheme of the invention is further described in detail through the drawings and the embodiments.
Drawings
In order to more clearly illustrate the embodiments of the invention or the technical solutions in the prior art, the drawings that are required in the embodiments or the description of the prior art will be briefly described, it being obvious that the drawings in the following description are only some embodiments of the invention, and that other drawings may be obtained according to these drawings without inventive effort for a person skilled in the art.
FIG. 1 is a flow chart of a method for controlling the change of a graphics rendering engine according to the present invention;
FIG. 2 is a schematic diagram of a change control system of a graphics rendering engine according to the present invention.
Detailed Description
The following description of the embodiments of the present invention will be made clearly and completely with reference to the accompanying drawings, in which it is apparent that the embodiments described are only some embodiments of the present invention, but not all embodiments. All other embodiments, which can be made by those skilled in the art based on the embodiments of the invention without making any inventive effort, are intended to be within the scope of the invention.
Referring to fig. 1, a flow chart of a method for controlling a change of a graphics rendering engine according to an embodiment of the invention is shown. The change control method of the graphic drawing engine comprises the following steps:
step S1, constructing a plurality of graphic drawing engines based on a historical graphic drawing log of a graphic drawing processing end, defining a plurality of task execution storage intervals at the graphic drawing processing end, and marking each image drawing engine and each task execution storage interval;
s2, analyzing a graph drawing request from a user side to obtain corresponding graph drawing task data; dividing the graphic drawing task data into a plurality of task sub-data based on graphic drawing elements of the graphic drawing task data, and loading the task sub-data to a corresponding graphic drawing engine;
step S3, based on the preliminary checking result of the graph drawing engine on the task sub-data, distributing a corresponding task execution storage interval for the graph drawing engine; based on the processing state information of the graphic drawing engine on the task sub-data, changing the graphic drawing engine;
step S4, based on the processing result of the sub-data of the task output by the graphic drawing engine, generating a corresponding graphic drawing layer; and then, respectively superposing the graphic drawing layers generated after the task sub-data are processed by the corresponding graphic drawing engines to obtain a graphic drawing finished product graph.
From the above, the change control method of the graphic drawing engine constructs a plurality of graphic drawing engines based on the historical graphic drawing log of the graphic drawing processing end, can provide matched graphic drawing engines for different graphic drawing requirements in the process of executing graphic drawing tasks by the graphic drawing processing end, and also configures a proper storage interval for each graphic drawing engine to ensure the data storage requirements in the process of drawing the graphics; dividing graphic drawing task data into a plurality of task sub-data, loading the task sub-data into corresponding graphic drawing engines, providing optimal graphic drawing for each task sub-data, improving the quality and efficiency of graphic drawing operation corresponding to each task sub-data, and avoiding the conditions of low drawing efficiency and large drawing error caused by processing all data by a single graphic drawing engine; and the graphic drawing engine is also subjected to changing processing, so that the performance of the graphic drawing engine is improved, and then the graphic drawing layers generated by all the graphic drawing engines are overlapped to obtain a graphic drawing finished product graph, so that the accuracy and the reliability of the graphic drawing operation are improved.
Preferably, in the step S1, based on a history graphics drawing log of a graphics drawing processing end, a plurality of graphics drawing engines are constructed, and a plurality of task execution storage sections are defined at the graphics drawing processing end, and each image drawing engine and each task execution storage section are identified, including:
Analyzing a historical graph drawing log of the graph drawing processing end to obtain graph drawing tool component information which is correspondingly called by the graph drawing processing end for processing different types of graph drawing tasks in the process of drawing the historical graph;
constructing a plurality of graphic drawing engines based on the graphic drawing tool component information; wherein each graphic rendering engine is formed by loading a plurality of graphic rendering tool components on a graphic rendering frame;
dividing the free storage space of the graphic drawing processing end into a plurality of task execution storage intervals based on the free storage space of the graphic drawing processing end and the storage space corresponding to different graphic drawing tasks required by the graphic drawing processing end in the historical graphic drawing process;
and carrying out the identification of the adaptive graph drawing function on each graph drawing engine and the identification of the storage address of each task execution storage interval.
In the technical scheme, the graphics drawing processing end processes different types of graphics drawing tasks in the process of drawing the historical graphics, graphics drawing operations carried out by each type of graphics drawing task in the process of processing are different, for example, some graphics drawing tasks only need to draw graphics outline lines, some graphics drawing tasks only need to coat graphics colors, so that in the process of processing different types of graphics drawing tasks, the graphics drawing processing end can call different graphics drawing tool components to complete graphics drawing operations, and the called graphics drawing tool component information and the graphics drawing operation information completed by the graphics drawing tool component information are in one-to-one correspondence, so that historical graphics drawing logs are generated. And determining a graph drawing tool component which is correspondingly called by each graph drawing operation (such as drawing of graph contour lines or coating of image colors and the like) based on the historical graph drawing log, so as to form a plurality of graph drawing engines, so that each graph drawing engine is specially used for carrying out one graph drawing operation, and loading the called graph drawing tool component on a graph drawing frame (namely a graph drawing software frame) to obtain a corresponding graph drawing engine, thereby ensuring that each graph drawing engine can work independently. In addition, each graphic drawing engine needs a storage interval with a certain size to store data in the process of carrying out corresponding graphic drawing operation, so that the free storage space of the graphic drawing processing end is divided into a plurality of task execution storage intervals according to the free storage space of the graphic drawing processing end and the storage space corresponding to different graphic drawing tasks which are processed by the graphic drawing processing end in the historical graphic drawing process, and the storage intervals with different sizes and standard capacities are provided for the graphic drawing engine in the process of carrying out the graphic drawing operation. And the identification of the adaptive graph drawing function is carried out on each graph drawing engine, and the identification of the storage address is carried out on each task execution storage interval, so that the matching of the data interaction between the graph drawing engine and the task execution storage interval can be conveniently and rapidly carried out.
Preferably, in the step S2, the graphic drawing request from the user terminal is analyzed to obtain corresponding graphic drawing task data; based on the graph drawing element of the graph drawing task data, dividing the graph drawing task data into a plurality of task sub-data, and loading the task sub-data to a corresponding graph drawing engine, wherein the graph drawing engine comprises:
extracting storage position information of graphic drawing task data initiated by a user side in the user side from a graphic drawing request from the user side, and sampling the graphic drawing task data based on the storage position information to obtain a graphic drawing task data sample; judging whether the graph drawing task data sample comprises abnormal data components or not, if so, not calling the graph drawing task data; if not, the graph drawing task data is called;
dividing the graphic drawing task data into a plurality of task sub-data based on drawing elements of the retrieved graphic drawing task data about the graphic outline, the graphic chromaticity distribution and the background portion of the graphic;
and loading the task sub-data to the corresponding graph drawing engine based on the graph drawing engine identification corresponding to the adaptive graph drawing function and the data type corresponding to the task sub-data.
In the technical scheme, when the user side initiates the graphic drawing request, the graphic drawing request is analyzed to obtain the storage position information of graphic drawing task data to be processed by the user side at the user side, then the graphic drawing task data stored by the user side at the corresponding storage position is subjected to sampling processing and data content identification processing, and whether an abnormal data component such as messy code data exists in a graphic drawing task data sample obtained by the sampling processing is judged. And only when the graphic drawing task data does not comprise abnormal data components, the graphic drawing task data is called as the basis data of the graphic drawing operation of the graphic drawing processing end. And dividing the graph drawing task data into a plurality of task sub-data based on drawing elements of the fetched graph drawing task data about graph outlines, graph chromaticity distribution and a graph background part, so that each task sub-data is only aimed at one drawing element content of graph drawing operation, and a matched graph drawing engine is convenient to accurately select subsequently to process the corresponding task sub-data. In addition, the task sub-data is loaded to the corresponding graph drawing engine based on the graph drawing engine identification corresponding to the adaptive graph drawing function and the data type corresponding to the task sub-data, so that the task sub-data can be ensured to be subjected to targeted graph drawing operation.
Preferably, in the step S3, a corresponding task execution storage interval is allocated to the graphics-rendering engine based on the preliminary inspection result of the task sub-data by the graphics-rendering engine; based on the processing state information of the graphics rendering engine on the task sub-data, the changing processing on the graphics rendering engine comprises the following steps:
based on the graph drawing engine, carrying out preliminary examination on the loaded task sub-data, and estimating the total data processing amount in the process of processing the task sub-data by the graph drawing engine; selecting a corresponding task execution storage interval based on the total data processing amount, and constructing a data interaction channel between the graphic drawing engine and the task execution storage interval based on the storage address of the selected task execution storage interval;
and based on the processing progress information of the graphic drawing engine on the task sub-data, updating the graphic drawing tool component of the graphic drawing engine.
In the technical scheme, the data volume correspondingly generated in the process of carrying out the graphic drawing operation after loading different task sub-data by the graphic drawing engine is also different, so that in order to ensure that the graphic drawing engine can be configured with a task execution storage interval with enough capacity to store data, the loaded task sub-data needs to be initially checked, the total data processing amount in the process of processing the task sub-data by the graphic drawing engine is estimated, and therefore, a task execution storage interval with the storage capacity being greater than or equal to the total data processing amount is selected to carry out data interaction with the graphic drawing engine, and one-to-one data interaction between the graphic drawing engine and the task execution storage interval is realized. And determining a processing link corresponding to the processing speed smaller than a preset speed threshold value in the processing process of the task sub-data by the graphic drawing engine based on the processing progress information of the graphic drawing engine on the task sub-data, and updating a graphic drawing tool component for realizing the processing link, thereby improving the processing efficiency of the graphic drawing engine on the task sub-data.
Preferably, in the step S4, a corresponding graphic drawing layer is generated based on the processing result of the graphic drawing engine output with respect to the task sub-data; and then, respectively superposing the graphic drawing layers generated after all the task sub-data are processed by the corresponding graphic drawing engines to obtain a graphic drawing finished product graph, wherein the method comprises the following steps of:
mapping the processing result of the sub-data of the task output by the graphic drawing engine to a preset blank graphic layer to generate a corresponding graphic drawing layer; and then, respectively superposing the graphic drawing layers generated after all the task sub-data are processed by the corresponding graphic drawing engines to obtain a graphic drawing finished product graph, and adjusting graphic visual parameters of the graphic drawing finished product graph.
In the technical scheme, the processing result of the sub-data of the task output by the graph drawing engine is mapped to a preset blank graph layer to generate a corresponding graph drawing layer, so that the consistency of the graph system of each graph drawing layer can be ensured. And then, respectively superposing the graphic drawing layers generated after processing all the task sub-data by the corresponding graphic drawing engines to obtain a graphic drawing finished product graph, and adjusting graphic visual parameters of the graphic drawing finished product graph, such as adjusting visual parameters of resolution, contrast and the like of the graphic drawing finished product graph, so that the visual quality of the graphic drawing finished product graph is effectively improved.
Referring to fig. 2, a schematic diagram of a framework of a modification control system of a graphics rendering engine according to an embodiment of the present invention is shown. The change control system of the graphic drawing engine includes:
the graphic drawing engine construction module is used for constructing a plurality of graphic drawing engines based on the historical graphic drawing logs of the graphic drawing processing end;
the storage interval dividing module is used for dividing a plurality of task execution storage intervals at the graphic drawing processing end;
the identification processing module is used for identifying each image drawing engine and each task execution storage interval;
the graphic drawing task data acquisition module is used for analyzing the graphic drawing request from the user side to obtain corresponding graphic drawing task data;
the graphic drawing task data segmentation and loading module is used for segmenting the graphic drawing task data into a plurality of task sub-data based on graphic drawing elements of the graphic drawing task data and loading the task sub-data into corresponding graphic drawing engines;
the storage interval distribution module is used for distributing corresponding task execution storage intervals for the graph drawing engine based on the preliminary checking result of the graph drawing engine on the task sub-data;
The graphic drawing engine changing module is used for changing the graphic drawing engine based on the processing state information of the graphic drawing engine on the task sub-data;
the graphics drawing layer generation module is used for outputting a processing result related to the task sub-data based on the graphics drawing engine to generate a corresponding graphics drawing layer;
and the graph drawing finished product graph forming module is used for superposing graph drawing layers generated after all task sub-data are processed by the corresponding graph drawing engines respectively to obtain a graph drawing finished product graph.
From the above, the change control system of the graphic drawing engine constructs a plurality of graphic drawing engines based on the historical graphic drawing log of the graphic drawing processing end, can provide matched graphic drawing engines for different graphic drawing requirements in the process of executing graphic drawing tasks by the graphic drawing processing end, and also configures a proper storage interval for each graphic drawing engine to ensure the data storage requirements in the process of drawing the graphics; dividing graphic drawing task data into a plurality of task sub-data, loading the task sub-data into corresponding graphic drawing engines, providing optimal graphic drawing for each task sub-data, improving the quality and efficiency of graphic drawing operation corresponding to each task sub-data, and avoiding the conditions of low drawing efficiency and large drawing error caused by processing all data by a single graphic drawing engine; and the graphic drawing engine is also subjected to changing processing, so that the performance of the graphic drawing engine is improved, and then the graphic drawing layers generated by all the graphic drawing engines are overlapped to obtain a graphic drawing finished product graph, so that the accuracy and the reliability of the graphic drawing operation are improved.
Preferably, the graphic drawing engine construction module is configured to construct a plurality of graphic drawing engines based on a historical graphic drawing log of a graphic drawing processing end, including:
analyzing a historical graph drawing log of the graph drawing processing end to obtain graph drawing tool component information which is correspondingly called by the graph drawing processing end for processing different types of graph drawing tasks in the process of drawing the historical graph;
constructing a plurality of graphic drawing engines based on the graphic drawing tool component information; wherein each graphic rendering engine is formed by loading a plurality of graphic rendering tool components on a graphic rendering frame;
the storage interval dividing module is used for dividing a plurality of task execution storage intervals at the graph drawing processing end, and comprises the following steps:
dividing the free storage space of the graphic drawing processing end into a plurality of task execution storage intervals based on the free storage space of the graphic drawing processing end and the storage space corresponding to different graphic drawing tasks required by the graphic drawing processing end in the historical graphic drawing process;
the identification processing module is used for identifying each image drawing engine and each task execution storage interval, and comprises the following steps:
And carrying out the identification of the adaptive graph drawing function on each graph drawing engine and the identification of the storage address of each task execution storage interval.
In the technical scheme, the graphics drawing processing end processes different types of graphics drawing tasks in the process of drawing the historical graphics, graphics drawing operations carried out by each type of graphics drawing task in the process of processing are different, for example, some graphics drawing tasks only need to draw graphics outline lines, some graphics drawing tasks only need to coat graphics colors, so that in the process of processing different types of graphics drawing tasks, the graphics drawing processing end can call different graphics drawing tool components to complete graphics drawing operations, and the called graphics drawing tool component information and the graphics drawing operation information completed by the graphics drawing tool component information are in one-to-one correspondence, so that historical graphics drawing logs are generated. And determining a graph drawing tool component which is correspondingly called by each graph drawing operation (such as drawing of graph contour lines or coating of image colors and the like) based on the historical graph drawing log, so as to form a plurality of graph drawing engines, so that each graph drawing engine is specially used for carrying out one graph drawing operation, and loading the called graph drawing tool component on a graph drawing frame (namely a graph drawing software frame) to obtain a corresponding graph drawing engine, thereby ensuring that each graph drawing engine can work independently. In addition, each graphic drawing engine needs a storage interval with a certain size to store data in the process of carrying out corresponding graphic drawing operation, so that the free storage space of the graphic drawing processing end is divided into a plurality of task execution storage intervals according to the free storage space of the graphic drawing processing end and the storage space corresponding to different graphic drawing tasks which are processed by the graphic drawing processing end in the historical graphic drawing process, and the storage intervals with different sizes and standard capacities are provided for the graphic drawing engine in the process of carrying out the graphic drawing operation. And the identification of the adaptive graph drawing function is carried out on each graph drawing engine, and the identification of the storage address is carried out on each task execution storage interval, so that the matching of the data interaction between the graph drawing engine and the task execution storage interval can be conveniently and rapidly carried out.
Preferably, the graphic drawing task data obtaining module is configured to analyze a graphic drawing request from a user side to obtain corresponding graphic drawing task data, and includes:
extracting storage position information of graphic drawing task data initiated by a user side in the user side from a graphic drawing request from the user side, and sampling the graphic drawing task data based on the storage position information to obtain a graphic drawing task data sample; judging whether the graph drawing task data sample comprises abnormal data components or not, if so, not calling the graph drawing task data; if not, the graph drawing task data is called;
the graph drawing task data segmentation and loading module is used for segmenting the graph drawing task data into a plurality of task sub-data based on graph drawing elements of the graph drawing task data, and loading the task sub-data to a corresponding graph drawing engine, and comprises the following steps:
dividing the graphic drawing task data into a plurality of task sub-data based on drawing elements of the retrieved graphic drawing task data about the graphic outline, the graphic chromaticity distribution and the background portion of the graphic;
And loading the task sub-data to the corresponding graph drawing engine based on the graph drawing engine identification corresponding to the adaptive graph drawing function and the data type corresponding to the task sub-data.
In the technical scheme, when the user side initiates the graphic drawing request, the graphic drawing request is analyzed to obtain the storage position information of graphic drawing task data to be processed by the user side at the user side, then the graphic drawing task data stored by the user side at the corresponding storage position is subjected to sampling processing and data content identification processing, and whether an abnormal data component such as messy code data exists in a graphic drawing task data sample obtained by the sampling processing is judged. And only when the graphic drawing task data does not comprise abnormal data components, the graphic drawing task data is called as the basis data of the graphic drawing operation of the graphic drawing processing end. And dividing the graph drawing task data into a plurality of task sub-data based on drawing elements of the fetched graph drawing task data about graph outlines, graph chromaticity distribution and a graph background part, so that each task sub-data is only aimed at one drawing element content of graph drawing operation, and a matched graph drawing engine is convenient to accurately select subsequently to process the corresponding task sub-data. In addition, the task sub-data is loaded to the corresponding graph drawing engine based on the graph drawing engine identification corresponding to the adaptive graph drawing function and the data type corresponding to the task sub-data, so that the task sub-data can be ensured to be subjected to targeted graph drawing operation.
Preferably, the storage interval allocation module is configured to allocate a corresponding task execution storage interval to the graphics drawing engine based on a preliminary inspection result of the task sub-data by the graphics drawing engine, including:
based on the graph drawing engine, carrying out preliminary examination on the loaded task sub-data, and estimating the total data processing amount in the process of processing the task sub-data by the graph drawing engine; selecting a corresponding task execution storage interval based on the total data processing amount, and constructing a data interaction channel between the graphic drawing engine and the task execution storage interval based on the storage address of the selected task execution storage interval;
the graphic drawing engine changing module is used for changing the graphic drawing engine based on the processing state information of the graphic drawing engine on the task sub-data, and comprises the following steps:
and based on the processing progress information of the graphic drawing engine on the task sub-data, updating the graphic drawing tool component of the graphic drawing engine.
In the technical scheme, the data volume correspondingly generated in the process of carrying out the graphic drawing operation after loading different task sub-data by the graphic drawing engine is also different, so that in order to ensure that the graphic drawing engine can be configured with a task execution storage interval with enough capacity to store data, the loaded task sub-data needs to be initially checked, the total data processing amount in the process of processing the task sub-data by the graphic drawing engine is estimated, and therefore, a task execution storage interval with the storage capacity being greater than or equal to the total data processing amount is selected to carry out data interaction with the graphic drawing engine, and one-to-one data interaction between the graphic drawing engine and the task execution storage interval is realized. And determining a processing link corresponding to the processing speed smaller than a preset speed threshold value in the processing process of the task sub-data by the graphic drawing engine based on the processing progress information of the graphic drawing engine on the task sub-data, and updating a graphic drawing tool component for realizing the processing link, thereby improving the processing efficiency of the graphic drawing engine on the task sub-data.
Preferably, the graphics drawing layer generating module is configured to generate a corresponding graphics drawing layer based on a processing result of the graphics drawing engine output with respect to the task sub-data, and includes:
mapping the processing result of the sub-data of the task output by the graphic drawing engine to a preset blank graphic layer to generate a corresponding graphic drawing layer;
the graphics drawing finished product graphics forming module is used for superposing graphics drawing layers generated after all task sub-data are processed by corresponding graphics drawing engines respectively to obtain a graphics drawing finished product graphics, and comprises the following steps:
and superposing the graphic drawing layers generated after all the task sub-data are processed by the corresponding graphic drawing engines respectively to obtain a graphic drawing finished product graph, and adjusting graphic visual parameters of the graphic drawing finished product graph.
In the technical scheme, the processing result of the sub-data of the task output by the graph drawing engine is mapped to a preset blank graph layer to generate a corresponding graph drawing layer, so that the consistency of the graph system of each graph drawing layer can be ensured. And then, respectively superposing the graphic drawing layers generated after processing all the task sub-data by the corresponding graphic drawing engines to obtain a graphic drawing finished product graph, and adjusting graphic visual parameters of the graphic drawing finished product graph, such as adjusting visual parameters of resolution, contrast and the like of the graphic drawing finished product graph, so that the visual quality of the graphic drawing finished product graph is effectively improved.
As can be seen from the foregoing embodiments, the method and system for controlling the change of the graphics rendering engine construct a plurality of graphics rendering engines based on the historical graphics rendering log of the graphics rendering processing end, which can provide matched graphics rendering engines for different graphics rendering requirements in the process of executing graphics rendering tasks by the graphics rendering processing end, and also configure a suitable storage interval for each graphics rendering engine, so as to ensure the data storage requirements in the graphics rendering process; dividing graphic drawing task data into a plurality of task sub-data, loading the task sub-data into corresponding graphic drawing engines, providing optimal graphic drawing for each task sub-data, improving the quality and efficiency of graphic drawing operation corresponding to each task sub-data, and avoiding the conditions of low drawing efficiency and large drawing error caused by processing all data by a single graphic drawing engine; and the graphic drawing engine is also subjected to changing processing, so that the performance of the graphic drawing engine is improved, and then the graphic drawing layers generated by all the graphic drawing engines are overlapped to obtain a graphic drawing finished product graph, so that the accuracy and the reliability of the graphic drawing operation are improved.
It will be apparent to those skilled in the art that various modifications and variations can be made to the present invention without departing from the spirit or scope of the invention. Thus, it is intended that the present invention also include such modifications and alterations insofar as they come within the scope of the appended claims or the equivalents thereof.
Claims (10)
1. The method for controlling the change of the graphic drawing engine is characterized by comprising the following steps:
step S1, constructing a plurality of graphic drawing engines based on a historical graphic drawing log of a graphic drawing processing end, defining a plurality of task execution storage intervals at the graphic drawing processing end, and marking each image drawing engine and each task execution storage interval;
s2, analyzing a graph drawing request from a user side to obtain corresponding graph drawing task data; dividing the graphic drawing task data into a plurality of task sub-data based on graphic drawing elements of the graphic drawing task data, and loading the task sub-data into corresponding graphic drawing engines;
step S3, based on the preliminary checking result of the graph drawing engine on the task sub-data, distributing a corresponding task execution storage interval for the graph drawing engine; changing the graphic drawing engine based on the processing state information of the graphic drawing engine on the task sub-data; the method comprises the steps that based on the processing progress information of the graphic drawing engine on the task sub-data, the graphic drawing engine is subjected to graphic drawing tool component updating processing;
Step S4, based on the processing result of the task sub-data output by the graph drawing engine, a corresponding graph drawing layer is generated; and then, respectively superposing the graphic drawing layers generated after the task sub-data are processed by the corresponding graphic drawing engines to obtain a graphic drawing finished product graph.
2. The change control method of a graphic rendering engine according to claim 1, wherein:
in the step S1, it includes:
analyzing a historical graph drawing log of a graph drawing processing end to obtain graph drawing tool component information which is correspondingly called by the graph drawing processing end for processing different types of graph drawing tasks in the process of drawing the historical graph;
constructing a plurality of graphic drawing engines based on the graphic drawing tool component information; wherein each graphic rendering engine is formed by loading a plurality of graphic rendering tool components on a graphic rendering frame;
dividing the free storage space of the graphic drawing processing end into a plurality of task execution storage intervals based on the free storage space of the graphic drawing processing end and the storage space which is required by the graphic drawing processing end for processing different graphic drawing tasks in the historical graphic drawing process;
And carrying out the identification of the adaptive graph drawing function on each graph drawing engine and the identification of the storage address of each task execution storage interval.
3. The change control method of a graphic rendering engine according to claim 1, wherein:
in the step S2, it includes:
extracting storage position information of graphic drawing task data initiated by a user side in the user side from a graphic drawing request from the user side, and sampling the graphic drawing task data based on the storage position information to obtain a graphic drawing task data sample; judging whether the graph drawing task data sample comprises abnormal data components or not, if so, not calling the graph drawing task data; if not, the graph drawing task data is called;
dividing the graphic drawing task data into a plurality of task sub-data based on drawing elements of the fetched graphic drawing task data about graphic outlines, graphic chromaticity distribution and a background portion of the graphic;
and loading the task sub-data to the corresponding graph drawing engine based on the graph drawing engine identification corresponding adaptation graph drawing function and the data type corresponding to the task sub-data.
4. The change control method of a graphic rendering engine according to claim 1, wherein:
in the step S3, it includes:
based on the graph drawing engine, carrying out preliminary examination on the loaded task sub-data, and estimating the total data processing amount in the process of processing the task sub-data by the graph drawing engine; and selecting a corresponding task execution storage interval based on the total data processing amount, and constructing a data interaction channel between the graphic drawing engine and the task execution storage interval based on the storage address of the selected task execution storage interval.
5. The change control method of a graphic rendering engine according to claim 1, wherein:
in the step S4, it includes:
mapping the processing result of the sub-data of the task output by the graphic drawing engine to a preset blank graphic layer to generate a corresponding graphic drawing layer; and then, respectively superposing the graphic drawing layers generated after the task sub-data are processed by the corresponding graphic drawing engines to obtain a graphic drawing finished product graph, and adjusting graphic visual parameters of the graphic drawing finished product graph.
6. A change control system for a graphics rendering engine, comprising:
The graphic drawing engine construction module is used for constructing a plurality of graphic drawing engines based on the historical graphic drawing logs of the graphic drawing processing end;
the storage interval dividing module is used for dividing a plurality of task execution storage intervals at the graphic drawing processing end;
the identification processing module is used for identifying each image drawing engine and each task execution storage interval;
the graphic drawing task data acquisition module is used for analyzing the graphic drawing request from the user side to obtain corresponding graphic drawing task data;
the graphic drawing task data segmentation and loading module is used for segmenting the graphic drawing task data into a plurality of task sub-data based on graphic drawing elements of the graphic drawing task data and loading the task sub-data into corresponding graphic drawing engines;
the storage interval distribution module is used for distributing corresponding task execution storage intervals for the graph drawing engine based on the preliminary checking result of the graph drawing engine on the task sub-data;
a graphic drawing engine changing module, configured to change the graphic drawing engine based on processing state information of the graphic drawing engine on the task sub-data; the method comprises the steps that based on the processing progress information of the graphic drawing engine on the task sub-data, the graphic drawing engine is subjected to graphic drawing tool component updating processing;
The graphic drawing layer generation module is used for outputting a processing result about the task sub-data based on the graphic drawing engine to generate a corresponding graphic drawing layer;
and the graph drawing finished product graph forming module is used for superposing graph drawing layers generated after all task sub-data are processed by the corresponding graph drawing engines respectively to obtain a graph drawing finished product graph.
7. The change control system of a graphics-rendering engine of claim 6, wherein:
the graphic drawing engine construction module is used for constructing a plurality of graphic drawing engines based on the historical graphic drawing log of the graphic drawing processing end, and comprises the following steps:
analyzing a historical graph drawing log of a graph drawing processing end to obtain graph drawing tool component information which is correspondingly called by the graph drawing processing end for processing different types of graph drawing tasks in the process of drawing the historical graph;
constructing a plurality of graphic drawing engines based on the graphic drawing tool component information; wherein each graphic rendering engine is formed by loading a plurality of graphic rendering tool components on a graphic rendering frame;
the storage interval dividing module is used for dividing a plurality of task execution storage intervals at the graph drawing processing end, and comprises the following steps:
Dividing the free storage space of the graphic drawing processing end into a plurality of task execution storage intervals based on the free storage space of the graphic drawing processing end and the storage space which is required by the graphic drawing processing end for processing different graphic drawing tasks in the historical graphic drawing process;
the identification processing module is used for identifying each image drawing engine and each task execution storage interval, and comprises the following steps:
and carrying out the identification of the adaptive graph drawing function on each graph drawing engine and the identification of the storage address of each task execution storage interval.
8. The change control system of a graphics-rendering engine of claim 6, wherein:
the graphic drawing task data acquisition module is used for analyzing the graphic drawing request from the user side to obtain corresponding graphic drawing task data, and comprises the following steps:
extracting storage position information of graphic drawing task data initiated by a user side in the user side from a graphic drawing request from the user side, and sampling the graphic drawing task data based on the storage position information to obtain a graphic drawing task data sample; judging whether the graph drawing task data sample comprises abnormal data components or not, if so, not calling the graph drawing task data; if not, the graph drawing task data is called;
The graph drawing task data segmentation and loading module is used for segmenting the graph drawing task data into a plurality of task sub-data based on graph drawing elements of the graph drawing task data, and loading the task sub-data to a corresponding graph drawing engine, and comprises the following steps:
dividing the graphic drawing task data into a plurality of task sub-data based on drawing elements of the fetched graphic drawing task data about graphic outlines, graphic chromaticity distribution and a background portion of the graphic;
and loading the task sub-data to the corresponding graph drawing engine based on the graph drawing engine identification corresponding adaptation graph drawing function and the data type corresponding to the task sub-data.
9. The change control system of a graphics-rendering engine of claim 6, wherein:
the storage interval distribution module is configured to distribute a corresponding task execution storage interval to the graphics drawing engine based on a preliminary inspection result of the graphics drawing engine on the task sub-data, and includes:
based on the graph drawing engine, carrying out preliminary examination on the loaded task sub-data, and estimating the total data processing amount in the process of processing the task sub-data by the graph drawing engine; and selecting a corresponding task execution storage interval based on the total data processing amount, and constructing a data interaction channel between the graphic drawing engine and the task execution storage interval based on the storage address of the selected task execution storage interval.
10. The change control system of a graphics-rendering engine of claim 6, wherein:
the graphics drawing layer generating module is configured to generate a corresponding graphics drawing layer based on a processing result of the graphics drawing engine output with respect to the task sub-data, and includes:
mapping the processing result of the sub-data of the task output by the graphic drawing engine to a preset blank graphic layer to generate a corresponding graphic drawing layer;
the graphics drawing finished product graphics forming module is used for superposing graphics drawing layers generated after all task sub-data are processed by corresponding graphics drawing engines respectively to obtain a graphics drawing finished product graphics, and comprises the following steps:
and superposing the graphic drawing layers generated after all the task sub-data are processed by the corresponding graphic drawing engines respectively to obtain a graphic drawing finished product graph, and adjusting graphic visual parameters of the graphic drawing finished product graph.
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