WO2017041383A1 - Scalable vector graphic image reorganization method and reorganization apparatus - Google Patents

Abstract

A scalable vector graphic image reorganization method and reorganization apparatus. A particular embodiment of the method comprises: acquiring a scalable vector graphic image (101); decomposing the scalable vector graphic image into image units, and acquiring position information about the image units (102); loading the image units to a target page, and determining positions of the image units on the target page according to the position information (103); and combining the image units in the positions, and generating a reorganized scalable vector graphic image (104). The embodiment improves the processing efficiency of the scalable vector graphic image in a webpage making process.

Description

Recombination method and recombination device of scalable vector graphic image

Cross-reference to related applications

The present application claims priority to Chinese Patent Application No. 201510564649.0, filed on Sep. 7, 2015, the entire content of

Technical field

The present invention relates to the field of network technologies, and in particular, to the field of network page image processing technologies, and in particular, to a method and a device for recombining a scalable vector graphics image.

Background technique

Scalable Vector Graphics (SVG) is a graphic format used to describe two-dimensional vector graphics. It can be arbitrarily scaled without distortion, so it is obtained in mobile terminals (such as mobile phones, tablets, etc.). widely used. With the wide application of HTML5 (Hyper Text Markup Language; 5 for the fifth edition), the application of scalable vector graphics in mobile terminals has been further strengthened.

The mobile terminal has the advantages of being portable and full-featured, and has a wider application range in production and life. Since the screen of the mobile terminal is determined by each merchant according to market needs, its display attributes (such as size and resolution) are different according to the judgment of the merchant on the market. For a web page production company, the more mobile terminals that a web page can be applied, the more the coverage of the user can be improved. Since the screen of the mobile terminal has various display attributes, it is required for the webpage making company to adjust the webpage for each mobile terminal's screen. Most of these adjustments are repeated manual processing, which is cumbersome and cannot guarantee accuracy. Especially for the adjustment of the picture. In a screen that displays a good webpage, there may be problems such as image display errors, image distortion, and even garbled characters on another screen. The content of the webpage changes every moment, and the workload of webpage production is large. Web page production is not efficient.

Summary of the invention

The present application provides a recombination method and a recombination device for a scalable vector graphic image to solve the problem of low processing efficiency of the scalable vector graphic image in the web page production process.

In one aspect, the present application provides a method for recombining a scalable vector graphics image, the method comprising:

Obtain a scalable vector graphic image;

Decomposing the scalable vector graphic image into image units, and acquiring position information of the image unit;

Loading the image unit to a destination page, and determining a location of the image unit on the destination page according to the location information;

Combining the image elements at the locations produces a scalable vector graphics recombination image.

In a second aspect, the present application provides a reconfigurable apparatus for a scalable vector graphics image, the apparatus comprising:

An image obtaining unit, configured to acquire a scalable vector graphic image;

a location information acquiring unit, configured to decompose the scalable vector graphics image into image units, and acquire location information of the image unit;

a location determining unit, configured to load the image unit to a destination page, and determine, according to the location information, a location of the image unit on the destination page;

An image recombining unit configured to merge the image units at the locations to generate a scalable vector graphics recombination image.

The recombining method and recombining device of the scalable vector graphic image provided by the present application decomposes the scalable vector graphic image into image units, and records the position information of the image unit, thereby ensuring the mutual positional relationship between the image units; The unit is loaded to the destination page, and the position of the image unit on the destination page is determined according to the position information, which improves the loading efficiency and positioning accuracy of the image unit on the destination page; finally, the processed image unit is reorganized into a scalable vector graphics recombination image, so that The Scalable Vector Graphics Recombined Image preserves the image characteristics of the Scalable Vector Graphics image.

DRAWINGS

Other features, objects, and advantages of the present application will become more apparent from the detailed description of the accompanying drawings.

1 is a flowchart of a method for recombining a scalable vector graphics image according to Embodiment 1 of the present application;

2 is a structural diagram of a composition of a scalable vector graphics image reorganization apparatus according to Embodiment 2 of the present application;

3 is a schematic diagram of an image unit of the embodiment 3 of the present application for extracting an image unit from a humanoid image;

4 is an image unit obtained by the third embodiment of the present application;

FIG. 5 is a schematic diagram of editing an image unit loaded into a webpage according to Embodiment 3 of the present application.

detailed description

The present application will be further described in detail below with reference to the accompanying drawings and embodiments. It is understood that the specific embodiments described herein are merely illustrative of the invention, rather than the invention. It is also to be noted that, for the convenience of description, only the parts related to the related invention are shown in the drawings.

It should be noted that the embodiments in the present application and the features in the embodiments may be combined with each other without conflict. The present application will be described in detail below with reference to the accompanying drawings.

Example 1

The present embodiment provides a method for reorganizing a scalable vector graphics image. Referring to FIG. 1, a flow chart 100 is shown in an embodiment of a method for recombining a scalable vector graphics image. The reorganization method 100 in this embodiment includes the following steps. :

Step 101: Acquire a scalable vector graphic image;

In practice, the Scalable Vector Graphics image is usually stored in the image server. When processing a Scalable Vector Graphics image, the Scalable Vector Graphics image needs to be downloaded locally from the image server.

Step 102: Decompose the scalable vector graphic image into image units, and acquire position information of the image unit;

To process the scalable vector graphics image, you need to first scale the vector graphics. The image is decomposed into set image units, and each image unit is processed separately. At the same time, in order to ensure the consistency of the processed image unit on certain features, it is necessary to record the position information of the image unit on the scalable vector graphic image.

Step 103: Loading the image unit to the destination page, and determining the position of the image unit on the destination page according to the location information;

After the image unit is loaded to the destination page (such as a web page or other image processed page), in order to maintain the original image characteristics of the scalable vector graphic image, it is necessary to ensure the positional relationship between the image units. Generally, as long as the position of an image unit on the destination page can be determined, the position of the other image unit on the destination page can be determined based on the location information.

Step 104: Combine the image units at the location to generate a scalable vector graphics recombination image.

The above step 103 determines the position of the image unit on the destination page, and then the image unit can be separately rendered or animated, or the image unit can be simply enlarged, reduced, displaced or modified. Wait for the operation. Finally, a scalable vector graphics recombination image is generated.

The method of the embodiment decomposes the scalable vector graphic image into image units, and records the position information of the image unit, thereby ensuring the mutual positional relationship between the image units; then loading the image unit to the destination page, and determining the image unit according to the position information. In the position of the destination page, the loading efficiency and positioning accuracy of the image unit on the destination page are improved; finally, the processed image unit is reorganized into a scalable vector graphics recombination image, so that the scalable vector graphics recombined image retains the scalable vector graphics. The image characteristics of the image.

In order to make the scalable vector graphic image have the characteristics of the scalable vector graphic image after being decomposed into image units, it is necessary to record the position information of the image unit after obtaining the image unit. Specifically, the position information of the image unit is obtained in step 102. include:

Step 1021: Set a reference point on the scalable vector graphic image.

To get the position information, first set the reference point and get the position information of the image unit based on the reference point. The reference point can be set on a blank area of the scalable vector graphic image, or other position that does not affect the measurement of the image unit.

Step 1022: Measure an absolute distance and an absolute angle of a specified point on the image unit to the reference point;

The image unit is usually not a point, but a graphic. Therefore, after setting the reference point, set the respective specified points (ie, reference points) on the image unit, by measuring the absolute distance between each specified point and the reference point. The distance and absolute angle enable precise positioning of the positional relationship between the image unit and the reference point.

Step 1023: Obtain absolute position information of the image unit on the scalable vector graphic image according to the absolute distance and the absolute angle.

By constructing a distance vector from the absolute distance and the absolute angle, the absolute position information of the image unit on the scalable vector graphic image is obtained.

Once the absolute position information is obtained, the image unit can be loaded to the destination page. At this point, you also need to set a new reference point on the destination page so that the image unit can be loaded to the corresponding location. If the relative positional relationship between the image units can be obtained, the step of setting a new reference point on the destination page can be omitted, and each image unit can be prevented from being loaded to the destination page one by one according to the new reference point, which can be greatly Simplify the process of loading image units. To this end, it can also include:

Step 1024: Measure relative distances and relative angles between image units according to absolute position information;

The relative distance and relative angle are obtained based on the absolute position information, and the overall structure of the scalable vector graphic image can be guaranteed.

Step 1025: Obtain relative position information between the image units according to the relative distance and the relative angle.

After obtaining the relative position information between the image units, it can be ensured that the image unit still maintains the image characteristics of the scalable vector graphic image after being recombined under the current size. However, in the case where adjustment of the size or distance of the image unit or the like is required, the image characteristics of the scalable vector graphic image cannot be guaranteed only by the relative position information. To this end, it is also necessary to obtain the size information of the current image unit, and establish an association relationship between the relative position information and the size information, which specifically includes:

Step 1026: Measure size information of the image unit;

The size information here may be the size information of the smallest rectangle occupied by the image unit.

Step 1027: Obtain proportional information of the image unit according to the size information and the relative position information.

The relationship information is obtained by associating the size information with the relative position information. The proportional information characterizes the size of each image unit under the premise of the current relative position information; Or, what is the relative position information at the size of the current image unit.

After obtaining the above information, in order to facilitate the image unit being called by other programs or operated alone, each image unit needs to be separately saved as a separate file. It therefore also includes the step of saving the image unit as a scalable vector graphics sub-image.

The above completes the step of decomposing the scalable vector graphics image into image units and obtaining position information, which belongs to the "disassembly" process; then the process of "reorganizing" the image unit on the destination page is required. Specifically, step 103 includes:

Step 1031: Select an image unit to be set at a specified position of the destination page;

If the destination page is a web page, the specified location is the location where the image unit needs to be placed; if the destination page is the operation page of the image editing software, the specified location is the image manipulation area of the operation page.

Step 1032: Determine an initial position for recombining the image unit according to the specified position and relative position information;

After an image unit is set at a specified position, according to the correspondence relationship between the image unit and the relative position information, the position of the other image unit on the destination page, that is, the initial position, can be determined. The initial position is set according to the positional relationship between the original image units, and various operations (such as animation effects, etc.) may be performed on the image unit on the destination page, which may change the position of the image unit. Therefore, what is obtained here is the initial position.

Step 1033: The remaining image units are correspondingly set in the initial position.

After that, the image unit can be adjusted and reorganized as needed. Step 104 specifically includes:

Step 1041: Set a frame for adjusting the size of the image unit for the image unit;

The bezel may be a rectangle formed on the periphery of the image unit, and a drag point for changing the overall size of the image unit may be disposed at the four corners of the rectangle. It is also possible to set a one-sided adjustment point for changing the horizontal or vertical scale of the image unit at the midpoint of each side of the rectangle.

Step 1042: Adjust the frame according to the adjustment instruction, and reorganize all the adjusted image units into a scalable vector graphic recombination image.

The adjustment command here may be an instruction to adjust the position, size, and the like of the image unit, or may be an instruction to perform an animation, rendering, or the like on the image unit. Specifically, adjusting the frame according to the adjustment instruction includes: sizing the single image unit according to the adjustment instruction The adjustment is made, and/or the overall structure of all image units is adjusted according to the scale information.

Before reorganizing the image unit, it is further determined whether all image units are included, and may further include: detecting, according to the position information, whether the scalable vector graphics recombination image includes all image units, and if so, generating a scalable The vector graphics reorganize the image, otherwise, an alert message is sent.

Example 2

The present embodiment and the embodiment 1 belong to the same inventive concept. The embodiment provides a reconfigurable device for a scalable vector graphic image. Referring to FIG. 2, a composition and a structure diagram of a recombining device 200 for a scalable vector graphic image is shown. The reorganization device 200 of an embodiment comprises:

An image obtaining unit 201, configured to acquire a scalable vector graphic image;

In practice, the Scalable Vector Graphics image is usually stored in the image server. When processing a Scalable Vector Graphics image, the Scalable Vector Graphics image needs to be downloaded locally from the image server.

a location information obtaining unit 202, configured to decompose the scalable vector graphics image into image units, and acquire location information of the image unit;

To perform corresponding processing on the scalable vector graphics image, the scalable vector graphics image is first decomposed into set image units, and then each image unit is processed separately. At the same time, in order to ensure the consistency of the processed image unit on certain features, it is necessary to record the position information of the image unit on the scalable vector graphic image.

a location determining unit 203, configured to load an image unit to a destination page, and determine, according to the location information, a location of the image unit on the destination page;

After the image unit is loaded to the destination page (such as a web page or other image processed page), in order to maintain the original image characteristics of the scalable vector graphic image, it is necessary to ensure the positional relationship between the image units. Generally, as long as the position of an image unit on the destination page can be determined, the position of the other image unit on the destination page can be determined based on the location information.

The image recombining unit 204 is configured to merge the image units in position to generate a scalable vector graphics recombination image.

The position determining unit 203 determines the position of the image unit on the destination page, and then can perform an operation of rendering or animating the image unit separately at this position, or The image unit performs simple operations such as zooming in, zooming out, shifting, or modifying colors. Finally, a scalable vector graphics recombination image is generated.

In order to make the Scalable Vector Graphics image have the characteristics of the Scalable Vector Graphics Image after being decomposed into the image unit, the location information of the image unit needs to be recorded after the image unit is obtained. Specifically, the location information acquiring unit 202 includes:

a reference point setting subunit 2021, configured to set a reference point on the scalable vector graphic image;

To get the position information, first set the reference point and get the position information of the image unit based on the reference point. The reference point can be set on a blank area of the scalable vector graphic image, or other position that does not affect the measurement of the image unit.

a first information acquisition subunit 2022, configured to measure an absolute distance and an absolute angle of a specified point on the image unit to the reference point;

The image unit is usually not a point, but a graphic. Therefore, after setting the reference point, set the respective specified points (ie, reference points) on the image unit, by measuring the absolute distance between each specified point and the reference point. The distance and absolute angle enable precise positioning of the positional relationship between the image unit and the reference point.

The absolute position information acquisition sub-unit 2023 is configured to obtain absolute position information of the image unit on the scalable vector graphic image according to the absolute distance and the absolute angle.

By constructing a distance vector from the absolute distance and the absolute angle, the absolute position information of the image unit on the scalable vector graphic image is obtained.

Once the absolute position information is obtained, the image unit can be loaded to the destination page. At this point, you also need to set a new reference point on the destination page so that the image unit can be loaded to the corresponding location. If the relative positional relationship between the image units can be obtained, the step of setting a new reference point on the destination page can be omitted, and each image unit can be prevented from being loaded one by one according to the new reference point, which can greatly simplify the loading of the image. The process of the unit. Therefore, the location information obtaining unit 202 may further include:

a second information acquisition subunit 2024, configured to measure a relative distance and a relative angle between the image units according to the absolute position information;

The relative distance and relative angle are obtained based on the absolute position information, and the overall structure of the scalable vector graphic image can be guaranteed.

a relative position information acquisition subunit 2025 for obtaining the relative distance and the relative angle Relative position information between image units.

After obtaining the relative position information between the image units, it can be ensured that the image unit still maintains the image characteristics of the scalable vector graphic image after being recombined under the current size. However, in the case where it is necessary to adjust the size or distance of the image unit, only the relative position information cannot guarantee the image characteristics of the scalable vector graphic image. To this end, the size information of the current image unit is also needed, and the relationship between the relative position information and the size information is established. Therefore, the location information obtaining unit 202 may further include:

The size information acquisition subunit 2026 is configured to measure size information of the image unit; the size information herein may be size information of a minimum rectangle occupied by the image unit.

The ratio information acquisition sub-unit 2027 is configured to obtain the scale information of the image unit according to the size information and the relative position information.

The relationship information is obtained by associating the size information with the relative position information. The scale information characterizes the size of each image unit under the premise of the current relative position information; or, what the relative position information should be under the size of the current image unit.

After obtaining the above information, in order to facilitate the image unit being called by other programs or operated alone, each image unit needs to be separately saved as a separate file. Therefore, the location information obtaining unit 202 may further include:

The storage subunit 2028 is configured to save the image unit as a scalable vector graphics sub-image.

The above completes the step of decomposing the scalable vector graphics image into image units and obtaining position information, which belongs to the "disassembly" process; then the process of "reorganizing" the image unit on the destination page is required. Specifically, the location determining unit 203 includes:

The first setting subunit 2031 is configured to select an image unit to be set at a designated position of the destination page;

If the destination page is a web page, the specified location is the location where the image unit needs to be placed; if the destination page is the operation page of the image editing software, the specified location is the image manipulation area of the operation page.

An initial position acquisition subunit 2032, configured to determine an initial position for recombining the image unit according to the specified position and relative position information;

After an image unit is set at a specified position, according to the correspondence between the image unit and the relative position information, the position of the other image unit on the destination page can be determined, that is, at the beginning Starting position. The initial position is set according to the positional relationship between the original image units, and various operations (such as animation effects, etc.) may be performed on the image unit on the destination page, which may change the position of the image unit. Therefore, what is obtained here is the initial position.

The second setting subunit 2033 is configured to set the remaining image units correspondingly at the initial position.

Thereafter, the image unit can be adjusted and reorganized as needed, and the image recombining unit 204 includes:

a frame generation subunit 2041, configured to set a frame for adjusting an image unit size for the image unit;

The bezel may be a rectangle formed on the periphery of the image unit, and a drag point for changing the size of the image unit may be set at the four corners of the rectangle. It is also possible to set a one-sided adjustment point for changing the horizontal and vertical ratio of the image unit at the midpoint of each side of the rectangle.

The scalable vector graphics recombination sub-unit 2042 is configured to adjust the frame according to the adjustment instruction, and re-form all the adjusted image units into the scalable vector graphics recombination image.

The adjustment command here may be an instruction to adjust the position and size of the image unit, or may be an instruction to perform an animation, rendering, or the like on the image unit. The scalable vector graphics recombination sub-unit 2042 further includes an adjustment module for adjusting the size of the individual image units according to the adjustment instruction, and/or adjusting the overall structure of all the image units according to the scale information.

Before reorganizing the image unit, it is further determined whether all the image units are included. Therefore, the scalable vector graphics recombination sub-unit 2042 further includes: an execution module, configured to detect, according to the location information, whether the scalable vector graphics recombination image includes All image units, if so, generate a scalable vector graphics recombination image, otherwise, an alarm message is issued.

Example 3

The application is described in detail below through an actual scenario.

The scalable vector graphic image of this embodiment selects a humanoid image, as shown in FIG. 3, and the humanoid image is processed as an example to describe the application in detail. The specific operation steps include:

Step 301: Acquire a human figure image;

Step 302: Decompose the human figure image into image units, and acquire position information of the image unit;

The designated portion of the humanoid image is drawn with a region dividing line (dotted line in Fig. 3) containing the region of the setting portion. The setting portion here will be extracted as an image unit. In FIG. 3, the area dividing line is used to select the leg figure of the human figure image, firstly, the area containing the leg figure (ie, the designated part) is drawn by the area dividing line, and then the leg figure (ie, the setting part) is extracted therefrom. As shown in Figure 4. Similarly, each part of the humanoid image is extracted to obtain all the image units. It should be noted that after the image unit is obtained as described above, the human figure image is also retained to set operations such as reference points.

Then, the position information of the image unit needs to be obtained. Specifically, a reference point is set on the blank area of the human figure, and the specific position of the reference point is preferably selected to be set at a position capable of accurately measuring the distance and angle of the image unit without overlapping confusion. . Then, for each image unit, also set its own specified point, and use the reference point as the coordinate origin to measure the absolute distance and absolute angle of the specified point to the reference point, so that the distance of each specified point to the reference point is obtained. Vector, that is, absolute position information relative to the reference point. Absolute position information is established by relying on the reference point, and setting different reference points, the resulting distance vector of each image unit is also different, which makes the position information of the image unit relatively confusing. To this end, the relative position information between the image units can be obtained on the basis of the absolute position information, specifically: calculating the relative distance and the relative angle between the image units according to the absolute position information, and obtaining the image unit according to the relative distance and the relative angle. The relative positional information between the two thus establishes the positional relationship between the image units, so that the image unit establishes a holistic structure.

Image units are likely to be edited when loaded into other pages, such as animating or properly deforming the leg graphics in Figure 4, which affects the positional relationship between the leg graphics and other image elements. In order to ensure that the original image features of the humanoid image (such as the positional relationship and the proportional relationship between the various parts) can be retained after the image unit is processed, it is necessary to obtain the size information of the image unit corresponding to the relative position information, that is, in the current relative The size of the image unit is based on the location information. The size information here is the size of the smallest rectangle occupied by the image unit. Based on the relative position information and the size information, the scale information of the feature capable of completely retaining the humanoid image is obtained. Finally, the image units are each saved as separate SVG images.

Step 303: Loading the image unit to the destination page, and determining the location of the image unit on the destination page according to the location information;

The destination page can be a web page or a page of other image processing programs. The web page is an example, and the image unit is recolored and the animation effect is added before the image unit is loaded into the web page. First, determining the position of the loaded image unit, loading one image unit to the position; then, determining the corresponding position of the other image unit on the webpage according to the relative position information, that is, the initial position; finally loading the other image unit into the webpage The initial position is shown in Figure 5.

Step 304: Combine the image units in position to generate a humanoid image recombination image.

The animation effect operation will cause the image unit to be displaced or rotated. For the convenience of operation, a frame can be generated for each image unit, and the displacement or rotation of the image unit can be realized by moving or rotating the frame, and then the scale information is used for all the images. The unit is zoomed in or out.

After the above operation, the image unit can be reorganized. When there are many image files that are difficult to count or distinguish, it is difficult to ensure the integrity of the humanoid image. Since the relative position information contained in the position information marks all the image units, the integrity of the image unit can be performed by the position information. Detection. When the detection result is that all the image units are present, all the image units are reorganized into a humanoid recombination image; when not all the image units are included, an alarm is sent through the sound or information dialog box.

The flowchart and block diagrams in the Figures illustrate the architecture, functionality and operation of possible implementations of systems, methods and computer program products in accordance with various embodiments of the present application. In this regard, each block of the flowchart or block diagrams can represent a module, a program segment, or a portion of code that includes one or more logic for implementing the specified. Functional executable instructions. It should also be noted that in some alternative implementations, the functions noted in the blocks may also occur in a different order than that illustrated in the drawings. For example, two successively represented blocks may in fact be executed substantially in parallel, and they may sometimes be executed in the reverse order, depending upon the functionality involved. It is also noted that each block of the block diagrams and/or flowcharts, and combinations of blocks in the block diagrams and/or flowcharts, can be implemented in a dedicated hardware-based system that performs the specified function or operation. Or it can be implemented by a combination of dedicated hardware and computer instructions.

The units involved in the embodiments of the present application may be implemented by software or by hardware. The described unit may also be disposed in the processor, for example, as a processor including an image acquisition unit and location information. A unit, a position determining unit, and an image recombining unit. The names of these units do not in any way constitute a limitation on the unit itself.

In another aspect, the present application further provides a computer readable storage medium, which may be a computer readable storage medium included in the apparatus described in the foregoing embodiment, or may exist separately, not A computer readable storage medium that is assembled into a terminal. The computer readable storage medium stores one or more programs that are used by one or more processors to perform a method of recombining a scalable vector graphics image as described herein.

The above description is only a preferred embodiment of the present application and a description of the principles of the applied technology. It should be understood by those skilled in the art that the scope of the invention referred to in the present application is not limited to the specific combination of the above technical features, and should also be covered by the above technical features without departing from the inventive concept. Other technical solutions formed by any combination of their equivalent features. For example, the above features are combined with the technical features disclosed in the present application, but are not limited to the technical features having similar functions.

Claims (20)

A method for reorganizing a scalable vector graphic image, the method comprising: Obtain a scalable vector graphic image; Decomposing the scalable vector graphic image into image units, and acquiring position information of the image unit; Loading the image unit to a destination page, and determining a location of the image unit on the destination page according to the location information; Combining the image elements at the locations produces a scalable vector graphics recombination image. The method according to claim 1, wherein the acquiring the location information of the image unit comprises: Setting a reference point on the scalable vector graphic image; Measuring an absolute distance and an absolute angle of a specified point on the image unit to the reference point; Absolute position information of the image unit on the scalable vector graphic image is obtained according to the absolute distance and the absolute angle. The method according to claim 2, wherein the obtaining the location information of the image unit further comprises: Measuring a relative distance and a relative angle between the image units according to the absolute position information; Relative position information between the image units is obtained based on the relative distance and the relative angle. The method according to claim 3, wherein the obtaining the location information of the image unit further comprises: Measuring size information of the image unit; The scale information of the image unit is obtained according to the size information and the relative position information. The method according to claim 1, wherein after the acquiring the location information of the image unit, the method further comprises: saving the image unit as a scalable vector graphics sub-image. The method according to claim 3, wherein the determining, according to the location information, the location of the image unit on the destination page comprises: Selecting one of the image units to be set at a specified position of the destination page; Determining an initial position for recombining the image unit according to the specified position and relative position information; The remaining image units are correspondingly disposed at the initial position. The method according to claim 4, wherein said merging said image unit to generate a scalable vector graphic recombination image comprises: Providing a frame for adjusting the size of the image unit for the image unit; Adjusting the frame according to the adjustment instruction, and reorganizing all the adjusted image units into a scalable vector graphic recombination image. The method according to claim 7, wherein the adjusting the frame according to the adjustment instruction comprises: The size of the individual image units is adjusted according to an adjustment command, and/or the overall structure of all of the image units is adjusted according to the scale information. The method according to claim 7, wherein the recombining all of the adjusted image units into a scalable vector graphics recombination image comprises: And detecting, according to the location information, whether the scalable vector graphics recombination image includes all of the image units, and if so, generating a scalable vector graphics recombination image; otherwise, issuing an alarm message. A recombining device for scalable vector graphic images, characterized in that the device include: An image obtaining unit, configured to acquire a scalable vector graphic image; a location information acquiring unit, configured to decompose the scalable vector graphics image into image units, and acquire location information of the image unit; a location determining unit, configured to load the image unit to a destination page, and determine, according to the location information, a location of the image unit on the destination page; An image recombining unit configured to merge the image units at the locations to generate a scalable vector graphics recombination image. The device according to claim 10, wherein the location information acquisition unit comprises: a reference point setting subunit, configured to set a reference point on the scalable vector graphic image; a first information acquisition subunit, configured to measure an absolute distance and an absolute angle of a specified point on the image unit to the reference point; An absolute position information acquisition subunit, configured to obtain absolute position information of the image unit on the scalable vector graphic image according to the absolute distance and the absolute angle. The device according to claim 11, wherein the location information acquiring unit further comprises: a second information acquiring subunit, configured to measure a relative distance and a relative angle between the image units according to the absolute position information; And a relative position information acquiring subunit, configured to obtain relative position information between the image units according to the relative distance and the relative angle. The device according to claim 12, wherein the location information acquiring unit further comprises: a size information obtaining subunit for measuring size information of the image unit; The ratio information acquisition subunit is configured to obtain the scale information of the image unit according to the size information and the relative position information. The device according to claim 10, wherein the location information acquiring unit further comprises: a storage subunit for saving the image unit as a scalable vector graphics sub-image. The device according to claim 12, wherein the location determining unit comprises: a first setting subunit, configured to select one of the image units to be disposed at a designated position of the destination page; An initial position acquisition subunit, configured to determine an initial position for recombining the image unit according to the specified position and relative position information; And a second setting subunit, configured to correspondingly set the remaining image units to the initial position. The apparatus according to claim 13, wherein said image recombining unit comprises: a frame generation subunit, configured to set a frame for adjusting the size of the image unit for the image unit; The scalable vector graphics recombining subunit is configured to adjust the frame according to the adjustment instruction, and reorganize all the adjusted image units into a scalable vector graphics recombination image. The apparatus according to claim 16, wherein said scalable vector graphics recombination subunit comprises: And an adjustment module, configured to adjust a size of the single image unit according to the adjustment instruction, and/or adjust an overall structure of all the image units according to the proportional information. The apparatus according to claim 16, wherein the scalable vector graphics recombination subunit further comprises: An execution module, configured to detect, according to the location information, whether the scalable vector graphics recombination image includes all of the image units, and if yes, generate a scalable vector graphics recombination Image, otherwise, an alert message is sent. A device that includes: Processor; and Memory, The memory stores computer readable instructions executable by the processor, the processor executing the method of any one of claims 1 to 9 when the computer readable instructions are executed. A non-volatile computer storage medium storing computer readable instructions executable by a processor, the processor executing claim 1 to when the computer readable instructions are executed by a processor The method of any of 9.

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