JP2013016099A - Display processing program, display processing method and information processor - Google Patents

Abstract

PROBLEM TO BE SOLVED: To improve visibility and operability of objects in a page while ensuring a viewability as a whole of a displayed page.SOLUTION: A display processing program includes processing of: obtaining a provisional display magnification for each of multiple objects displayed in a page according to an access degree from users to each of the multiple objects in the page; determining a provisional display size of each of the multiple objects according to the provisional display magnification for each of the multiple objects; obtaining a size of a display area (52') including the multiple objects having the respective provisional display sizes (806); obtaining an adjustment magnification for each of the multiple objects on the basis of a ratio of a display size of the page with respect to the size of the display area (824); and adjusting the display size of each of the multiple objects according to the adjustment magnification and displaying the multiple objects with the respective display sizes on the display page (830, 834, 746, 710).

Description

  The present invention relates to display processing of a page including a plurality of objects.

  With respect to one web page including a plurality of objects representing at least one content, an object to be operated may be different depending on individual users. In order to improve the usability of a web page, there is a technique for enlarging and displaying a specific part including a certain object according to the number of operations for each object.

  A known image display device displays a page or an image based on predetermined information including information on a plurality of objects on the screen. The image display device displays a portion of the page corresponding to the display range based on the set display range of the page and predetermined information. When the image display apparatus receives a predetermined operation, the image display apparatus sequentially instructs the objects arranged in the corresponding part. When the number of instructions of the object arranged in the corresponding part satisfies a predetermined condition, the image display device changes the display range to another display range, and changes the part corresponding to the other display range of the page. indicate. In the display of the page, the image display apparatus zooms in by changing the adjustment magnification of the page so that an object in which the number of focus movements exceeds a certain threshold is enlarged and displayed according to the number of times. If the number of focus moves from the object to another object in the page exceeds a certain threshold, the image display device displays both the enlarged object and the other object to which it is moved. As shown, zoom out by changing the adjustment magnification of the page to a smaller value. As a result, the usability of the user is improved in the user interface for selecting an object by moving the focus.

JP 2007-226597 A

  In a known image display device, an object portion to be displayed and its display size are determined based on the state of focus movement within a page including a plurality of objects or the operation frequency for each object.

  The inventor said that with a known image display device, the display size of each object on the page cannot be relatively changed or enlarged or reduced according to the number of operations of each object without changing the display range of the page. Recognized. The inventor has recognized that when a certain object of a page is relatively enlarged and displayed while securing the listability of the page, the operability of the page is improved.

  An object of the embodiment is to increase the visibility of objects on a page and the operability of a page while ensuring the listability of displayed pages.

  According to one aspect of the embodiment, the storage unit that stores the degree of access from the user to each of the plurality of objects displayed on the page is referred to according to the degree of access of each of the plurality of objects. The provisional display magnification of each of the plurality of objects is determined, the provisional display size of each of the plurality of objects is determined according to the provisional display magnification of each of the plurality of objects, and the provisional display of each of the plurality of objects is determined. The size of the display area including the plurality of objects having the size is obtained, and the adjustment magnification of the plurality of objects is obtained based on the ratio of the display size of the page to the size of the display area, and the plurality of objects are determined according to the adjustment magnification. Adjust the display size of the object and it will be adjusted on the display page. A process of displaying the plurality of objects in the display size, the display control program to be executed by the information processing apparatus is provided.

  According to one aspect of the embodiment, the visibility of objects on a page and the operability of a page can be improved while ensuring the listability of displayed pages.

FIG. 1 shows an example of a schematic configuration of an information processing device according to the embodiment. FIG. 2 shows an example of a schematic configuration of the processor of the information processing device. FIG. 3 shows an example of a schematic configuration of the processor of the server device. FIG. 4 illustrates an example of a software structure applicable to the information processing apparatus or the server device according to the embodiment. FIG. 5A shows an example of arrangement of display objects in a page form of an application. FIG. 5B shows the hierarchical structure and link relationship of a plurality of display objects in the page form. 6A to 6D show examples of a plurality of tables stored in the database used by the application / page drawing infrastructure module. FIG. 7 shows an example of a flowchart of processing for preparation processing executed by the processor of the information processing device or the server device when the application is activated. FIG. 8 shows an example of a flowchart of a process for collecting data related to input operation events in a page of an application executed by a processor according to an application page rendering infrastructure and an application runtime. FIG. 9 shows an example of a specific flowchart of the steps of the event information collection process in FIG. FIG. 10 shows an example of a specific flowchart of the steps of the access degree totaling process in FIG. FIG. 11 shows an example of a flowchart of processing for displaying a page of an application executed by the processor of the information processing device or the server device in accordance with the application and the application / page drawing infrastructure module. 12A and 12B show examples of specific flowcharts of the steps of the page preliminary processing in FIG. (Explained in Fig. 12A) FIG. 13 shows a specific flowchart of the steps of the area enlargement process in FIG. 12B. FIG. 14 shows a specific flowchart of the steps of the page adjustment process in FIG. 12B. 15A to 15E are diagrams for explaining examples of changes in the size and position of each area of a page from area expansion processing to page adjustment processing for an initial size page. (Explained in Fig. 15A) (Explained in Fig. 15A) (Explained in Fig. 15A) (Explained in Fig. 15A) FIG. 16 shows an example of a flowchart for manually setting the cumulative access degree in the area access degree table (FIG. 6B) executed by the processor of the information processing device or the server apparatus according to the application / page drawing infrastructure module. ing. FIG. 17 shows a screen for manual setting of the access level displayed on the display unit.

The objects and advantages of the invention will be realized and attained by means of the elements and combinations particularly pointed out in the appended claims.
It is understood that the foregoing general description and the following detailed description are exemplary and explanatory only and are not intended to limit the invention.

  Non-limiting embodiments of the present invention will be described with reference to the drawings. In the drawings, similar components and elements have the same reference numerals.

  The inventor changes the display size of an object on the page relative to other objects in accordance with the number of operations of each object without changing the display range of the page in the known image display device. Recognized that it cannot be scaled. When the inventor enlarges a part or object of the page relative to other parts or objects while ensuring the listability of the entire page, the part or object becomes easier to see. Recognized that the efficiency of page operations would be improved.

  An object of the embodiment is to make the visibility of a certain object on the page and the operability of the page relatively higher than those of other objects while ensuring the listability of the entire displayed page.

  FIG. 1 shows an example of a schematic configuration of an information processing device 10 according to the embodiment.

  In FIG. 1, an information processing device 10 is an information processing apparatus, and includes a processor 102, a memory 104, an input / output interface (I / O) 110, an internal bus, and the like, such as a computer such as a personal computer or a portable terminal. Such a device may be used. Such a portable terminal may be, for example, a tablet terminal or a smartphone. The processor 102 may be a CPU (Central Processing Unit) for a computer. The processor 102 and memory 104 are coupled to an input / output interface 110. The memory 104 includes, for example, a main storage device and a semiconductor memory.

  The information processing apparatus 10 further includes a display device (DSP) 122, an input unit or input device 126, a drive 128 for reading a recording medium, and a hard disk drive including a database, coupled to an input / output interface (I / O) 110. A storage device 130 such as a drive (HDD) is included. The input unit 126 may include, for example, a keyboard, a pointing device such as a mouse or a touch pad, a tablet, a touch panel, a gesture recognition device using a camera and a motion sensor, and the like.

  The drive 128 is provided to read a recording medium 129 such as an optical disc on which software is recorded. The software may include, for example, an OS (Operating System), a database management system (DBMS), an application runtime module, an application development framework, an application page drawing infrastructure module, an application program, and the like. . The application program may display a page including a plurality of objects representing a plurality of areas to be input by the user on the screen screen of the display unit 122.

  The processor 102 may operate according to the above-described software stored in the memory 104 and / or the storage device 130 or a part thereof. The software described above may be stored in the recording medium 129, read from the recording medium 129 by the drive 128, and installed in the information processing device 10. Further, as an alternative, the processor 102 may be a dedicated processor that is implemented as an integrated circuit, for example, including at least a part of the software functions described above. The processor 102 may execute the above-described software functions excluding the database management system, for example.

  The information processing device 10 may further include a network interface (NW I / F) 144 coupled to an input / output interface (I / O) 110. The information processing device 10 may be connected to the server device 30 via the network interface 144 and further via the external network 5.

  The network 5 includes, for example, a LAN (Local Area Network), the Internet, a public switched telephone network (PSTN), a packet switched network (PSN), an ISDN (Integrated Services Digital Network), a mobile communication network, and / or a dedicated line. You may go out.

  The server apparatus 30 is an information processing apparatus, and may be a computer including a processor 302, a memory 304, a network interface (NW I / F) 344, an internal bus, and the like. The processor 302 may be a CPU (Central Processing Unit) for a computer. The memory 304 includes, for example, a main storage device and a semiconductor memory. The server device 30 further includes a storage medium reading drive 328 coupled to an internal bus and a storage device 330 such as a hard disk drive (HDD) including a database. The drive 328 is provided to read a recording medium 329 such as an optical disc on which software is recorded. As described above, the software includes, for example, an OS, a database management system (DBMS), an application runtime module, an application development framework, an application page drawing infrastructure module, an application program, and the like. Also good.

  The processor 302 may operate according to the above-described software stored in the memory 304 and / or the storage device 330 or a part thereof. The software described above may be stored in the recording medium 329, read from the recording medium 329 by the drive 328, and installed in the server device 30. As an alternative, the processor 302 may be a dedicated processor that is implemented as an integrated circuit, for example, including at least a part of the above-described software functions. For example, the processor 302 may be responsible for and execute only the functions of the database management system in the software described above. The server device 30 is connected to the information processing apparatus 10 via the network interface 344 and further via the external network 5.

  As an alternative, the processor 102 of the information processing device 10 has at least a function of transmitting and receiving input operations and display screen data to and from the server device 30, and a function of displaying the received display screen. It may operate as (thin-client). In this case, the server device 30 executes all the functions of the above-described software, receives user input operation data from the information processing device 10, and transmits image data of an application display screen to the information processing device 10.

  FIG. 2 shows an example of a schematic configuration of the processor 102 of the information processing device 10. The processor 102 includes a control unit 1020, and may further include an application unit 1022, an application / page drawing base unit 1030, and other processing units 1060, or a part thereof. The application / page drawing base unit 1030 may include, for example, an event information collection unit 1032, an access level totaling unit 1034, a page preliminary processing unit 1038, an access level setting unit 1050, and other processing units 1056. The page preliminary processing unit 1038 may include an area enlargement unit 1040 and a page adjustment unit 1042. The processing unit 1060 may execute functions of, for example, an OS, a database management system (DBMS), an application runtime module, and an application development framework. The control unit 1020 may supply control signals to the application unit 1022, the application / page drawing base unit 1030, and the processing unit 1060 to control operations of these elements.

  When the information processing device 10 communicates with the server device 30, the processor 102 may include at least a transmission / reception unit 1012 for transmitting / receiving information to / from the server device 30. When the information processing device 10 functions as a thin client, the processor 102 may include at least a transmission / reception unit 1012, an input processing unit 1014, and a display processing unit 1016. In this case, the input processing unit 1014 generates and temporarily stores input information in accordance with the input operation of the input unit 126 by the user. The transmission / reception unit 1012 transmits input information to the server device 30 and receives application display screen information from the server device 30. The display processing unit 1016 decodes and processes the display screen information of the application received from the server device 30, regenerates the display screen of the application, and displays it on the display unit 122. The control unit 1020 may further supply control signals to the transmission / reception unit 1012, the input processing unit 1014, and the display processing unit 1016 to control the operation of these elements.

  FIG. 3 shows an example of a schematic configuration of the processor 302 of the server device 30. The processor 302 includes a control unit 3020, and may further include or include a part of the application unit 1022, an application / page drawing base unit 1030, and another processing unit 1060. The application / page drawing base unit 1030 may include elements similar to the elements 1032 to 1056 in FIG. The processing unit 1060 may execute functions of, for example, an OS, a database management system (DBMS), an application runtime module, and an application development framework. The control unit 3020 may supply control signals to the application unit 1022, the application / page drawing base unit 1030, and the processing unit 1060 to control the operation of these elements.

  When the information processing device 10 communicates with the server device 30, the processor 302 may include at least a transmission / reception unit 3012 for transmitting / receiving information to / from the information processing device 10. When the information processing device 10 functions as a thin client, the processor 302 includes a transmission / reception unit 3012, an input reception unit 3014, and a display processing unit 3016. In this case, the transmission / reception unit 3012 receives input information from the information processing device 10 and transmits display screen information of the generated application to the information processing device 10. The input receiving unit 3014 receives the received input information and passes it to the processing unit 1060 (OS, etc.), the application / page drawing base unit 1030, and / or the application unit 1022. The display processing unit 3016 processes and encodes the generated display screen information of the application to generate image data of the display screen of the application for transmission. The control unit 3020 may further supply control signals to the transmission / reception unit 3012, the input reception unit 3014, and the display processing unit 3016 to control operations of these elements.

  FIG. 4 illustrates an example of a software structure applicable to the information processing apparatus 10 or the server device 30 according to the embodiment.

  In FIG. 4, the software is an OS, an application runtime and database management system (DBMS), an application development framework on the application runtime, an application page rendering infrastructure, and one or more applications on it. Is included. An application page drawing platform (also referred to as an application screen drawing platform) accesses a database management system and its database through an application development framework and an application runtime. The application / page rendering platform retrieves information necessary for rendering a page or screen displayed by the application from the database or stores and updates the information in the database. The application page rendering infrastructure may be implemented and run in the form of a program on the processor 102 on the OS, the database management system and application runtime thereon, and the application development framework on the application runtime. Each application may be implemented and run in the form of a program on the processor 102 on the OS, application runtime, application development framework, and application page rendering infrastructure.

  The OS may be, for example, Microsoft's Windows (registered trademark) (Windows (registered trademark)) or Apple's Mac OS (registered trademark). The database management system may be, for example, Microsoft SQL Server. The application runtime module is a software module necessary for executing an application program, and may be, for example, “.NET Framework” of Microsoft Corporation. The application development framework is a program that implements a basic program structure or function set common to applications, and may be an RIA development framework. For example, “Silverlight” (silver light) (registered trademark) of Microsoft Corporation ) Or “WPF”. RIA represents a Rich Internet Application, and represents a web application created using Flash, Java (registered trademark) applet, Ajax, or the like as a user interface. RIA is superior in operability and expressiveness to a page described only in HTML or CSS. The application page drawing infrastructure module may be implemented based on, for example, “.NET C #” or “Visual Basic” (registered trademark) of Microsoft Corporation. The application may be, for example, a business application or a web application.

  FIG. 5A shows an example of the arrangement of display objects in the page form A of the application 1022. FIG. 5B shows the hierarchical structure and link relationship of a plurality of display objects in page form A.

  The display page form A may be a display screen, window, or web page form of the display unit 122 used for displaying an application. The size or dimension of the page may be larger, the same, or smaller than the screen screen of the display unit 122. When the page is larger than the screen screen of the display unit 122, the entire page can be viewed by scrolling or moving the input unit 126, for example.

  In FIG. 5A, page 50 of page form A includes a display object 502 that is associated with page form A and represents the largest area base area or base panel in which the lower display objects are displayed. On the base area of the display object 502, a plurality of display objects 512 to 532 representing the respective areas (regions) or panels (A to C) are arranged.

  Display objects 5122, 5126 of a plurality of labels (LBL_A1, LBL_A2) at different positions on the area (A) of the display object 512, and display objects of a plurality of text fields (TXT_A1, TXT_A2) for input next thereto. 5124, 5128 are arranged. Display objects 5222 and 5226 with a plurality of labels (LBL_B1 and LBL_B2) at respective positions on the area (B) of the display object 522, and display objects with a plurality of check boxes (CHK_B1 and CHK_B2) for input next thereto. 5224, 5228 are arranged. The label may include an image and / or text. Display objects 5322 and 5324 of a plurality of software buttons (BTN_C1 and BTN_C2) for click operations are arranged at respective positions on the area (C) of the display object 532. The software button may include an image and / or text.

  In FIG. 5B, the application 1022 has a hierarchical structure with a page form or screen forms A to C as a root. A plurality of different page forms A to C to be used are associated with the application 1022. Display objects 502, 504, 506 representing the respective base areas are linked to or associated with the respective pages 50-54 of the page forms A-C.

  For example, display objects 512, 522, and 532 representing a plurality of areas are linked to or associated with the display object 502 in the base area. Display objects 5122 to 5128 representing a plurality of labels (LBL_A1, LBL_A2) and a plurality of texts (TXT_A1, TXT_A2) are linked to or associated with the display object 512 of the area (A). Display objects 5222 to 5228 representing a plurality of labels (LBL_B1, LBL_B2) and a plurality of check boxes (CHK_B1, CHK_B2) are linked to or associated with the display object 522 of the area (B). Display objects 5322 and 5324 representing a plurality of software buttons (BTN_C1 and BTN_C2) are linked to or associated with the display object 532 in the area (C).

  Each display object includes, for example, display object identification information (ID), a geometric relationship or local coordinates for the display object to which the display object is linked, and display attribute definition data such as display shape definition data and color definition of the display object, And display data may be included. The display shape definition data includes the vertical and horizontal initial sizes of the display object area. The display data may include, for example, data related to a label image, a text field, a check box image, or a software button image.

In this case, pages 50 to 54, base areas 502 to 504, areas 512 to 532,
Display objects 5122 to 5324 representing labels, text, check boxes, software buttons may have, for example, a rectangular area having a height and a width. For example, the position of the upper left vertex of the object representing the base area 502 and the areas 512 to 532 is represented by two-dimensional (x, y) coordinates with the upper left vertex of the page 50 of the page form A as the origin. For example, the positions of the upper left vertices of the objects 5122 to 5324 representing the label image, the text field, the check box image, the software button image, and the like are based on the upper left vertices of the respective areas 5112 to 532 associated with each other Expressed in (x, y) coordinates.

  Base areas or panels 502, 504, and areas or panels 512-532 can be controlled by application development framework, eg, Silverlight® panel controls.

  The application may be, for example, a business application or a digital signage (electronic signage) such as a store menu or catalog.

6A to 6D show examples of a plurality of tables stored in the database used by the application / page drawing infrastructure module (1030) in FIG.
The tables of FIGS. 6A to 6D are stored in the database of FIG. 4 in the storage device 130 or 330 of FIG.

  FIG. 6A shows an example of a table of monitored events or monitored events. The monitored event table includes, for example, event type (type), conversion unit to access degree, and access degree data after conversion based on the conversion unit for the event ID (identification information) of the event related to the input operation by the user. It is out.

  The event type may include, for example, area stay time, mouse movement length, number of clicks, number of touches on the touch panel, number of flicks, number of gestures, and the like in one area. The event type may include recognition data of the user's expression such as position, movement, and voice by a sensor such as a gesture recognition device (kinect) as an input device. The conversion unit represents the minimum unit of the detection value or access value converted into the access degree when the detection value or access value related to the input operation for each event type is converted into the access degree. The access degree after conversion represents the access degree or the access frequency given to the detected value or access value of the input operation of the conversion unit. By camera and motion sensor

For example, the area stay time as the event type represents the time that the cursor operated by the user in one area on the page stays, and the detected area stay time reaches one conversion unit (for example, 10 seconds). Each time, an access degree of 5 (points) is given.
For example, the mouse movement length as the event type represents the number of pixels passed by the mouse cursor operated by the user in one area in the page, and the detected mouse movement length is one conversion unit (for example, 30). Each time (pixel) minutes are reached, an access degree of 3 (points) is given.
For example, the number of clicks as an event type represents the number of click operations performed by the user in one area, and each time the detected number of clicks reaches one conversion unit (for example, 10 times), the access degree 5 (Points) are awarded.

  Thus, by converting the amount of input operations of different event types in different units for each area into the degree of access, the amount of input operations of different event types can be evaluated on a common scale for operations. A plurality of areas and other objects can be relatively enlarged and reduced according to the access degree of the common scale.

  FIG. 6B shows an example of an area access degree table for each user. The area / access degree table includes, for example, a page ID or screen ID (identification information), an area name, an event ID of an unconverted access value, an unconverted access value, a cumulative or total for a certain user ID (identification information). Data on the degree of access. The unconverted access value may be reset or initialized to the initial value “0” (zero) every time the application is started or terminated.

  The unconverted access value represents the remaining amount or value (area access value) of the event type in which the value or amount of the input operation in each area is less than the conversion unit, that is, not yet converted into the access degree.

For example, the area name “AREA12” in the page with the page ID “GYOMU01” has an unconverted access value “7 seconds” and a cumulative access degree “25” (points) with respect to the event type “area stay time”.
For example, the area name “AREA01” in the page with the page ID “GYOMU01” has an unconverted access value “20” (pixels) and a cumulative access degree “10” (points) with respect to the event type “mouse movement length”.
For example, the area name “AREA05” in the page with the page ID “GYOMU02” has an unconverted access value “7” (times) and a cumulative access degree “3” (points) with respect to the event type “click count”.

  FIG. 6C shows an example of an action definition table of actions (processing) for enlargement processing.

  The action definition table includes, for example, an enlargement start threshold value (point) for starting enlargement display, an increment value (step) (enlargement threshold value increment value) (point) of the enlargement display threshold for each action definition ID, An increment value (enlargement rate increment value) (%) and a maximum (upper limit) enlargement rate (%) for each enlargement threshold increment value may be included.

For example, the action “ACT01” includes an enlargement start threshold value 50 (points), an enlargement threshold increment value 10 (points), an enlargement rate increment value 7 (%), and a maximum enlargement rate 240 (%).
For example, the action “ACT02” includes an enlargement start threshold 75 (points), an enlargement threshold increment value 20 (points), an enlargement rate increment value 5 (%), and a maximum enlargement rate 150 (%).
For example, the action “ACT03” may include an enlargement start threshold value 100 (points), an enlargement threshold increment value 10 (points), an enlargement rate increment value 2.5 (%), and a maximum enlargement rate 100 (%).

  FIG. 6D shows an example of an action (operation) definition table applied to each page. The action definition table for the page may include, for example, a definition ID (identification information) of the action definition associated with the page ID or the screen ID.

  For example, the page ID “GYOMU01” is associated with the definition ID “ACT03”. For example, the page ID “GYOMU02” is associated with the definition ID “ACT02”. For example, the page ID “GYOMU03” is associated with the definition ID “ACT01”.

  Each value or parameter in the tables of FIGS. 6A-6D may be set by the user, as will be described later.

  Hereinafter, processing executed by the processor 102 of the information processing device 10 will be described. However, at least a part of the processing may be executed by the processor 302 of the server device 30 with the information processing device 10 as a client. When the database is stored in the storage device 330 of the server device 30, the database is managed by the server device 30 or its processor 302. In this case, the processor 102 requests the data or information from the server device 30 and receives it from the server device 30 in order to retrieve and process the data or information in the database.

  FIG. 7 shows an example of a flowchart of processing for event information collection preparation processing of FIG. 8 executed by the processor 102 of the information processing device 10 or the processor 302 of the server device 30 when an application is started. Yes.

  When the application is activated by the user on the information processing device 10 and the first screen is displayed on the display unit 122, the flowchart of FIG. 7 is executed first. Even if the page displayed on the display unit 122 is the initial screen of the application, the page in the initial state of the application before the enlargement and adjustment processing of FIGS. It may be a page after the enlargement and adjustment processing of FIGS.

  Referring to FIG. 7, in step 502, the processor 102 (or its processing unit 1056) uses the function of the application page drawing infrastructure to monitor a monitored event table (FIG. 6A) in the database in the storage device 130 or 330. ) To obtain information on the required item. The required item may be, for example, event ID, event type, conversion unit, and access degree information after conversion.

  In step 504, the processor 102 (or the processing unit 1056) acquires the current user ID and the page ID of the page of the application to be displayed, for example, from the OS and the application. Thereby, the preparation for monitoring the event of the input operation by the user who accesses each area on the display page is completed.

  FIG. 8 shows an example of a flowchart of a process for collecting data regarding input operation events in a page of an application executed by the processor 102 in accordance with the application runtime and application page rendering infrastructure. This process is an event driven process.

  Referring to FIG. 8, in step 512, the processor 102 (or its event information collection unit 1032) collects event information in the application / page rendering infrastructure every time an input operation event occurs using the application runtime function. Invoke processing. Event capture and event information content is, for example, from Microsoft Corporation. It may be based on the specification of an application runtime such as NET Framework. In step 514, the processor 102 (or event information collection unit 1032) executes an event information collection process.

  In step 516, the processor 102 (or the application unit 1022) executes normal processing of the application based on the input operation event. After the application process corresponding to the event is executed, the procedure exits the routine of FIG. The processor 102 (or event information collection unit 1032) waits for the next input operation event to occur using the application runtime function (step 512).

  FIG. 9 shows an example of a specific flowchart of step 514 (event information collection processing) in FIG.

  Referring to FIG. 9, in step 602, the processor 102 (or event information collection unit 1032) determines whether an event related to an input operation, that is, a user input operation has occurred. If it is determined that an event related to the input operation has not occurred, the procedure exits the routine of FIG.

  If it is determined in step 602 that an event related to the input operation has occurred, in step 604, the processor 102 (or event information collection unit 1032) determines the input processing unit 1014 of the information processing device 10 or the input reception unit of the server device 30. Event data is received from 3014. This receiving process may be performed via the application runtime module and the OS. The event data relating to the input operation includes, for example, data relating to the event type of the input operation, area name or area identification information, area access value or detection value of the event type, and the like.

  For example, when the event type is an area stay time, the event type area access value represents the time or number of seconds spent in one area (eg, 512, 522, 532), or the first and last times. . The event type area access value represents, for example, the number of pixels that the mouse cursor has passed in one area when the event type is mouse movement length. For example, when the event type is the number of clicks, the area access value of the event type represents the number of mouse click operations in one area.

  In step 606, the processor 102 (or the event information collection unit 1032) searches the monitoring target event table (FIG. 6A) based on the event type of the received event data. In step 608, the processor 102 (or event information collection unit 1032) determines whether or not the event type of the received event exists in the monitored event table. If it is determined that the event type does not exist in the table, that is, it is not a monitoring target, the procedure returns to step 602. If it is determined that the event type exists in the table, the procedure proceeds to step 610.

  In step 610, the processor 102 (or the event information collection unit 1032) adds the received area access value of the current event type to the previous unconverted access value that does not reach the conversion unit, and the storage device 130 or 330. Store and update in the table of monitored events. However, the initial value of the unconverted access value when the application is started is “0” (zero).

For example, if the event type is area stay time and the conversion unit is 10 seconds, the current area access value, ie area stay time 7 seconds, is added to the previous unconverted access value, ie area stay time 6 seconds, A total unconverted access value, that is, an area stay time of 13 seconds is obtained. In this case, the unconverted access value has reached the conversion unit.
For example, when the event type is mouse movement length and the conversion unit is 30 pixels, the current area access value, that is, mouse movement length of 15 pixels is added to the previous unconverted access value, that is, mouse movement length of 20 pixels, A total unconverted access value is obtained, i.e. a mouse movement length of 35 pixels. In this case, the unconverted access value has reached the conversion unit.
For example, if the event type is the number of clicks and the conversion unit is 10 times, the area access value of this time, that is, 6 clicks, is added to the previous unconverted access value, that is, 7 clicks, and the total number of clicks The converted access value, that is, the number of clicks of 13 is obtained. In this case, the unconverted access value has reached the conversion unit.

  In step 612, the processor 102 (or event information collection unit 1032) determines whether the total or cumulative unconverted access value is equal to or greater than the conversion unit. If it is determined that the unconverted access value is greater than or equal to the conversion unit, the procedure proceeds to step 614. If it is determined that the unconverted access value is not equal to or greater than the conversion unit, the procedure returns to step 602.

  In step 614, the processor 102 (or event information collection unit 1032) executes an access degree totaling process. Thereafter, the procedure returns to Step 602.

  FIG. 10 shows an example of a specific flowchart of step 614 (access degree totaling processing) in FIG.

  Referring to FIG. 10, in step 522, processor 102 (or event information collection unit 1032) converts the conversion unit of the access value of the monitored event (ID) from the monitored event table (FIG. 6A) and the corresponding converted value. Get the access level of.

  In step 624, the processor 102 (or event information collection unit 1032) subtracts at least one or one conversion unit from the cumulative unconverted access value. Next, the processor 102 (or the event information collection unit 1032) updates the cumulative access degree of the event type in the area access degree table (FIG. 6B) by adding only the access degree after conversion corresponding to the subtracted conversion unit number. To do. For example, one conversion unit “10 seconds” is subtracted from the unconverted access value “13 seconds” of the area stay time, and the converted access degree 5 (points) corresponding thereto is added to the cumulative access degree.

  In addition, the processor 102 (or event information collection unit 1032) updates the unconverted access value by subtracting a value corresponding to the number of converted units from the unconverted access value. For example, one conversion unit “10 seconds” is subtracted from the unconverted access value “13 seconds” of the area stay time, and the unconverted access value is updated to “3 seconds”. Thereafter, the procedure exits the subroutine of FIG.

  In this manner, the processor 102 (or the event information collection unit 1032) determines and updates the cumulative access degree for each area such as each of the areas 512 to 532 in the monitored event table of FIG. 5B. The cumulative access degree for each area should be used to adjust the display magnification or enlargement / reduction degree of the display size of each area in the next display or update of the application page depending on the value. Can do.

  FIG. 11 shows an example of a flowchart of processing for displaying a page of an application executed by the processor 102 of the information processing device 10 or the processor 302 of the server device 30 according to the application and the application / page drawing infrastructure module. To display an application page according to the flowcharts of FIGS. 11 to 13 when an application is activated by the user on the information processing device 10 or when a display is updated or a transition to a display is performed during the activation of the application. Is performed.

  Referring to FIG. 11, when an application is started by a user in step 702, an event for requesting page display, display update, or display transition occurs. In response to the occurrence of the event, the processor 102 (or processing unit 1060) generates page form data from the OS using the application runtime function. The page form may be a screen, window or web page form.

  In step 704, the processor 102 (or the processing unit 1060) determines whether the display of the page includes a partial enlarged display process of the page or involves a page preliminary process. When it is determined that the display includes the partial enlarged display processing of the page, the processor 102 (or the processing unit 1060) calls the page preliminary processing after the generation of the page form. If it is determined that the display does not include a partial enlarged display of the page, the procedure proceeds to step 708.

  In step 706, the processor 102 (or page reserve unit 1038) executes page reserve processing using the function of the application / page drawing base. Accordingly, as described later, in the page to be displayed, the size of a certain area is relatively set according to the access degree in a state where all the areas (512 to 532) are included in the page (50). Generated and placed at an enlarged or reduced magnification.

  In step 708, the processor 102 (or the application unit 1022) executes a page display process implemented as an application. In step 710, the processor 102 (or the processing unit 1060) automatically adjusts the page or screen layout after the enlargement / reduction of the display unit 122 using the function of the application development framework, and sets the page or the page in the page area of the memory 104. Draw and display the screen image. Thereafter, the procedure exits the routine of FIG. Thereafter, normal processing of the application is executed, and during that period, for example, processing for collecting data related to input operation events as shown in FIG. 8 may be executed. However, when the processing is executed by the processor 302 of the server device 30, the memory 304 of the server device 30 is used instead of the memory 104.

  12A and 12B show examples of specific flowcharts of step 706 (page preliminary processing) in FIG.

  Referring to FIG. 12A, in step 722, the processor 102 (or page preliminary processing unit 1038) obtains the current user ID and the page ID of the page to be displayed by the application from, for example, the OS and the application.

  In step 724, the processor 102 (or the page preliminary processing unit 1038), from the action definition table (FIG. 6D) applied to the page, the action definition definition ID corresponding to the page ID of the page to be displayed. To get.

  In step 726, the processor 102 (or page preliminary processing unit 1038) obtains data corresponding to the page to be used for area expansion processing from the action definition table (FIG. 6C) based on the acquired definition ID. get.

  In step 728, the processor 102 (or the page preliminary processing unit 1038) acquires the cumulative access degree for each area from the area access degree table (FIG. 6B) based on the user ID and the page ID.

  In step 730, the processor 102 (or the page preliminary processing unit 1038) acquires the page form data from the OS via the application runtime, and acquires the size (vertical and horizontal dimensions) of the page. The page form data is stored in the database of the storage device 130 or 330. The size of the page may be represented by, for example, the number of vertical and horizontal pixels.

  In step 732, the processor 102 (or the page preliminary processing unit 1038) further acquires the page form data from the OS via the application runtime, and sets the area name or area ID of the base area and all the areas. get. The area name or area ID may be extracted from the page form data acquired in step 730.

  Referring to FIG. 12B, the processor 102 (or page preliminary processing unit 1038) executes the loop processing of steps 734 to 744 for the base area by the number of areas.

  In step 736, the processor 102 (or page preliminary processing unit 1038) acquires data of one area name from the area access degree table (FIG. 6B).

  In step 738, the processor 102 (or page preliminary processing unit 1038) compares the acquired cumulative access degree with the corresponding expansion start threshold value in the action definition table (FIG. 6C).

  In step 740, the processor 102 (or the page preliminary processing unit 1038) determines whether or not the cumulative access degree is equal to or larger than the expansion start threshold value. If it is determined that the cumulative access degree is equal to or greater than the expansion start threshold, the procedure proceeds to step 742. If it is determined that the cumulative access degree is not equal to or greater than the expansion start threshold, that is, less than the expansion start threshold, the procedure returns to step 734.

  In step 742, the processor 102 (or the area enlargement unit 1040 of the page preliminary processing unit 1038) executes an area enlargement process. As a result, in the page to be displayed, the area size is generated and arranged at an enlarged magnification according to the access degree equal to or greater than the enlargement start threshold.

  After steps 734 to 744 are executed for all areas of the base area, in step 746, the processor 102 (or the page adjustment unit 1042 of the page preliminary processing unit 1038) executes adjustment processing for displaying a page or a screen. To do. Thereby, in the page to be displayed, the size of a certain area is generated and arranged at a magnification that is relatively enlarged or reduced according to the degree of access, and the arrangement of each area is adjusted. Thereby, all the areas can be displayed on one page, an area with a high degree of access is easy to see and operate, and an area with a low degree of access can be maintained as needed.

  FIG. 13 shows a specific flowchart of step 742 (area expansion processing) in FIG. 12B.

  Referring to FIG. 13, in step 802, the processor 102 (or the area enlargement unit 1040) obtains the current size of one area, ie, the initial size before enlargement, from the page form data. The size may be represented by the number of vertical and horizontal pixels, for example.

  In step 804, the processor 102 (or the area enlargement unit 1040) obtains the position coordinates of the current area in the page or its base area, for example, the coordinates (x, y) of the upper left vertex of the area. The size may be represented by pixel positions in the x and y directions, for example.

  In step 806, the processor 102 (or the area enlargement unit 1040), based on the cumulative access degree (FIG. 6B), the enlargement start threshold value, the enlargement threshold increment value, and the enlargement rate increment value (FIG. 6C) for the current area. Thus, the temporary magnification (display magnification) or enlargement ratio M of the current area is calculated. In this case, the provisional magnification M may be larger than 1 or 1 or more (> 1 or ≧ 1). The provisional magnification M of the area that is not enlarged can be regarded as 1.

  Next, the processor 102 (or the area enlargement unit 1040) temporarily stores the calculated temporary magnification M of the current area in the storage device 130 or 330 or the memory 104 via the application runtime. Alternatively, the processor 102 (or the area enlargement unit 1040) updates the temporary magnification M of the area stored in the storage device 130 or 330 or the memory 104 with the calculated new temporary magnification M of the current area. May be.

For example, if the cumulative access degree of the area is 80, the enlargement start threshold is 50, the enlargement threshold increment value is 10, and the enlargement rate increment value is 7%, the temporary magnification or enlargement rate M of the area is as follows: Calculated.
Temporary magnification or magnification M = (80-50) / 10 × 7 = 21%.

  In step 808, the processor 102 (or the area enlargement unit 1040) determines the temporary size (display size) of the area after enlargement based on the original or initial size of the current area and its provisional magnification or enlargement ratio M. ) (Vertical and horizontal dimensions). The size of the area that is not enlarged is the initial size, which can be regarded as a temporary size. The processor 102 (or the area enlargement unit 1040) temporarily stores the provisional size of the enlarged area in the storage device 130 or 330 or the memory 104 via the application runtime. Alternatively, the processor 102 (or the area enlargement unit 1040) may update the temporary size of the area stored in the storage device 130 or 330 or the memory 104 with the new temporary size of the area.

  In parallel therewith, provisional sizes and positions may be calculated for display objects representing labels, text, check boxes and / or software buttons in the area. That is, when the processor 102 (or the area enlargement unit 1040) calculates the provisional size of the area, based on the initial size and position of each display object in the area and the provisional magnification or enlargement factor M, the processor 102 (or the area enlargement unit 1040) You may calculate the temporary size and position after expansion of the display object. In this case, the temporary size and position of the display object are stored or updated in the storage device 130 or 330 or the memory 104 in the same manner as the temporary size of the area.

For example, when the original or initial size of the area is 80 pixels vertically and 150 pixels horizontally, and the enlargement ratio M is 21%, the provisional size of the area after enlargement is calculated as follows.
Vertical size (height) of the enlarged area = 80 × 1.21 = 96.8 pixels,
The horizontal size (width) of the enlarged area = 150 × 1.21 = 181.5 pixels.
Here, the fraction after the decimal point may be rounded off, rounded down or rounded up.

  In step 810, the processor 102 (or the area enlargement unit 1040) sets the coordinates of the vertex of the current area in the base area, for example, the coordinates of the upper left vertex as the reference point (center), and calculates the calculated provisional magnification M or provisional. Increase the size of the current area according to the size of. At this stage, the enlarged area may spatially overlap with adjacent areas on its right and bottom sides.

  Similarly, when the processor 102 (or the area enlargement unit 1040) enlarges the size of the area, the processor 102 (or the area enlargement unit 1040) displays the display object in the area according to the provisional size and position of the display object in the area. May be enlarged.

  In this way, in steps 802 to 810 (step 742), processing for enlarging the size is performed on an area having an access degree equal to or greater than the expansion start threshold.

  FIG. 14 shows a specific flowchart of step 746 (page adjustment processing) in FIG. 12B.

  Referring to FIG. 14, in step 822, processor 102 (or page adjustment unit 1042) moves the position coordinates of each area so that adjacent areas do not overlap each other for all areas including the enlarged area described above. For example, it is adjusted by moving it to the right and down. Next, the processor 102 (or the page adjustment unit 1042) determines a first temporary area (display area) having a smaller area that encompasses or surrounds all the non-overlapping areas as a temporary enlarged base area. Next, the processor 102 (or the page adjustment unit 1042) temporarily selects a second temporary area (display area) having a smaller area that includes or surrounds all the non-overlapping areas and the first temporary area. It is determined as an enlarged page.

  The size of the first temporary area or temporary enlarged base area is determined to be the same or different magnification in the vertical and horizontal directions with respect to the initial size of the original base area. May be. In addition, the size of the second temporary area or the temporary enlarged page is determined to be the same or different magnification in the vertical and horizontal directions with respect to the initial size of the original page. May be.

  In this way, all the areas arranged in the page fall within the vertical and horizontal size ranges of the first temporary area or the second temporary area. However, the first or second temporary area is similar to the original base area or page size in the vertical and horizontal directions and has the same magnification size. A blank area can be formed either on the lower side in the vertical direction or on the right side in the horizontal direction.

  The processor 102 (or the page adjustment unit 1042) stores each size of the enlarged area, the first temporary area or the temporary enlarged base area, the second temporary area, or the temporary enlarged page as the storage device 130 or 330 or temporarily stored in the memory 104. The storage or update of each size may be performed via the application runtime and the OS.

  Next, the processor 102 (or the page adjustment unit 1042) acquires and determines the size of the above-described second temporary area or temporary enlarged page from the storage device 130 or 330 or the memory 104. The acquisition of the size may be performed from the OS via the application runtime.

  In step 824, the processor 102 (or the page adjustment unit 1042) calculates a ratio R of the initial size of the page before the area enlargement process to the size of the second temporary area or the temporary enlarged page. The initial size of the page is that acquired in step 730 of FIG. 12A. The ratio R is equal to the vertical ratio Rv and the horizontal ratio when the two vertical (height) ratios and the two horizontal (width) ratios between the two sizes of the page before and after the area enlargement process are different. The ratio Rh may be different. Alternatively, the ratio R is the ratio between the vertical ratio and the horizontal ratio when the two vertical (height) ratios and the two horizontal (width) ratios between the two sizes of the page before and after the area enlargement process are different. Any one of the ratios, that is, the smaller ratio or the larger ratio may be used. As will become clear later, the display effect of the finally displayed page after adjusting the display size is slightly different depending on which ratio is selected. The processor 102 (or the page adjustment unit 1042) determines the ratio R as the adjustment magnification or reduction ratio R for displaying all areas in the page.

  In step 826, the processor 102 (or the page adjustment unit 1042) executes the loop processing of steps 826 to 832 for the base area of the page by the number of areas.

  In step 828, the processor 102 (or the page adjustment unit 1042) acquires the size or provisional size of all the areas that are the enlarged area and the area that is not enlarged. For this purpose, the processor 102 (or the page adjustment unit 1042) obtains the initial size and the provisional size or provisional magnification M of the area stored in the storage device 130 or 330 or the memory 104 from the OS via the application runtime. get.

  In step 830, the processor 102 (or the page adjustment unit 1042) determines the ratio R of the size of the page before and after the area enlargement and the second temporary area or temporary enlarged page, that is, the display adjustment magnification or reduction ratio described above. Based on R (Rv, Rh), the size of each area is calculated and changed or reduced. Each area has the coordinates of the vertex of the current area in the temporary enlarged base area, for example, the coordinates of the upper left vertex as the reference point (center), and the size (display size) of the current area according to the adjustment magnification or the reduction ratio R. Reduced.

  At that time, the processor 102 (or the page adjustment unit 1042) determines the size and position of the display object in each area, similarly to each area, based on the adjustment magnification for display or the reduction ratio R (Rv, Rh). It may be changed and reduced.

  For this purpose, the processor 102 (or the page adjustment unit 1042) multiplies the size or provisional size of each area by the display adjustment magnification R (Rv, Rh) to obtain the reduced and changed size of each area. calculate. For the enlarged area, the initial size is multiplied by the provisional magnification M (= temporary size), and the display adjustment magnification R (Rv, Rh) is multiplied by that to calculate the changed size. May be. Alternatively, the processor 102 (or the page adjustment unit 1042) multiplies the provisional magnification M of each area by the adjustment magnification R (Rv, Rh) to display the display magnification S (Sv, Sh) with respect to the original initial size of each area. The display size of the area may be calculated by multiplying the initial size of each area by the display magnification S. The size and position of the display object in each area may be calculated in the same manner as that area. At this stage, each reduced area may have a space between its adjacent areas.

  After exiting the loop of steps 826-832, the procedure proceeds to step 834. In step 834, the processor 102 (or the page adjustment unit 1042) sets the area after the reduction in the vertical direction and the horizontal direction toward the upper left vertex of the base area so that the adjacent areas are not separated from each other or the adjacent areas are close to each other. Move and adjust the position coordinates.

  Next, the processor 102 (or the page adjustment unit 1042) calculates, adjusts, and changes the display size of the base area so as to surround all the reduced areas with a smaller area. Further, the processor 102 (or the page adjustment unit 1042) calculates, adjusts, and changes the display size of the page so as to surround all the reduced areas and the base area with a smaller area.

  The adjusted size of the page may be the same as the initial size of the page. The adjusted size of the base area may be the initial size of the base area. Thereby, the operability of the adjusted page can be generally the same as that of the initial page.

  Alternatively, the adjusted vertical and horizontal sizes of the page may have one of the same size as the initial size and the other size different from the initial size, for example, larger or smaller. Also, one of the vertical and horizontal sizes of the base area may be the same as the initial size, and the other may be different from the initial size, for example, it may be larger or smaller. As a result, the adjusted page can be operated in the same direction as the initial page in one of the vertical and horizontal directions. If one of the vertical and horizontal sizes of the adjusted page is smaller than the initial size, the page can be operated in a space smaller than the initial page. When one of the vertical and horizontal sizes of the adjusted page is larger than the initial size, the page can be operated in a state where each area is displayed larger in a space larger than the initial page.

  The processor 102 (or the page adjusting unit 1042) further adjusts each reduced area by stretching it in the vertical (down) direction and / or the horizontal (right) direction so that there is no extra space between adjacent areas. May be. At that time, the size and arrangement of the display object in each area may or may not be changed. Thereafter, the procedure exits the routine of FIG.

  15A to 15E are diagrams for explaining an example of changes in the size and position of each area 5402 to 5418 of the page 52 of the page form B from the area expansion process to the page adjustment process for the page of the initial size. However, the page images of FIGS. 15A to 15D are theoretical or computational and may not be actually drawn on the memory. Finally, the page image of FIG. 15E may be drawn in the page area of the memory 104. The display page of FIGS. 15A and 15E shows an example of a schematic page or screen for inputting a certain item and searching for order information for a business application.

  FIG. 15A shows an example of an initial page form B page image obtained in steps 730 and 802 of FIG. 12A. The page image of FIG. 15A is also a page image when the cumulative access degrees in the area access degree table of FIG. 6B are all 0 (zero). In FIG. 15A, for example, areas 5402, 5404, 5406, 5412, 5414, 5416, and 5418 are arranged at the initial magnification (1) or size on the base area 504 of the page 52 of the page form B. The areas 5402 to 5418 of the page 52 have area boundaries indicated by, for example, thick broken lines between adjacent areas. In FIG. 15A, the area 58 may be an area that is fixed to the page 52 for representing the page name of the page 52 and is not enlarged or reduced.

  FIG. 15B shows an example of the page 52 including areas 5404, 5414, and 5416 having sizes enlarged according to the cumulative access degree in the area enlargement process in step 742 (FIG. 13) of FIG. 12B.

  The provisional magnification or enlargement ratio M of each size of the areas 5404, 5414, and 5416 is the cumulative access degree in the area access degree table (FIG. 6B) and the expansion start threshold in the action definition table (FIG. 6C). In accordance with the enlargement threshold increment value and the enlargement rate increment value. Each of the areas 5404, 5414, and 5416 is enlarged in the lower right direction around the upper left vertex according to the provisional magnification or enlargement ratio M. The plurality of display objects in each of the areas 5404, 5414, and 5416 are similarly enlarged with respect to their temporary sizes and positions.

  The area 5404 is, for example, according to the cumulative access degree “115”, the enlargement start threshold “75”, the enlargement threshold increment value “every 20”, and the enlargement rate increment value “5%” in the definition ID “ACT02” ((115 −75) / 20 × 5%) enlarged by 10%. Areas 5414 and 5416 include, for example, a cumulative access degree value “70”, an enlargement start threshold “135”, an enlargement threshold increment value “every 20”, and an enlargement rate increment value “5%” in the definition ID “ACT02”. According to ((135-75) / 20 × 5%).

  At this stage, in FIG. 15B, each of the enlarged areas 5404, 5414, 5416 is spatially overlapped with its respective adjacent area on the right and / or lower side because the position has not been adjusted.

  FIG. 15C shows the second temporary area or the temporary area determined to surround the areas 5402 to 5418 and the first temporary area after the area expansion processing in step 746 of FIG. 12B (step 822 of FIG. 14). An example of an enlarged page 53 (outer broken line) is shown.

  The first temporary area or temporary enlarged base area 505 is also determined so as to surround the areas 5402 to 5418 after the area enlargement process. The second temporary area or temporary enlarged page 53 includes a first temporary area or base area 505. In this case, the positions of the areas 5402 to 5418 are moved and adjusted so that adjacent areas do not overlap and approach each other. The second temporary area or temporary enlarged page 53 has an enlarged size so as to surround all areas 5402 to 5418 of the first temporary area or temporary enlarged base area 505 with a smaller area. . The second temporary region or page 53 may have the same aspect ratio as the initial page 52 or a different aspect ratio.

  15D shows the second temporary area or temporary enlarged page 53 and areas 5402 to 5418 in FIG. 15C in step 746 in FIG. 12B (steps 830 and 834 in FIG. 14). Alternatively, an example of the page 52 ′ reduced so as to fit in both sizes is shown.

  The sizes of the base area 504 and the areas 5402 to 5418 in the reduced page 52 ′ are the same adjustment magnification or reduction ratio R (Rv = Rv = size) from the size in the second temporary area or temporary enlarged page 53 in FIG. 15C. Rh). The positions of the areas 5402 to 5418 are further moved and adjusted so that the adjacent areas approach each other. The size of the base area 504 may be calculated, adjusted, and changed so as to surround all the reduced areas 5402 to 5418 with a smaller area. The size of the page 52 ′ may be calculated, adjusted, and changed so as to surround the base area 504 and all the reduced areas 5402 to 5418 with a smaller area. In FIG. 15D, areas 5404, 5414, 5416 are enlarged from the initial size in FIG. 15A, and the other areas 5402, 5406, 5412, 5418 are reduced from the initial size in FIG. 15A. The plurality of display objects in each area 5402 to 5418 are also reduced in size and position in the same manner as in each area.

  FIG. 15E shows an example of an image of the display page 52 ′ after the size adjustment of the base area 504 and the areas 5402 to 5418 in the page 52 ′ after the size adjustment in step 746 of FIG. 12B (step 834 of FIG. 14). Show.

  In FIG. 15E, the base area 504 surrounds the areas 5402 to 5418, and each area 5402 to 5418 is moved to a position close to the adjacent area so that no extra space is formed between the adjacent areas. Respectively stretched or enlarged in the longitudinal and / or lateral direction.

  In FIG. 15E, in each area 5402 to 5416, one or more labels in which the initial size or the temporary size is reduced are arranged. In each of the areas 5402 to 5406, 5414, and 5416, one or more text fields in which the initial size or the temporary size is reduced are arranged. In each area 5412 and 5416, a plurality of check boxes in which the initial size or the temporary size is reduced are arranged. In the area 5418, a plurality of software buttons whose initial size or temporary size is reduced are arranged. In an area 5414, as an example of access by the user, text entered in the text field and a mouse cursor locus 5440 are shown. In area 5416, as an example of user access, a check symbol input in a check box (B) is shown.

  In page 52 'of FIG. 15E, areas 504, 5414, and 5416 with higher access levels are enlarged so that visibility and operability are improved, while areas with lower access levels are also displayed and accessible at the same time. To do. If the display page 52 ′ has the same size as the initial page 52, the display page 52 ′ can be generally viewed and manipulated with generally the same spatial sense. The display page 52 ′ has the same width or height as the initial page 52. If the display page 52 ′ has a height or width larger than the initial page 52, the entire display page 52 ′ can be viewed by scrolling or moving extra. The display page 52 ′ has the same width or height as the initial page 52. When the display page 52 ′ has a smaller height or width than the initial page 52, the display page 52 ′ can be manipulated as a whole in a space smaller than the initial page 52. .

  In the embodiment, the page may be a screen, a window, a web page, or a screen screen of the display unit 122. Accordingly, the size of the page may be the same as or different from the size of the screen screen of the display unit 122. For example, the page may be one page displayed in one window on the screen screen of the display unit 122. When the page is larger than the screen screen of the display unit 122, the entire page can be viewed by scrolling or moving the screen using the input unit 126, for example.

  FIG. 16 is a diagram for manually setting the cumulative access degree in the area access degree table (FIG. 6B) executed by the processor 102 of the information processing device 10 or the processor 302 of the server device 30 according to the application page drawing infrastructure module. The example of the flowchart of is shown.

  FIG. 17 shows an access level setting screen for manual setting of the access level displayed on the display unit 122.

  When the user starts an application for manually setting the cumulative access degree in the area access degree table (FIG. 6B) on the information processing device 10, the application / page drawing infrastructure module is called, for example, the access shown in FIG. The degree setting screen is displayed. The user operates the input unit 126 to input the page ID (eg, GYOMU01) and the user ID of the page form for which the access degree is to be set on the access degree setting screen, and clicks the software button “Search”. And execute the search.

  Referring to FIG. 16, in step 852, processor 102 (or its access level setting unit 1050) searches the area access level table (FIG. 6B) based on the page ID and user ID input by the user.

  In step 854, the processor 102 (or the access level setting unit 1050) displays a list of all area names of the page form of the page ID related to the input user ID. At that time, a list of only area names for which the access degree can be set may be displayed.

  In step 856, the processor 102 (or the access level setting unit 1050) selects an area name for setting the access level according to the area selection by the user input unit 126.

  In step 858, the processor 102 (or the access level setting unit 1050) displays the current cumulative access level of the selected area according to the operation of the user input unit 126.

  In step 860, the processor 102 (or the access level setting unit 1050) changes the cumulative access level value according to the key input operation of the user input unit 126. Next, the processor 102 (or the access level setting unit 1050) updates the value of the cumulative access level in the area access level table (FIG. 6B) in response to pressing of the software button “registration”. Thereafter, the procedure exits the routine of FIG.

  Thereafter, when the application is started on the information processing device 10 by the user, the application page is displayed according to the flowcharts of FIGS. 11 to 13 and corresponds to each cumulative access degree according to the manually set cumulative access degree. Each area to be displayed is relatively enlarged. Further, in parallel therewith, the cumulative access degree may be updated according to the flowcharts of FIGS.

  In this way, by setting the cumulative access degree in advance, the cumulative access degree is fixedly set or 0 as an initial value according to the assumed use condition regardless of the actual past use history of the application. It can be set to a value other than (zero). In addition, by setting the cumulative access degree for each application, each page, and each user in advance, the relative enlarged display of the application page area can be set in advance for each application, each page, and each user.

  Similar to the degree of access, each value in each table of FIGS. 6A to 6D is set and changed on another setting or maintenance screen by the processor 102 of the information processing device 10 or the processor 302 of the server device 30 according to the application / page drawing infrastructure module. You may be able to do that. For example, the event type, conversion unit, converted access degree in FIG. 6A, enlargement start threshold in FIG. 6C, enlargement threshold increment value, maximum enlargement rate, and definition ID for the page ID in FIG. 6D can be set by the user. It's okay.

  On the other hand, the cumulative access degree in the area access degree table (FIG. 6B) is set to the initial value (0) periodically, for example, every week or every month, or whenever a certain maximum set value is reached. ) Or may be reduced by some ratio (eg, 1/3, 1/2, 2/3). Accordingly, the relative enlarged display form of the application page area can be periodically gradually changed in accordance with the change of the access form of the application page area by the user.

  According to the embodiment, a certain part or object of the page or screen can be relatively enlarged and displayed while ensuring the listability or visibility of a wide area of the page or screen. The efficiency of the operation becomes higher. Further, according to the embodiment, since the cumulative access degree is set for each application, each page, and each user, it is possible to realize display of an application page suitable for each user's usage pattern.

  According to the embodiment, it is possible to construct a function of relatively expanding an area in the application / page drawing infrastructure module. Therefore, various applications including page display can be implemented or operated by using the application / page drawing infrastructure module without making major modifications or additions to the respective applications.

  All examples and conditional expressions given here are intended to help the reader understand the inventions and concepts that have contributed to the promotion of technology, such examples and It is understood that the present invention is not limited to the conditions, and that the organization of such examples in the specification is not related to the superiority or inferiority of the present invention. Although embodiments of the present invention have been described in detail, it will be understood that various changes, substitutions and variations can be made thereto without departing from the spirit and scope of the invention.

Regarding the embodiment including the above examples, the following additional notes are further disclosed.
(Additional remark 1) With reference to the memory | storage part which stores the access degree from the user with respect to each of the some object displayed on a page, according to each said degree of access of these objects, these objects in the page For each tentative display magnification,
According to the provisional display magnification of each of the plurality of objects, the provisional display size of each of the plurality of objects is determined, and the size of the display area including the plurality of objects having the provisional display size is obtained. ,
Based on the ratio of the display size of the page to the size of the display area, obtain the adjustment magnification of the plurality of objects,
A display processing program for causing an information processing apparatus to execute a process of adjusting the display size of the plurality of objects according to the adjustment magnification and displaying the plurality of objects with the adjusted display size on a display page.
(Additional remark 2) Furthermore, the process which updates the access degree of the said accessed object in the said memory | storage part according to the access to any one of these displayed several objects by a user's operation is said information processing The display processing program according to attachment 1, which is executed by the apparatus.
(Additional remark 3) The display processing program of Additional remark 1 or 2 which makes the said information processing apparatus perform the process which adjusts the size of the said display page further according to the said adjustment magnification and the initial display size of the said page.
(Supplementary Note 4) The adjustment of the display size of the plurality of objects includes adjusting the display size and the position of the plurality of objects of the adjustment magnification so that they do not overlap each other and there is no extra space between them. The display processing program according to any one of appendices 1 to 3.
(Supplementary note 5) The display processing program according to any one of supplementary notes 1 to 4, wherein one of the vertical and horizontal sizes of the display page is the same as that of the initial display size of the page.
(Additional remark 6) With reference to the memory | storage part which stores the access degree from the user with respect to each of the some object displayed on a page, according to each said degree of access of these objects, these objects in the page For each tentative display magnification,
According to the provisional display magnification of each of the plurality of objects, the provisional display size of each of the plurality of objects is determined, and the size of the display area including the plurality of objects having the provisional display size is obtained. ,
Based on the ratio of the display size of the page to the size of the display area, obtain the adjustment magnification of the plurality of objects,
A display processing method in which an information processing apparatus executes a process of adjusting a display size of the plurality of objects according to the adjustment magnification and displaying the plurality of objects with the adjusted display size on a display page.
(Supplementary Note 7) A storage unit that stores the degree of access from the user to each of the plurality of objects displayed on the page;
Referring to the storage unit, the provisional display magnification of each of the plurality of objects in the page is obtained according to the access degree of each of the plurality of objects, and the provisional display magnification of each of the plurality of objects is obtained. And determining an tentative display size of each of the plurality of objects and obtaining a size of a display area including the plurality of objects having the tentative display size,
Based on the ratio of the display size of the page to the size of the display area, the adjustment magnification of the plurality of objects is obtained, the display size of the plurality of objects is adjusted according to the adjustment magnification, and the adjustment is performed on the display page. An adjustment unit for displaying the plurality of objects in a display size;
An information processing apparatus including:

5 Network 10 Information Processing Device 102 Processor 104 Memory 122 Display Unit 128 Input Unit 130 Storage Device 30 Server Device 302 Processor 304 Memory 330 Storage Device

The event type may include, for example, area stay time, mouse movement length, number of clicks, number of touches on the touch panel, number of flicks, number of gestures, and the like in one area. The event type may include recognition data of the user's expression such as position, movement, and voice by a sensor such as a gesture recognition device (kinect) as an input device. The conversion unit represents the minimum unit of the detection value or access value converted into the access degree when the detection value or access value related to the input operation for each event type is converted into the access degree. The access degree after conversion represents the access degree or the access frequency given to the detected value or access value of the input operation of the conversion unit .

Claims (5)

With reference to a storage unit that stores the degree of access from the user to each of the plurality of objects displayed on the page, each temporary object of the plurality of objects on the page is determined according to the degree of access of each of the plurality of objects. The display magnification of
According to the provisional display magnification of each of the plurality of objects, the provisional display size of each of the plurality of objects is determined, and the size of the display area including the plurality of objects having the provisional display size is obtained. ,
Based on the ratio of the display size of the page to the size of the display area, obtain the adjustment magnification of the plurality of objects,
A display processing program for causing an information processing apparatus to execute a process of adjusting the display size of the plurality of objects according to the adjustment magnification and displaying the plurality of objects with the adjusted display size on a display page.   Further, the information processing apparatus executes a process of updating the access degree of the accessed object in the storage unit in response to an access to any one of the displayed objects by a user operation. The display processing program according to claim 1.   The display processing program according to claim 1, further causing the information processing apparatus to execute a process of adjusting a size of the display page according to the adjustment magnification and an initial display size of the page. With reference to a storage unit that stores the degree of access from the user to each of the plurality of objects displayed on the page, each temporary object of the plurality of objects on the page is determined according to the degree of access of each of the plurality of objects. The display magnification of
According to the provisional display magnification of each of the plurality of objects, the provisional display size of each of the plurality of objects is determined, and the size of the display area including the plurality of objects having the provisional display size is obtained. ,
Based on the ratio of the display size of the page to the size of the display area, obtain the adjustment magnification of the plurality of objects,
A display processing method in which an information processing apparatus executes a process of adjusting a display size of the plurality of objects according to the adjustment magnification and displaying the plurality of objects with the adjusted display size on a display page. A storage unit for storing the degree of access from the user to each of a plurality of objects displayed on the page;
Referring to the storage unit, the provisional display magnification of each of the plurality of objects in the page is obtained according to the access degree of each of the plurality of objects, and the provisional display magnification of each of the plurality of objects is obtained. And determining an tentative display size of each of the plurality of objects and obtaining a size of a display area including the plurality of objects having the tentative display size,
Based on the ratio of the display size of the page to the size of the display area, the adjustment magnification of the plurality of objects is obtained, the display size of the plurality of objects is adjusted according to the adjustment magnification, and the adjustment is performed on the display page. An adjustment unit for displaying the plurality of objects in a display size;
An information processing apparatus including:

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