JP2015204052A - Zoom image processing system - Google Patents

Abstract

PROBLEM TO BE SOLVED: To allow a zoom image processing system to eliminate the need of complicated work and to easily zoom an image so as to be independent only by casually inputting all of a large amount of images in the same folder.SOLUTION: When an image request signal from a user terminal device (2) by an operation of input means (9) is inputted, a control device (4) outputs an image control signal for displaying an image based on the image request signal within a window (29) of display means (10), and when an image division request signal from the user terminal device (2) by an operation of the input means (9) is inputted, the control device outputs a division zoom control signal for dividing a portion of the image within the window (29) of the display means (10), based on the image division request signal to zoom the portion of the image so as to be independent.

Description

  The present invention relates to a zoom image processing system, and more particularly to a zoom image processing system that divides and zooms (enlarges) a part of an image in a window displayed on a display means (display) independently.

In a communication system on the Internet, when a control device inputs a request signal from a user terminal device (portable terminal, installed terminal, etc.), the control device outputs a control signal based on the input request signal, A window of a required application is displayed on the display means (display) of the user terminal device.
Further, as this communication system, there is a zoom image processing system that zooms (enlarges) a part of an image displayed in an application window of display means of a user terminal device.
As such zoom image processing systems, there are the following prior art documents.

JP 2013-182617 A

  The system and method for synchronous zoom described in Patent Document 1 displays a plurality of sections on a display unit, specifies a created zoom window on a section selected from the plurality of sections based on an input by a user, Based on this created zoom window, the corresponding zoom window of each of the remaining sections of the plurality of sections is automatically determined, and data from different sensors can be easily compared when monitoring the operating state of the gas turbine. Is.

However, in the conventional zoom image processing system, for example, when an extension such as HTML is incorporated every time a part of a picture is displayed as an image in the window of the display means, When working or changing a painting, there is an inconvenience that labor is increased and the work becomes complicated.
In addition, the improvement of the painting artist's new painting and the checking of the painting were desired because the more the number of copies, the greater the work in comparison series.

  Accordingly, the present invention is a zoom image processing system that can simply zoom in independently while dividing an image by simply putting all of a huge number of images in the same folder without any complicated work. Is to provide.

  The present invention provides a zoom image processing system provided with a user terminal device including input means and display means, and provided with a control device for displaying a window on the display means of the user terminal device, wherein the control device includes the input means. When an image request signal from the user terminal device is input by the operation of the above, an image control signal for displaying an image based on the image request signal in the window of the display means is output, and the user by the operation of the input means When an image division request signal is input from the terminal device, a divided zoom control signal is output to divide a part of the image in the window of the display unit based on the image division request signal and to zoom independently. It is characterized by that.

  According to the present invention, it is possible to zoom independently while easily dividing an image by simply putting all of a huge number of images in the same folder without any complicated work.

FIG. 1 is a configuration diagram of a zoom image processing system. (Example) FIG. 2 is a diagram showing a picture and a side window as images in the main window of the display means of the user terminal device. (Example) FIG. 3A is a view showing an open mission screen in the side window. FIG. 3B is a diagram showing a closed mission screen in the side window. (Example) FIG. 4A is a diagram showing a state in which a character string is applied to a place where a picture in the main window is divided into a plurality of sections (16 sections). FIG. 4B shows a state in which a part of the picture of FIG. 4A is divided so as to be independent (first division), zoomed, and character strings are attached to a plurality of sections (16 sections). FIG. FIG. 4C shows a state in which a part of the painting of FIG. 4B is divided so as to be independent (second division), zoomed, and a character string is attached to a plurality of sections (16 sections). FIG. FIG. 4D shows a state where a part of the picture of FIG. 4C is divided so as to be independent (third division), zoomed, and character strings are attached to a plurality of sections (16 sections). FIG. (Example) FIG. 5 is a flowchart showing the flow of operation of the main window. (Example) FIG. 6 is a flowchart of the screen progress request in FIG. (Example) FIG. 7 is a flowchart of the screen reverse request of FIG. (Example) FIG. 8 is a flowchart showing the flow of the side window operation. (Example) FIG. 9 is a flowchart of the Get request shown in FIG. (Example) FIG. 10 is a flowchart of the hit determination of FIG. (Example) FIG. 11 is a flowchart of the mission number display of FIG. (Example) FIG. 12 is a flowchart of the login request in FIG. (Example) FIG. 13 is a flowchart of the member registration process of FIG. (Example) FIG. 14 is a flowchart of the mission detail request of FIG. (Example) FIG. 15 is a flowchart of the mission switching request in FIG. (Example) FIG. 16A is a diagram for explaining a case where one corner of a picture in the upper left section is zoomed to the lower right. FIG. 16B is a diagram for explaining a case where one corner of a picture in the lower right section is zoomed to the upper left. FIG. 16C is a diagram for explaining zooming the two corners of the painting in the second section from the upper left to the right. FIG. 16D is a diagram for explaining the zooming of the two corners of the picture in the second column from the upper left and the second column on the left to the right. (Example)

  The present invention eliminates the need for cumbersome work by simply putting all of a huge number of images in the same folder, and is designed to easily divide images and zoom independently. A part of the image in the window of the display means based on the division request signal is divided and zoomed so as to be independent.

1 to 16 show an embodiment of the present invention.
As shown in FIG. 1, the zoom image processing system 1 communicates with a plurality of user terminal devices (portable terminals, installed terminals, etc.) 2 and this user terminal device 2 via a first telecommunication line 3. And a plurality of customer terminal devices (portable terminals, installed terminals, etc.) 6 that communicate with the control device 4 via the second telecommunication line 5, and the user terminal device 2 And the customer terminal device 6 are communicated with each other via a third telecommunication line 7.

  The user terminal device 2 is used by a user (unspecified large number of people), and includes a central processing unit (CPU) 8, an input unit 9 operated by the user to access the control device 4, and control. A display unit (display) 10 for displaying an application window corresponding to a control signal output from the apparatus 4 and a transmission / reception unit 11 are provided.

The control device 4 includes a central processing unit (CPU) 12, a first input / output unit (I / O) 13 that communicates with the user terminal device 2 via the first telecommunication line 3, and a third telecommunication line 7. And a second input / output means (I / O) 14 that communicates with the customer terminal device 6.
The control device 4 has a function as a server, and constructs a required system for connecting the user terminal device 2 and the customer terminal device 6 by itself.

  The customer terminal device 6 is used by a customer (a specified company such as a bank), and has a central processing means (CPU) 15 and an input means 16 operated by the customer to access the control device 4. The display unit 17 includes a display unit 17 for displaying an application window corresponding to the control signal output from the control device 4, a transmission / reception unit 18, and a user data storage unit 19.

In this embodiment, the control device 4 includes a database 20. The database 20 includes an image data unit 21 that stores a plurality of image data to be displayed in the window of the display unit 10 of the user terminal device 2, and a user data unit 22 that stores various user data from the user terminal device 2. And mission data 23 for storing various mission (problem) data described later. The database 20 can be accessed from the user terminal 2 and the customer terminal 6. Accordingly, the user data storage means 19 of the customer terminal 6 can acquire and store various user data from the database 20.
In addition, the control device 4 includes temporary storage data storage means 24. The temporary storage data storage unit 24 includes a memory, a cache, and the like, and temporarily stores predetermined data (file name data described later).

The control device 4 includes an image control unit 25 and a divided zoom control unit 26.
When an image request signal is input from the user terminal device 2 by the operation of the input unit 9, the image control unit 25 outputs an image control signal for displaying an image based on the image request signal in the window of the display unit 10.
When the division zoom control unit 26 receives an image division request signal from the user terminal device 2 by the operation of the input unit 9, the division zoom control unit 26 divides a part of the image in the window of the display unit 10 based on the image division request signal. A divided zoom control signal for zooming independently is output. Therefore, the entire divided image is displayed in the window of the display means 10 by switching to the previous image.

The control device 4 includes file name generation means 27.
When the image name division request signal is input from the user terminal device 2 by the operation of the input means 10, the file name generation means 27 is a character (for example, alphabet) at the location of the image to be divided based on the image division request signal. And the character example is changed to generate a new character example as the level of the image division depth in the window of the display means 10 increases, and the new character example itself is generated by the division. Generated as file name data of the image to be processed.

  As shown in FIG. 2, the control device 4 displays a main window 29, a side window 30, and an author (artist) window 31 as an application window 28 on the display unit 10 of the user terminal device 2.

  Specifically, as shown in FIG. 3, the display unit 10 of the user terminal 2 includes a large main window 29 that displays a picture as an image on the left side as a window 28, and a right side of the main window 29. The side window 30 is displayed.

The main window 29 and the side window 30 are independently operated and executed as independent contents by a request signal from the user terminal 2 by the operation of the user input means 9.
In the main window 29, for example, a picture is displayed as an image. The image may be a photograph, a manga picture, or the like.
The side window 30 is used as a system mission (problem) in the main window 29.
In the side window 30, as shown in FIG. 3, a login display area 31, a mission display area 32, a button display area 33, a detailed display area 34, and an author display area 35 are displayed.
A login box 36 is displayed in the login display area 31.
The mission display area 32 displays the contents of the mission (problem). As the type of mission, an open mission (Open Mission) or a closed mission (Closed Mission), a Get button box 37, and details Box 38 is displayed.
In the button display area 33, a return button (Back) 39, a forward button (Next) 40, and a page display unit 41 representing a place in all missions are displayed.
In the detail display area 34, a log design is usually displayed, and changes according to the contents of the upper main, a site description and others are displayed, and a password box 42 is displayed during an open mission.
In the author display area 35, the artist of the painting (author: person in charge) is displayed.
Since the author display area 35 is linked to the picture displayed on the main window 29, the control device 4 executes the display instruction on the main window 29.

Below, how to give the file name of the image (picture) divided | segmented by the control apparatus 4 is demonstrated along FIG. 4 (A)-FIG. 4 (D).
FIG. 4A is a diagram showing a state in which a character string is applied to a place where a picture in the main window is divided into a plurality of sections (16 sections).
FIG. 4B shows a state in which a part of the picture of FIG. 4A is divided so as to be independent (first division), zoomed, and a character string is attached to a plurality of sections (16 sections). FIG.
FIG. 4C shows a state where a part of the picture of FIG. 4B is divided so as to be independent (second division), zoomed, and character strings are attached to a plurality of sections (16 sections). FIG.
FIG. 4D shows a state in which a part of the painting of FIG. 4C is divided so as to be independent (third division), zoomed, and character strings are attached to a plurality of sections (16 sections). FIG.
As shown in FIGS. 4 (A) to 4 (D), for example, each picture as the first image in the main window 29 is divided into 16 sections, and each of the pictures up to ap. A character string of alphabet (character) is applied (see FIG. 4A), and the character string is changed (added, etc.) to generate a new character string as the level of image division depth increases. Then, the new character string itself is generated as picture file name data (see FIGS. 4B to 4D). This file name data can be encrypted, for example, using an algorithm. Such a method for assigning file name data enables access to a large amount of file name data. Further, the programmer can easily check the contents of the file name data after it is created.
By having such a configuration, simply putting all of the huge paintings in the same folder in a simple manner eliminates the need for cumbersome work, and the work of zooming the paintings as images independently Can be realized easily. Furthermore, at the same time, if the author of the image (painting) himself gives a file name based on the rule (rule), he creates a folder for checking himself, and even if the file name data is added there, it can be easily done. It is also possible to check paintings. Moreover, 200 billion paintings can be specified with only a 10-character file name.

The method of assigning file name data for accessing enormous painting data will be further explained.
Since the first picture displayed in the main window 29 is one, the file name is “a.jpg”, which is level 1. Here, the file name “ab.jpg” represents the second plate from the upper left of “a.jpg” (level 1).
Similarly, “app.jpg” refers to the lower right picture in the lower right of the first picture.
The number of characters in the file name represents the depth of the level at which the painting is divided, and the characters (ap) represent the positions (see FIGS. 4A to 4D).
In the method of naming the file, the first painting “a.jpg” has 16 letters of letters a to p (letters) from the top left, such as “aa.jpg-ab.jpg-ac.jpg ...” from the upper left. ) And the file name of the picture (see FIG. 4A). And it repeats similarly every time it progresses to the back (as the depth is increased) (see FIGS. 4B to 4D).
a (level 1-1) first painting aa-ap (level 2-16) (first painting divided into 16)
aaa-app (level 3-256 sheets) (first division)
aaaa to appp (level 4 to 4096) (second division)
aaaa-apppp (level 5-65536 sheets) (third division)
......
That is, the number of digits of characters represents the level (depth) of division. Further, except for the first “a” in the file name, it directly represents the place to be divided.
And each place which divided | segmented one painting into 16 divisions respond | corresponds to the character string to "ap". In addition, since the first painting is “a.jpg” (letters and extension), the combination of the file name of “a.jpg” of the first painting and the character of the place is the next painting. The new file name is divided. That is, the position from “a to p” of the picture “a” becomes the file name data as it is.
Such a way of assigning file name data makes it possible to access an enormous number of files.

Next, the flow of the main window operated by the control device 4 will be described along the flowchart of FIG.
As shown in FIG. 5, when the program of the control device 4 starts (step A01), first, the file name stored in the temporary storage data storage means 24 is initialized (step A02).
Then, an image (painting) based on the request signal from the user terminal 2 is read from the image data unit 21 and displayed in the main window 29 of the display means 10 of the user terminal 2 (step A03). In this case, the character string data of the image is temporarily stored in the temporary storage data storage unit 24.
Further, the author of the image (painting) read out from the image data section 21 is displayed in the author display area 35 (step A04).
Thereafter, the processing is divided according to the first to fourth image request signals from the user terminal device 2 by the following operation of the input means 9.
In the first image request signal, it is a screen dividing line request (step A05), and it is determined whether or not a screen dividing line is displayed (step A06).
If this step A06 is YES and the screen dividing line is displayed, the screen dividing line is erased (step A07), and the process returns after step A04.
However, if step A06 is NO and the screen dividing line is not displayed, the screen dividing line is displayed (step A08), and the process returns after step A04.
The second image request signal is an initial screen request (step A09), and the process returns to step A02.
In the third image request signal, it is a screen progress request (step A10), and it is determined from the image data section 21 whether there is screen data (step A11). The screen advance request in step A10 will be specifically described with reference to the flowchart of FIG.
If this step A11 is YES and there is screen data, the process returns to step A03. However, when this step A11 is NO and there is no screen data, it returns after said step A04.
The fourth image request signal is a screen reverse request (step A12), and the process returns to step A03. The screen reverse request in step A12 will be specifically described with reference to the flowchart of FIG.

The screen advance request in step A11 of FIG. 5 will be described with reference to the flowchart of FIG.
As shown in FIG. 6, when the screen progress request program starts (step B01), first, the character string data of the display screen of the image (painting) based on the request signal from the user terminal 2 is temporarily stored data storage means. 24 (step B02), and it is determined whether or not the position of this screen has been designated (step B03). If this step B03 is NO and the position of the screen is not designated, this determination is continued.
If this step B03 is YES and the position of the screen is designated, the position data of this screen is stored in the temporary storage data storage means 24 (step B04).
Then, the position data of the screen is added to the lower part of the character string of the character string data (change of the character string) to generate a new target character string (step B05). This new character string indicates the file name without the extension.
Further, an extension (for example, jpg) is added to the new character string, and file name data in a format in which the screen position data can be read is generated as a file name (step B06). This makes it possible to access target data (image data, character string data, etc.).
After that, the screen progress request program is ended (step B07).

The case of the screen reverse request in step A12 in FIG. 5 will be described with reference to the flowchart in FIG.
As shown in FIG. 7, when the screen backward request program starts (step C01), first, a display screen is displayed (step C02), and the file name of the display screen is stored in the temporary storage data storage means 24. Obtained from certain character string data (step C03).
Then, the lower one character of the file name on the display screen is deleted (change of character string), and a new target character string is generated (step C04). Here, this new character string indicates the file name without the extension.
Further, an extension (for example, jpg) is added to the new character string to generate file name data in a format that can be read as a file name (step C05).
Thereafter, the screen backward request program is ended (step C06).

  As a result, according to the above configuration, the character string is applied to the divided place of the painting as the image displayed in the main window 29, and the character string is changed as the level of the division depth increases, and a new character is changed. By creating a string and creating this new character string itself as the file name data for the painting, all of the enormous paintings are simply placed in the same folder, eliminating the need for cumbersome work and simplifying You can zoom in on the painting.

  In this embodiment, the control device 4 displays a main window 29 and a side window 30 as the window 28 on the display means 10 of the user terminal device 2, and displays a picture as an image on the main window 29. In addition, the side window 30 has an open mission screen 43 that can be used by any of the user terminal devices 2 (see FIG. 3A), and a closed window that can be used only by a specific user terminal device in the user terminal device 2. At least one screen of the mission screen 44 (see FIG. 3B) is displayed.

As shown in FIGS. 3 (A) and 3 (B), in the side window 30, the display content differs between the case of the open mission screen 43 and the case of the closed mission screen 44.
To switch from the open mission screen 43 to the closed mission screen 44, log in, set the mission type as a closed mission, generate a right (get button 37 turned on), open login screen 43 only login, close mission screen 44 login and password Input is necessary, and mission switching and mission content switching are performed.
On the closed mission screen 44, if the user is logged in, the login box 36 is displayed as “logout”. If the user has logged in but has not entered the password, the get button 37 cannot be pressed. is there. In other words, on the closed mission screen 44, the password box 42 is displayed in the detail display area 34, and after the password is entered in the password box 44, the get button 37 can be pressed to display the actual situation of the area. The number of hidden items, the number of winners, etc. are displayed. When the get button 37 is pressed, the password box 42 disappears.
Note that the open mission screen 43 basically does not require login, and anyone can participate, and consists of quizzes, teaching materials, and the like. It is also possible to require login on the open mission screen 43.
However, there are conditions on the closed mission screen 44. For example, only people who have entered a password after purchase can participate.

  Here, the mission (problem) in the side window 30 is a system for searching for something and giving prizes such as prize money and prizes. When receiving a prize such as a prize or prize of the user, the user terminal device 2 outputs a notification signal to the user terminal device 2 from the customer terminal device 6 by logging in with an ID or a password on the side window 30. Is done.

Next, this prize will be described in detail.
The sweepstakes are divided into an open mission (open sweepstakes) and a closed mission (open sweepstakes) performed on the system of the main window 29.
A company participating from the customer terminal device 6 performs a prize on the premise that the product is purchased (by a password) in the system, and at the same time, the control device 4 also performs a prize without obligation to purchase the product in the same system. As a result, the participating users are simultaneously participating in the open sweepstakes in the control device 4 while performing the closed sweepstakes (sponsored by the client company) on the condition of purchasing the product.
In other words, as a result, for example, it is possible to buy a caramel of 10 yen and win 10 million yen. In addition, many sweepstakes in the system of the control device 4 can be basically “first come first served” instead of lottery. That is, it means that each user searches for the same meaning as a lottery.
In addition, the open mission screen 43 and the closed mission screen 44 can be performed at the same time. Anyone can participate in the open mission screen 43, and there is no limit. This is a prize provided by the control device 4. On the other hand, the closed mission screen 44 is a prize provided only by a person who has entered a password, is limited, and is provided by the participation of a company. As a result, the company can develop for sales promotion and attracting customers.
The control device 4 instructs the main window 29 and the side window 30 to replace the painting in the image data portion 21 of the main window 29 from the side window 30, and checks the painting displayed on the main window 29. By performing “hit determination”, a control signal is output to the user terminal device 2 and the customer terminal device 6 so as to be related to each other.

Next, the flow of the side window operated by the control device 4 will be described along the flowchart of FIG.
As shown in FIG. 8, when the side window program starts (step D01), first, the mission number (m) is initialized (m = 1) (step D02).
Then, the login name area is displayed (step D03), and the mission (problem) is displayed (step D04).
Thereafter, it is determined whether or not login has been completed (step D05).
If this step D05 is YES and the user has logged in, it is determined whether or not it is a closed mission (step D06).
When this step D06 is NO and it is not a closed mission, the get button 36 is displayed (step D07) and a get request is made (step D08). The get request in step D08 will be described with reference to the flowchart of FIG.
On the other hand, if step D06 is YES and the mission is closed, it is determined whether or not a password has been entered (step D09).
If this step D09 is YES and the password has been entered, the process proceeds to step D07.
If step D09 is NO and the password has not been entered, or if step D05 is NO and login has not been completed, the mission number is displayed (step D10). The mission number display in step D10 will be described with reference to the flowchart of FIG.
Thereafter, the processing is divided according to the first to third request signals from the user terminal device 2 by the following operation of the input means 9.
In the first request signal, a login request is made (step D11). The login request in step D11 will be described with reference to the flowchart of FIG.
In the second request signal, a mission detail request is made (step D12). The detailed mission request in step D12 will be described with reference to the flowchart of FIG.
In the third request signal, a mission switching request is made (step D13). The mission switching request in step D13 will be described with reference to the flowchart of FIG.
Then, after step D08, after step D11, after step D12, or after step D13, the process returns to step D04.

The get request in step D08 of FIG. 8 will be described with reference to the flowchart of FIG.
As shown in FIG. 9, when the get request program starts (step E01), first, a hit determination is performed (step E02). The hit determination in step E02 will be described with reference to the flowchart of FIG.
Then, it is determined whether or not it is won (step E03).
If this step E03 is YES and it is a win, the winning is notified (step E04) and the receipt of the win is confirmed (step E05).
Then, it is determined whether or not the winning is received (step E06).
If this step E6 is YES and the winning is received, the image data in the database 20 is changed (step E07), the winning procedure is performed (step E08), and the explanation and consent regarding the winning are given. Perform (step E09).
Thereafter, it is determined whether or not the prize is a prize (step E10).
If this step E10 is YES and it is a prize, a notification signal for transferring a prize is output from the customer terminal device 6 to the user terminal device 2 (step E11). However, if the step E10 is NO, the customer terminal device 6 outputs a notification signal of prize shipment to the user terminal device 2 (step E12).
On the other hand, if the step E03 is NO and the player has not won, a message that is not a win is displayed (step E13).
After the processing of step E13, or when the step E06 is NO and the winning is not received, the program of this get request is ended (step E14).

The hit determination in step E02 of FIG. 9 will be described with reference to the flowchart of FIG.
As shown in FIG. 10, when the hit determination program starts (step F01), first, character string data is read from the temporary storage data storage means 24 (step F02). In this step F02, the currently displayed image is determined from the character string data temporarily stored in the temporary storage data storage means 24.
Then, mission (problem) data is acquired from the database 20 (step F03). In this step F03, the winning of this mission and the winning history are acquired. This winning history includes a “winned flag”.
Then, it is determined whether or not it is a winning image (step F04). That is, in this step F04, it is confirmed whether or not the displayed image is hit.
If this step F04 is YES and the image is a winning image, it is confirmed whether the winning flag is ON or OFF (step F05).
If the winning flag is turned on in step F05, it is processed as “disappointing notice” (step F06).
If the winning flag is OFF in step F05, the user's personal data is acquired from the database 20 (step F07).
Then, it is determined whether or not the fair transaction regulations are clear (step F08). In this step F08, it is checked whether or not personal data meets the rules of the Fair Trade Commission, such as the number of winnings and age restrictions.
When this step F08 is NO and corresponds to the provisions of the Fair Trade Commission, it is processed as a notice of the fair trade regulations (step F09).
When this step F08 is YES and does not correspond to the provisions of the Fair Trade Commission, it is processed as a win (step F10).
On the other hand, if step F04 is NO and the image is not a winning image, after the process of step F06 or after the process of step F09, it is processed as non-winning (step F11).
After the process of step F10 or after the process of step F11, the hit determination program is ended (step F12).

The mission number display in step D10 of FIG. 8 will be described with reference to the flowchart of FIG.
As shown in FIG. 11, when the mission number display program starts (step G01), first, the mission number (m) is displayed (step G02).
Then, it is determined whether m (mission number) is zero (0) (m = 0) (step G03).
When this step G03 is NO and m (mission number) is not zero (0), the return button 39 is displayed (step G04).
After the process of step G04, or when step G03 is YES and m (mission number) is zero (0), m (mission number) is n (maximum mission number) (m = n) (Step G05).
When this step G05 is NO and m (mission number) is not n (maximum mission number), the send (Next) button 40 is displayed (step G06).
After the processing of step G06, or when step G05 is YES and m (mission number) is n (maximum mission number) (m = n), this mission number display program is terminated (step G07).

The login request in step D11 in FIG. 8 will be described with reference to the flowchart in FIG.
As shown in FIG. 12, when the login request program starts (step H01), it is first determined whether or not the user is logged in (step H02).
If this step H2 is YES and you are logged in, log off (step H03).
If this step H2 is NO and the user is not logged in, an ID and a password are input (step H04).
At this time, in step H04, member registration processing is performed (step H05). The member registration process in step H05 will be described with reference to the flowchart of FIG.
Then, login is performed (step H06).
After the process of step H06 or after the process of step H03, the log-in request program is ended (step H07).

The member registration process in step H05 of FIG. 12 will be described with reference to the flowchart of FIG.
As shown in FIG. 13, when the member registration processing program starts (step I01), first, the policy of this system is notified (step I02).
Then, it is determined whether or not the policy has been agreed (step I03).
If this step I03 is YES, the main window 29 is set as an input screen (step I04), and the user terminal device 2 is requested to input a mail, and then the mail is confirmed (step I05). In step I05, the user terminal device 2 on the user side clicks the URL in the received mail to complete the registration.
Then, the main window 29 is set as a registration completion screen (step I06).
After the process of step I06, or when the above-mentioned step I03 is NO and does not agree, the member registration process program is ended (step I07).

The mission detail request in step D12 in FIG. 8 will be described with reference to the flowchart in FIG.
As shown in FIG. 14, when the mission detail request program starts (step J01), it is determined whether or not it is a closed mission (step J02).
When this step J02 is NO and it is not a closed mission, the mission (problem) by the provider is explained (step J03).
If this step J03 is YES and it is a closed mission, the agreement text of the agreement by the partner company is given on the condition of participation explanation and purchase (step J04).
Then, it is determined whether or not the agreement is agreed (step J06).
If this step J06 is YES and the agreement is agreed, a password input screen is displayed (step J07).
Then, it is determined whether or not an accurate password has been entered (step J08).
If this step J08 is YES and an accurate password has been entered, it is determined whether or not there has been a cancellation (step J09).
If this step J09 is YES and there is a cancellation, the password input is canceled (step J10).
On the other hand, if step J08 is NO and the correct password has not been entered, it is determined whether or not there has been a cancellation (step J11).
If step J11 is NO and there is no cancellation, the process returns to step J07.
After step J03, if step J06 is NO and there is no agreement, if step J09 is NO and not cancel, cancel after step J10 or if step J11 is YES If so, the mission detail request program is ended (step J12).

The mission switching request in step D13 in FIG. 8 will be described with reference to the flowchart in FIG.
As shown in FIG. 15, when the mission switching request program starts (step K01), the flow is different between when the return button 39 is displayed and when the next button 40 is displayed. Is different.
Therefore, first, it is determined whether or not the return button 39 is displayed (step K02). If this step K02 is NO and the return (Back) button 39 is not displayed, this determination is continued.
If this step K02 is YES and the return (Back) button 39 is displayed, a return (Back) request is made (step K03), and m (mission number) -1 is set (m-1) (step K04).
On the other hand, it is determined whether or not the next button 40 is displayed (step K05). If this step K05 is NO and the Next button 40 is not displayed, this determination is continued.
If this step K05 is YES and the send (Next) button 40 is displayed, a send (Next) request is made (step K06), and m (mission number) +1 is set (m + 1) (step K07).
After the process of step K04 or after the process of step K07, the mission switching request program is ended (step K08).

That is, in the system in this side window 29, it is a treasure hunt, and by selecting a part of the divided painting, the screen is switched infinitely. Among them, a prize or a prize is obtained by clearing a set mission. It is a winning system.
For example, if all of the painting divisions have a depth of 10 levels, there are actually 68.7 billion screens. In this case, the difficulty level can be changed by digging deep into the painting.
In this system, when the painting is zoomed and goes deeper (when the depth level increases), other worldviews are developed.
In addition, the usage of this system includes usage as a closed sweepstakes for company and regional promotion, usage as a gallery of artists who created paintings, usage as a catalog of products, usage as a community by users, and the like.
Then, when a picture that becomes the answer to the mission (problem) is found and the get button 37 is pressed, the winning is confirmed. In other words, all the missions (problems) are given to the sweepstakes, and winning is confirmed by clearing them. Then, after winning the sweepstakes, log in.

Further, in this embodiment, the control device 4 includes zoom speed control means 45 as shown in FIG.
The zoom speed control means 45 makes the zoom speed of the picture variable when a part of the picture in the main window 29 of the display means 10 is divided and zoomed independently. This is to make the picture to be zoomed look natural.
A technique for changing the zoom speed will be described with reference to FIGS.
As shown in FIGS. 16A to 16D, when one place divided into 16 parts is divided, the divided parts are enlarged and spread over the entire screen. In other words, visually, the effect is as if a part of the painting was zoomed independently.
In that case, when the upper right painting (for example, aa.jpg) is zoomed among the 16 divisions, the lower right corner of the 1 / 16th painting is pulled to the lower right corner of the entire window (see FIG. 16 (A) and FIG. 16 (B)).
Similarly, the paintings at the four corners are enlarged by pulling one corner, and the paintings at other places are enlarged in two to four corners in each direction (FIG. 16C, FIG. 16 (D)).

The zooming speed in that case will be described below.
If you zoom the painting independently at a constant speed, it may not appear to be naturally enlarged depending on the position. For this reason, the recognition of which position in the whole is being magnified is distorted.
In order to avoid this, in this embodiment, the speed of expanding the corners of the painting is variable.
For example, the image starts slowly at first, gets faster on the way, and approaches the end point.
Of course, the variable value (function) of the speed needs to be adjusted to make it look natural and be recognized correctly.
There are various patterns regarding the zoom speed of this painting. For example, it is slow at the beginning, fast in the middle, slow at the end, fast at the beginning, slow in the middle, fast at the end, etc. Various variations are possible.
In addition, there are zoom-in and zoom-out as types of zooming of paintings.

  The zoom image processing system according to the present invention can be applied to other systems.

DESCRIPTION OF SYMBOLS 1 Zoom image processing system 2 User terminal device 3 1st telecommunication line 4 Control apparatus 5 2nd telecommunication line 6 Customer terminal device 7 3rd telecommunication line 9 User terminal device input means 10 User terminal device display means 20 Control Device database 21 Database image data portion 22 Database user data portion 23 Database mission data portion 24 Temporarily stored data storage means of control device 25 Image control means of control device 26 Divided zoom control means of control device 27 Control device File name generation means 28 display means window 29 main window 30 side window 43 side window open mission screen 44 side window closed mission screen

Claims (5)

  In a zoom image processing system provided with a user terminal device comprising an input means and a display means, and provided with a control device for displaying a window on the display means of the user terminal device, the control device is configured to operate the input means by operating the input means. When an image request signal from the user terminal device is input, an image control signal for causing an image based on the image request signal to be displayed in the window of the display means is output, and from the user terminal device by operation of the input means. When an image division request signal is input, a divided zoom control signal is output to divide a part of the image in the window of the display unit based on the image division request signal and to zoom independently. Zoom image processing system.   When the control device inputs an image division request signal from the user terminal device by operating the input means, the control device applies a character string to a place of an image to be divided based on the image division request signal, and As the level of the division depth of the image in the window of the display means increases, the character example is changed to generate a new character example, and the new character example itself is converted to file name data of the image to be divided. The zoom image processing system according to claim 1, further comprising: a file name generation unit configured to generate   The control device includes: an image data unit for storing a plurality of image data to be displayed in the window of the display unit of the user terminal device; and a user data unit for storing various user data from the user terminal device. The zoom image processing system according to claim 1, further comprising: a database including:   The control device displays a main window and a side window as the window on the display means of the user terminal device, displays a picture as the image in the main window, and displays the picture in the side window. 2. At least one of an open mission screen that can be used by any user terminal device and a closed mission screen that can be used only by a specific user terminal device in the user terminal device is displayed. The zoom image processing system described in 1.   The said control apparatus makes variable the zoom speed of the said picture, when zooming so that a part of the said picture in the said main window of the said display means may be divided and made to become independent. 5. The zoom image processing system according to 4.

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