TW201317934A - Operation method for enhancing operational speed and image processing equipment using same - Google Patents

Abstract

An operation method for enhancing operational speed of an image processing equipment is disclosed and comprising steps as following: (a) providing a control module and a plurality of image processing modules in order to process image data, wherein the control module is connected to the image processing modules, (b) the control module controls the image processing modules to switch operation modes, and (c) the image processing modules processes image data based on the operation mode, respectively, such enhancing the operational speed of the image processing equipment and achieving the advantages of enhancing the operational speed without changing the design of systems and the specs of components. Moreover, the expansion of the number of the image processing modules shortens the computing time of the individual image processing modules and reduces the waste of time cost.

Description

Work method capable of improving work speed and its applicable image processing equipment

The present invention relates to a working method, and more particularly to a working method capable of improving the working speed and an image processing apparatus applicable thereto.

In recent years, with the evolution of the electronics industry and the rapid development of industrial technology, technology is changing with each passing day, and various electronic devices and devices are constantly being asked to increase the processing speed or operation speed as the user demands. However, in order to cope with the increase in processing speed or operation speed, it is often necessary to redesign the entire electronic device and equipment system, and even the internal components must be completely replaced with higher specifications to meet the requirements of the new system, so that the development cost and time course Increase.

For example, image processing equipment has become an indispensable product in enterprises or homes. Among them, multi-function machines have the advantages of high cost performance, simple replacement of consumables, diversified functions and easy to use, so they are widely used in enterprises or families. Adopted. Please refer to FIG. 1A and FIG. 1B , which are schematic diagrams showing a flow chart of a method for scanning an image of a conventional image processing device and a flow chart of a method for printing an image of a conventional image processing device. As shown in FIG. 1A and FIG. 1B, when the image processing device is to perform an image scanning operation, the scanning is started in step S101 to enable the microprocessor (Micro-processing unit (MPU) of the image processing device to start the scanning process. The image scanning operation is started as shown in step S102. Then, the image data obtained after the scanning is subjected to image calculation, analysis and conversion shown in step S103, and after completion, the image data is displayed in step S104. The image compression operation is further stored as a file in step S105; then, it is determined whether there is a subsequent image of the next page to be processed, that is, step S106 is performed, and if it is determined that there is still a subsequent image of the next page to be processed, Returning to step S102, the image scanning operation is started. On the other hand, if it is judged that there is no subsequent image of the next page to be processed, the scanning process is ended as shown in step S107.

Similarly, when the conventional image processing apparatus wants to perform the printing operation, the printing is started in step S111 to enable the microprocessor of the image processing apparatus to start the printing process, and the file is opened and ready to be listed as shown in step S112. Then, the image data obtained by opening the file is subjected to image calculation, analysis and conversion shown in step S113, and after completion, the image data is subjected to the image decompression operation shown in step S114, and then step S115 is performed. The output is printed and printed; then, it is determined whether there is a subsequent image of the next page to be processed, that is, step S116 is performed, and if it is determined that there is still a subsequent file of the next page to be processed, the process returns to step S112 to open the file and prepare to proceed. Image printing action. On the other hand, if it is judged that there is no subsequent file of the next page to be processed, the printing process is ended as shown in step S117.

It can be seen that the conventional image processing device is required to perform image scanning or printing operations, and must wait for the image compression to be completed and stored as a file or image after the decompression is completed and printed, and then the scanning or printing operation of the subsequent data can be performed. However, since image processing and image compression and decompression consume a large amount of computing time of the microprocessor, the specification and processing speed of the microprocessor become the biggest bottleneck of the image processing equipment.

However, as the needs of users continue to increase, the scanning and printing speed of image processing equipment must be increased to meet user expectations. Therefore, in order to achieve higher speed processing and operation requirements, the development of new products must change the specifications of system planning and meta-components. From design, R&D, procurement to production, the cost and time of re-development are increased.

Therefore, how to develop an operation method capable of improving the above-mentioned conventional technology and avoiding the change of system planning and component specifications due to redevelopment, thereby reducing the waste of money and time, and the applicable image processing equipment It is an urgent problem to be solved.

The main purpose of the present invention is to provide a working method capable of improving the working speed and an image processing apparatus thereof, and to solve the problem that the conventional image processing apparatus must change the system planning and the specifications of the meta-components when upgrading the working speed, thereby increasing the development cost and time. And so on.

Another object of the present invention is to provide a working method capable of improving the working speed and an image processing device thereof, which can realize image processing by setting various modular image processing modules, thereby achieving no need to change system planning and component specifications. And directly improve the speed of the work.

Another object of the present invention is to provide an operation method capable of improving the operation speed and an image processing device thereof, and by expanding the number of image processing modules, the operation time of the image processing module can be shortened, and the operation speed and time can be reduced. The cost of waste.

In order to achieve the above object, a preferred embodiment of the present invention provides a method for improving the speed of operation, which is applicable to an image processing apparatus, and includes at least the steps of: (a) providing a control module and a plurality of image processing modules. The plurality of image processing modules are configured to process an image data, and the control module is coupled to the plurality of image processing modules; (b) the control module controls one of the plurality of image processing modules The operation mode; and (c) the plurality of image processing modules respectively process the portion of the image data according to the operation mode to enhance the operation speed of the image processing device.

In order to achieve the above object, another preferred embodiment of the present invention provides a working method for improving the working speed, which is applicable to an image processing apparatus, and includes at least the steps of: (a) providing a control module and a first image processing. The first image processing module and the second image processing module are configured to process an image data, and the control module is coupled to the first image processing module and the second image processing module The second image processing module is connected; (b) the control module controls an operation mode of the first image processing module and the second image processing module; (c) the first image processing module is operated according to the operation The mode begins to perform image processing; (d) the first image processing module obtains the image data; (e) the first image processing module determines whether the second image processing module is required to assist the processing portion of the image data; f) the second image processing module acquires part of the image data; (g) the second image processing module performs image processing; (h) the second image processing module notifies the first image processing module portion Image resource (i) the second image processing module determines whether the processed image data is transmitted back to the first image processing module; (j) the second image processing module transmits through a data transmission interface The processed image data is sent back to the first image processing module; (k) the first image processing module performs image processing; (1) the first image processing module determines whether there is still a pending image data or a subsequent image data; and (m) image processing is completed; wherein, when the result of the step (e) is YES, the step (f) is performed to the step (i), and when the step (e) is judged to be no When the step (k) is performed to the step (1), when the result of the step (i) is YES, the step (j) is performed, and when the result of the step (i) is negative, the step is performed ( m), when the judgment result of the step (1) is YES, the step (d) to the step (e) are re-executed, and when the judgment result of the step (1) is NO, the step (m) is executed.

In order to achieve the above objective, another preferred embodiment of the present invention provides an image processing apparatus, comprising: at least a plurality of image processing modules configured to process an image data; and a control module associated with the plurality of The image processing module is connected to control an operation mode of the plurality of image processing modules; wherein the plurality of image processing modules respectively process part of the image data according to the operation mode, and the image processing device is upgraded The speed of the work.

Some exemplary embodiments embodying the features and advantages of the present invention are described in detail in the following description. It should be understood that the present invention is capable of various modifications in the various aspects of the present invention, and the description and drawings are intended to be illustrative and not limiting.

Please refer to FIG. 2 and FIG. 3 , which are respectively a flowchart of a working method for improving the working speed of the preferred embodiment of the present invention, and an element block diagram of the image processing apparatus of the preferred embodiment of the present invention. As shown in FIG. 2 and FIG. 3, the working method for improving the working speed of the present invention is applicable to the image processing apparatus 2, and at least includes the steps of: providing the control module 21 and the plurality of images as shown in step S201 of FIG. The processing module 22, wherein the plurality of image processing modules 22 each include a control unit 221, a storage unit 222, and a data transmission interface 223. The control unit 221 can be, for example but not limited to, a microprocessor (MPU), and the storage unit 222 can be Random access memory (RAM) and/or read-only memory (ROM), etc., and the data transmission interface 223 can be a universal serial bus (USB), high sequence Serial Advanced Technology Attachment (SATA), Peripheral Component Interconnect Express (PCI-E), Firewire or IEEE 1394, and ThunderboltTM, but Not limited to this, and a plurality of image processing modules 22 are configured to process image data, and the control module 21 is connected to a plurality of image processing modules 22; secondly, As shown in S202, the control module 21 controls the operation modes of the plurality of image processing modules 22, and the operation mode may be, for example, but not limited to, page segmentation, block division or band division, etc. Finally, step S203 is further performed. As shown, the plurality of image processing modules 22 respectively process the divided partial image data according to the operation mode. For example, the plurality of image processing modules 22 are respectively responsible for processing the odd and even pages, or respectively processing the same page. In the upper and lower halves, etc., the operating speed of the image processing apparatus 2 is increased, and the image processing is performed by setting various modular image processing modules 22, so that the system planning and elements of the image processing apparatus 2 need not be changed. The efficiency of the work speed is directly improved by the component specifications.

In some embodiments, the image processing device 2 of the present invention includes an image capturing module 23, a storage module 24, a printing module 25, and an input and output module 26. The image capturing module 23 is connected to the control module 21 and the plurality of image processing modules 22, and includes a photosensitive element 231, such as a charge-coupled device (CCD) or a contact image sensor (Contact). Image Sensor, CIS, etc., but not limited thereto, is used to capture image data for a plurality of image processing modules 22 to perform image processing. The storage module 24 is connected to the control module 21 and the plurality of image processing modules 22, and may be, for example but not limited to, a solid-state disk (SSD), a hard disk (Hard-Disk, HDD), and a fast Flash memory, random access memory (RAM), read only memory (ROM), etc., for storing image data for reading by the control unit 21 and the plurality of image processing modules 22, and plural The image processing module 22 reads the image data and performs image processing according to the operation mode. The printing module 25 is connected to the control unit 21 and the plurality of image processing modules 22 for printing and outputting the image data after the image processing module 22 has finished image processing.

In addition, the input and output module 26 is connected to the control module 21, and may include a human interface 261, a sensing unit 262, a data transmission unit 263, and the like, but is not limited thereto. The human interface 261 is operable by the user to control the image processing device 2 of the present invention, and the operation mode of the image processing module 22 can be selected through the human interface 261, such as but not limited to page segmentation and block The image processing or the like is performed separately or in a strip shape, and the operation modes of the plurality of image processing modules are controlled by the control module 21. Therefore, in order to increase the operation speed of the image processing device 2 for image processing, the number of image processing modules 22 can be expanded and the corresponding operation mode can be selected, thereby shortening the operation time of each image processing module 22 and increasing the operation speed. Reduce the cost of time and waste. Of course, in other embodiments, the operation mode may be automatically selected by the control module 21 or fixedly built in the control module 21, but not limited thereto. The sensing unit 262 is configured to sense whether there is image data to be processed, and to return the sensing result to the control unit 21, and the data transmission unit 263 is configured to transmit the image data, and the transmission method may be the image processing module 22 The image data that has been processed and stored in the storage module 24 is transmitted to the external device 3, or the image data to be processed is transmitted from the external device 3 to the control module 21 and the image processing module 22, but not limited thereto. .

According to the concept of the present invention, the storage module 24 can also be used to store image data processed by the image processing module 22. For example, the control module 21 controls the operation modes of the plurality of image processing modules 22, so that the plurality of image processing modules respectively process the image data captured by the image capturing module 23 according to the operation mode. The processed image data is stored in a specific format image file and stored in the storage module 24, but not limited thereto.

Referring to FIG. 4 and FIG. 2 and FIG. 3, FIG. 4 is a flow chart of processing a plurality of image data according to an operation mode of a plurality of image processing modules of the image processing apparatus of the preferred embodiment of the present invention. As shown in FIG. 2, FIG. 3 and FIG. 4, the steps of processing the partial images by the plurality of image processing modules of the image processing apparatus according to the operation mode (S203) are shown in FIG. 4, at least Steps: As shown in step S301, the image processing module 22 starts the image processing program according to the operation mode specified by the control module 21, and then the image processing module 22 obtains the image processing module 22 through the control module 21, as shown in step S302. The image data can be captured from the image capturing module 23, input from the input and output module 26, or read from the storage module 24, but is not limited thereto. Next, as shown in step S303, it is determined whether the image data requires other image processing modules 22 to assist in processing part of the image data.

When the result of the determination in step S303 is YES, as shown in step S304, the other image processing module 22 acquires part of the image data, including but not limited to the image capturing module 23, and the input and output modules. The image processing of step S305 is performed after the processing is completed, and after the processing is completed, the original image processing module 22 is notified to the original image processing module 22 that the image data has been processed. The method is completed, for example, by transmitting an interrupt signal to the original image processing module 22, but not limited thereto. Then, the process proceeds to step S307, that is, whether the processed image data is returned to the original image processing module 22. When the determination result is YES, step S308 is executed, and the processed image data is transmitted back to the original image processing module 22 through the data transmission interface 223; and if the determination result is no, the image processing program is completed, that is, step S309.

If the result of the determination in step S303 is NO, the image processing in step S310 is performed, and after the processing is completed, if it is determined in step S311 whether there is still image data to be processed or the connected image data, the judgment basis can be transmitted through the input and output modes. The sensing unit 262 of the group 26 performs sensing, and may be directly controlled by the control module 21 or the human machine interface 261 of the input and output module 26, but is not limited thereto. If the determination result is no, step S309 is executed, that is, the image processing program is completed; if the determination result is yes, then returning to step S302 to re-acquire the image data, and performing the image processing program according to the above steps S302-S311, the method and the flow thereof The same as the foregoing, and will not be described again here.

Please refer to FIG. 5A and FIG. 5B and cooperate with FIG. 3 and FIG. 4 , wherein FIG. 5A and FIG. 5B are flowcharts of image processing steps for scanning the image processing apparatus of the present invention, and the image processing apparatus of the present invention is arranged. Flow chart of the image processing steps of printing. As shown in FIG. 3, FIG. 4, FIG. 5A, and FIG. 5B, the image processing apparatus 2 of the present invention, when performing scanning, the image processing steps shown in steps S305 and S310 may include: Perform image calculation, analysis, and conversion; and after performing calculation, analysis, and conversion, perform image compression as shown in step S402; and store the compressed image as an image file, which may be stored in, for example, but not limited to, an image. The storage unit 222 of the storage module 22 or the storage module 24 of the image processing device 2 is as shown in step S403.

In some embodiments, when the image device 2 of the present invention performs printing, the image processing steps shown in steps S305 and S310 may include: performing operation, analysis, and conversion of the image as shown in step S404; After the analysis and conversion, the image decompression operation is performed as shown in step S405; and the decompressed image is output and printed, for example, by the printing module 25, but not limited thereto. That is, as shown in step S406.

Please refer to FIG. 6 and FIG. 7 , which are respectively a flowchart of a working method for improving the working speed of another embodiment of the present invention, and an element block diagram of an image processing apparatus according to another embodiment of the present invention. As shown in FIG. 6, the working method for improving the working speed of the present invention is applicable to the image processing apparatus 4, and at least includes the steps of: providing the control module 41 and the first image processing module 42a as shown in step S501 of FIG. And the second image processing module 42b, wherein the first image processing module 42a and the second image processing module 42b each include a control unit 421, a storage unit 422, and a data transmission interface 423, which may be, for example but not limited to, The microprocessor, the storage unit 422 can be a random access memory and/or a read-only memory, and the data transmission interface 423 can be a universal serial bus, a sequence high-tech configuration, a fast peripheral interconnection standard transmission interface, and a hot line transmission. The interface and the Thunder transmission interface and the like are not limited thereto, and the first image processing module 42a and the second image processing module 42b are configured to process image data, and the control module 41 is coupled to the first image processing module. 42a is connected to the second image processing module 42b. Secondly, as shown in step S502, the control module 41 controls the operation modes of the first image processing module 42a and the second image processing module 42b. The operation mode may be, for example, but not limited to, page segmentation, block division, or band division. Then, as shown in step S503, the first image processing module 42a and the second image processing module 42b are controlled according to the control. The image processing program is started in the operation mode of the module 41. Then, as shown in step S504, the first image processing module 42a obtains image data through the control module 41. The image data can be captured from the image capturing module 43. And input from the input and output module 46 or read from the storage module 44, etc., but not limited thereto; and, as shown in step S505, determine whether the second image processing module 42b is required to assist the processing portion. video material.

When the result of the determination in step S505 is YES, the second image processing module 42b obtains part of the image data, including but not limited to the image capture module 43 and the input input and output modes. The group 46 is read from the storage module 44 or received from the first image processing module 42a, and the image processing in step S507 is performed. After the processing is completed, the image of the portion of the first image processing module 42a is notified in step S508. The data is processed, for example, the second image processing module 42b transmits an interrupt signal to the first image processing module 42a, but is not limited thereto. Then, the process proceeds to step S509, that is, whether the processed image data is returned to the first image processing module 42a. When the determination result is YES, step S510 is executed, and the processed image data is transmitted back to the first image processing module 42a through the data transmission interface 423. If the determination result is no, the image processing program is completed, that is, step S511.

If the result of the determination in step S505 is NO, the first image processing module 42a directly performs the image processing in step S512; and after the processing is completed, as shown in step S513, it is determined whether there is still image data to be processed or the connected image data. The basis for the determination can be sensed by the sensing unit 462 of the input and output module 46, or directly by the human interface 461 of the control module 41 or the input and output module 46, but not limit. If the determination result is no, step S511 is executed, that is, the image processing program is completed; if the determination result is yes, then returning to step S504 to re-acquire the image data, and performing the image processing program according to steps S504 to S513, the method and the flow thereof The same as the foregoing, and will not be described again here.

It can be seen that the first image processing module 42a and the second image processing module 42b of the present invention respectively process part of the image data according to the operation mode specified by the control module 41. For example, the first image processing module 42a is responsible for processing the odd pages, and the second image processing module 42b is responsible for processing the even pages; or the first image processing module 42a performs image processing on the upper half of the page. The second image processing module 42b performs image processing and the like on the lower half of the page to increase the working speed of the image processing apparatus 4. Of course, in some embodiments, the operation mode may be automatically selected by the control module 41 or fixedly built in the control module 41, but not limited thereto.

In summary, the present invention provides an operation method for improving the operation speed and an image processing apparatus thereof, which are configured by separately configuring various image processing modules to perform image processing, and by expanding the number of image processing modules, It not only has the advantage of directly increasing the speed of the operation without changing the system planning and component specifications, but also can shorten the operation time of the image processing module, improve the operation speed and reduce the waste of time and cost.

The present invention has been described in detail by the above-described embodiments, and may be modified by those skilled in the art, without departing from the scope of the appended claims.

2, 4. . . Image processing equipment

21, 41. . . Control module

twenty two. . . Image processing module

221, 421. . . control unit

222, 422. . . Storage unit

223, 423. . . Data transmission interface

23, 43. . . Image capture module

231, 431. . . Photosensitive element

24, 44. . . Storage module

25, 45. . . Print module

26, 46. . . Input and output module

261, 461. . . Human machine interface

262, 462. . . Sensing unit

263, 463. . . Data transmission unit

3, 5. . . External device

42a. . . First image processing module

42b. . . Second image processing module

S101~S107. . . Conventional image processing device scanning image operation method flow steps

S111~S117. . . Conventional image processing device printing image processing method flow steps

S201-S203. . . Work method flow steps that can increase the speed of the work

S301~S311. . . The process steps of the image processing module separately processing part of the image data according to the operation mode

S401~S403. . . Image processing process steps for image processing equipment to scan

S404~S406. . . Image processing equipment for image processing process steps

S501~S513. . . Work method flow steps that can increase the speed of the work

Figure 1A is a flow chart of a method for scanning an image by a conventional image processing apparatus.

Figure 1B is a flow chart of a method of printing an image by a conventional image processing apparatus.

Figure 2 is a flow chart showing the operation method for improving the working speed of the preferred embodiment of the present invention.

Figure 3 is a block diagram of the components of the image processing apparatus of the preferred embodiment of the present invention.

FIG. 4 is a flow chart of processing a plurality of image data by a plurality of image processing modules of the image processing apparatus according to the preferred embodiment of the present invention according to an operation mode.

Figure 5A is a flow chart of the image processing steps for scanning the image processing apparatus of the present invention.

Figure 5B is a flow chart of the image processing steps for printing the image processing apparatus of the present invention.

Figure 6 is a flow chart of a working method for improving the working speed of another embodiment of the present invention.

Figure 7 is a block diagram of components of an image processing apparatus according to another embodiment of the present invention.

S201~S203. . . Work method flow steps that can increase the speed of the work

Claims (13)

A working method for improving the working speed, which is applicable to an image processing device, and includes at least the steps:
(a) providing a control module and a plurality of image processing modules, wherein the plurality of image processing modules are configured to process an image data, and the control module is coupled to the plurality of image processing modules;
(b) the control module controls an operation mode of the plurality of image processing modules; and (c) the plurality of image processing modules respectively process the portion of the image data according to the operation mode, and enhance the image processing device Work speed. The method for improving the working speed according to the first aspect of the patent application, wherein each of the plurality of image processing modules each has a control unit, and the control unit is a microprocessor. The working method for improving the working speed as described in the first aspect of the patent application, wherein the operating mode is to divide the image by page division, block division or strip. The method for improving the working speed according to the first aspect of the patent application, wherein the image data is taken from an image capturing module of the image processing device, and input and output mode input from one of the image processing devices. The group is read from one of the image processing devices or read from an external device. The working method for improving the working speed as described in the first aspect of the patent application, wherein the step (c) further comprises the following steps:
(c1) the first image processing module of the plurality of image processing modules starts image processing according to the operation mode;
(c2) the first image processing module acquires the image data;
(c3) the first image processing module determines whether a second image processing module is required to assist the processing portion of the image data;
(c4) the second image processing module obtains part of the image data;
(c5) the second image processing module performs image processing;
(c6) the second image processing module notifies that the image data of the first image processing module portion has been processed;
(c7) the second image processing module determines whether the processed image data is returned to the first image processing module;
(c8) the second image processing module transmits the processed image data back to the first image processing module through a data transmission interface;
(c9) the first image processing module performs image processing;
(c10) the first image processing module determines whether there is still a pending image data or a continuous image data; and (c11) the image processing is completed;
Wherein, when the result of the step (c3) is YES, the step (c4) is performed to the step (c7), and when the result of the step (c3) is negative, the step (c9) is performed to the step (c10). When the judgment result of the step (c7) is YES, the step (c8) is performed, and when the judgment result of the step (c7) is NO, the step (c11) is executed, and when the judgment (c10) is judged to be At this time, the step (c2) is re-executed to the step (c3), and when the result of the step (c10) is NO, the step (c11) is executed. The working method for improving the working speed as described in claim 5, wherein the step (c5) further comprises the following steps:
(c51) the second image processing module performs image calculation, analysis, and conversion on the image data;
(c52) the second image processing module compresses the image data after the image calculation, analysis and conversion; and (c53) the second image processing module stores the compressed image data as a file. The working method for improving the working speed as described in claim 5, wherein the step (c5) further comprises the following steps:
(c51) the second image processing module performs image calculation, analysis, and conversion on the image data;
(c52) the second image processing module decompresses the image data after the image is calculated, analyzed, and converted; and (c53) the second image processing module outputs and compresses the decompressed image data. The working method for improving the working speed as described in claim 5, wherein the step (c9) further comprises the following steps:
(c91) the first image processing module performs image calculation, analysis, and conversion on the image data;
(c92) the first image processing module compresses the image data after the image operation, analysis, and conversion;
(c93) The first image processing module stores the compressed image data as a file. The working method for improving the working speed as described in claim 5, wherein the step (c9) further comprises the following steps:
(c91) the first image processing module performs image calculation, analysis, and conversion on the image data;
(c92) the first image processing module decompresses the image data after the image operation, analysis, and conversion;
(c93) The first image processing module outputs and compresses the decompressed image data. The method for improving the speed of the operation as described in claim 5, wherein the step (c6) is implemented by transmitting an interrupt signal to the first image processing module through the second image processing module. The working method for improving the working speed as described in claim 1, wherein the image processing device is a scanner, a printer or a multifunction printer. A working method for improving the working speed, which is applicable to an image processing device, and includes at least the steps:
(a) providing a control module, a first image processing module, and a second image processing module, wherein the first image processing module and the second image processing module are configured to process an image data, and the The control module is connected to the first image processing module and the second image processing module;
(b) the control module controls an operation mode of the first image processing module and the second image processing module;
(c) the first image processing module starts image processing according to the operation mode;
(d) the first image processing module acquires the image data;
(e) the first image processing module determines whether the second image processing module is required to assist the processing portion of the image data;
(f) the second image processing module obtains part of the image data;
(g) the second image processing module performs image processing;
(h) the second image processing module notifies that the image data of the first image processing module portion has been processed;
(i) the second image processing module determines whether the processed image data is returned to the first image processing module;
(j) the second image processing module transmits the processed image data back to the first image processing module through a data transmission interface;
(k) the first image processing module performs image processing;
(1) the first image processing module determines whether there is still a pending image data or a continuous image data; and (m) the image processing is completed;
Wherein, when the result of the step (e) is YES, the step (f) is performed to the step (i), and when the result of the step (e) is negative, the step (k) is performed to the step (l). When the judgment result of the step (i) is YES, the step (j) is performed, and when the judgment result of the step (i) is NO, the step (m) is performed, and when the judgment result of the step (1) is YES, When the step (d) is repeated to the step (e), when the result of the step (1) is negative, the step (m) is performed. An image processing device includes at least:
The plurality of image processing modules are configured to process an image data; and a control module is coupled to the plurality of image processing modules for controlling an operation mode of the plurality of image processing modules;
The plurality of image processing modules respectively process a portion of the image data according to the operation mode to improve the working speed of the image processing device.