JP5110522B2 - Portable terminal device and program - Google Patents

Description

  The present invention relates to a portable terminal device and a program that execute a predetermined process according to a set time set corresponding to the predetermined process.

In general, the alarm notification function installed in a mobile terminal device such as a mobile phone can be used as a wake-up function, but the wake-up time is not always constant and often varies depending on the day of the week. When using as a wake-up function, the setting of alarm time (wake-up time) is changed as necessary. In this case, changing the alarm time setting every time the day of the week changes places an operational burden on the user. Conventionally, alarm notifications are provided on holidays in conjunction with the calendar function that stores holiday information. A technique for avoiding this is known (see Patent Document 1).
JP-A-2005-323047

   However, in the above-described prior art, only the alarm is set to the non-notification state in conjunction with the calendar function, and if it is not related to the day of the week or holiday, the alarm notification is performed at the set time. There is a need to change the alarm notification set time by manual operation, which makes the operation troublesome and risks forgetting to return to the previous set time.

  The subject of this invention is enabling it to change the setting time set corresponding to a predetermined process according to a user's action.

The invention according to claim 1 is a portable terminal device that executes a predetermined process according to a set time set corresponding to the predetermined process, and whether or not the user action is a specific action Monitoring means for detecting the time, time acquisition means for acquiring the time when the monitoring means detects the specific action as action time, and time storage means for storing the standard action time for causing the specific action And a time change means for changing the set time of the predetermined process based on the action time obtained by the time acquisition means and the standard action time, and the action history obtained by the time acquisition means as an action history. And a history storage unit that stores the standard action time and an update unit that updates the standard action time based on the action history .
Furthermore, a program for realizing the main functions shown in the invention described in claim 1 is provided to the computer (the invention described in claim 7 ).
The invention according to claim 2 is a portable terminal device that executes the predetermined process in accordance with a set time set corresponding to the predetermined process, and whether or not the user action is a specific action Monitoring means for detecting the time, time acquisition means for acquiring the time when the monitoring means detects the specific action as action time, and time storage means for storing the standard action time for causing the specific action And a time changing means for changing the set time of the predetermined process based on the action time obtained by the time acquisition means and the standard action time, and the monitoring means is a user action The operation status is monitored to detect whether or not a specific operation has been performed, and the time acquisition unit acquires the time when the specific operation is detected by the monitoring unit as an action time. And said that there was Unishi.
Furthermore, the main functions shown in the invention of claim 2 described above are realized for the computer.
A program for providing the program is provided (the invention of claim 8).

The invention described in claim 1 or 2 may be as follows.
The predetermined process is a notification process for performing an alarm notification, and the time changing means changes an alarm notification time which is a set time of the notification process (the invention according to claim 3 ).

The predetermined process is a schedule management process for storing and managing schedule information, and the time changing means changes a schedule time which is a set time of the schedule information (
Invention of Claim 4 ).

In the invention according to claim 4 , the time change means may control whether or not to change the set time of the schedule information based on the type of schedule information (invention according to claim 5 ).

The invention according to claim 1, 3, or 4, wherein the monitoring means detects whether or not the action is a specific action based on whether or not the current position is acquired and is at the specific position, and the time acquisition means You may make it acquire the time when it is detected by the means that it exists in a specific position as action time (invention of Claim 6 ) .

  According to this invention, the set time set corresponding to the predetermined process can be changed according to the user's action, and the set time can be appropriately changed without performing a special operation. It is possible to respond flexibly to the actual situation.

(Embodiment 1)
The first embodiment of the present invention will be described below with reference to FIGS.
This embodiment exemplifies a case where the present invention is applied to a mobile phone as a mobile terminal device, and FIG. 1 is a block diagram showing basic components of the mobile phone.
This mobile phone has a voice call function, an e-mail function, an Internet connection function (Web access function), a position acquisition function, an alarm notification function, and the like. The position acquisition function constitutes a GPS (Global Positioning System) unit, for example, and is a function for receiving and acquiring the current position (longitude / latitude information) using a satellite and a ground control station. The alarm notification function is a function that performs alarm notification that generates an alarm sound or the like when the alarm notification time (set time) is reached, and can also be used as an alarm function.

  The control unit 1 operates by supplying power from the power supply unit 2 including a secondary battery, and controls the overall operation of the mobile phone according to various programs in the storage unit 3. Are provided with a CPU (Central Processing Unit) and a memory. The storage unit 3 is an internal memory and has a program area and a data area. In this program area, a program for realizing the present embodiment is stored in accordance with an operation procedure shown in FIGS. Has been. The data area of the storage unit 3 stores an alarm data memory AD, a standard position memory BP, a standard time memory BT, a time history table CR, a time zone frequency table TF, a time change table TC, etc., which will be described later. .

  The communication unit 4 includes a radio unit, a baseband unit, a demultiplexing unit, and the like. For example, the communication unit 4 transmits and receives data to and from the nearest base station when operating a voice call function, an e-mail function, and an Internet connection function. During operation of the voice call function, a signal is taken from the receiving side of the baseband unit and demodulated into a received baseband signal, and then the voice is output from the calling speaker SP via the telephone unit 5, and from the calling microphone MC. Input voice data is captured from the telephone unit 5 and encoded into a transmission baseband signal, which is then given to the transmission side of the baseband unit and transmitted from the antenna. On the other hand, display data received and acquired via the communication unit 4 by an e-mail function, an Internet connection function, or the like is given to a high-definition display unit 6 using liquid crystal, organic EL, etc., and is displayed and output.

  The operation unit 7 performs dial input, character input, command input, and the like. The control unit 1 sets, for example, telephone call processing as well as alarm notification time as processing according to the operation signal from the operation unit 7. Various processing such as processing to be executed is executed. The notification unit 8 includes a sound speaker, a vibration motor, an LED (light emitting diode), and the like, and is driven when an incoming call is notified and also when an alarm is notified. The clock unit 9 obtains the current date and time, and the control unit 1 accesses the clock unit 9 and acquires the current date and time. The position acquisition unit 10 constitutes the above-described position acquisition function, and the control unit 1 periodically accesses the position acquisition unit 10 to acquire the current position, and monitors whether or not the specific position is present. When it is detected that the user is at a specific position, the current time is acquired from the clock unit 9. That is, the control unit 1 monitors the user's behavior to monitor whether or not it is a specific behavior, that is, whether or not the user is in a specific position, and when a specific behavior (specific position) is detected, Is acquired as the action time.

  And the control part 1 changes the setting time (for example, alarm notification time) of a predetermined process (for example, alarm notification process) from the above-mentioned action time and the standard action time registered beforehand. . That is, the control unit 1 acquires the current position from the position acquisition unit 10 and compares it with a pre-registered standard position to determine whether or not the specific action is based on whether or not the user is at a specific position (for example, home position). When it is detected whether it is in a specific position (for example, whether it has returned home), the current time is acquired as the action time (current return time) from the clock unit 9, and then the action time The alarm notification processing set time (alarm notification time) is changed from the standard action time (standard return time).

FIG. 2 is a diagram for explaining the alarm data memory AD, the standard position memory BP, and the standard time memory BT.
FIG. 2A shows the alarm data memory AD. The alarm data memory AD stores the alarm notification time as the set time of the alarm notification function, and the control unit 1 acquires the current date and time from the clock unit 9 and monitors whether or not the alarm notification time has been reached. When the alarm notification time is reached, an alarm notification that generates an alarm sound or the like is performed.

  In the example shown in the figure, “08:30 (8:30 am)” is stored as the alarm notification time. FIG. 2B is a diagram showing the standard position memory BP. The standard position memory BP stores the above-described standard position, and stores longitude and latitude information of the home position as a standard position. FIG. 2C shows the standard time memory BT. The standard time memory BT stores a standard action time (standard return time). In the illustrated example, “19:00” is stored as the standard return time.

FIG. 3 is a diagram for explaining a time history table CR, a time-based frequency table TF, and a time change table TC, and FIG. 3A shows the time history table CR.
For example, when the current time (hour / minute information) at the time when it is detected that the user has returned home according to the home position is acquired as the current home time, this time history table CR is sequentially used as the home time history. In this configuration, the time of returning home for a predetermined period (for example, one month) can be stored as history information.

FIG. 3B is a diagram showing a frequency table TF for each time zone.
The time table by frequency table TF is a table in which the time of return in the time history table CR is classified by time zone, and the number of times of return (frequency) is tabulated for each time zone. That is, a table that stores the number of times of returning (frequency) for each time zone obtained by converting the contents of the time history table CR into a time zone and the number of times, and in the illustrated example, between “18:46 to 21:35” This is a case where the number of times of returning home (frequency) is stored for each 10-minute time zone. The control unit 1 refers to the contents of the frequency table TF for each time zone, estimates the center time of the time zone with the highest frequency as the standard home time, and sets the home time as a new standard time to the standard time memory BT. The contents are updated by overwriting. Therefore, the content of the standard time memory BT is not a fixed value, but a fluctuation value that is updated according to the content of the time zone frequency table TF. In the illustrated example, since the frequency “4” is the highest value, “19:00” indicating the central time of the time zone “18:56 to 19:05” is the standard time memory as the standard return time. Set to BT.

FIG. 3C shows the time change table TC.
This time change table TC indicates the value (alarm notification time) of the alarm data memory AD according to the time difference between the current return time (current time when returning) and the standard return time stored in the standard time memory BT. ) Is stored. In the illustrated example, the alarm notification time is changed within a range of ± 3 hours. When the alarm notification time is “08:30”, “05:30 to 11:30” is illustrated. Within this range, the alarm notification time is changed.

  That is, the time change table TC stores “time difference t” and “change time”. If “time difference t” is “−2 hours <t ≦ −1 hour”, the “change time” is “ −1 hour ”is stored, and if“ +1 hour ≦ t <+2 hour ”,“ +1 hour ”is stored as the“ change time ”. When t ≦ −3 hours, “−3 hours” is stored as the “change time”, and when +3 hours ≦ t, “+3 hours” is stored as the “change time”. As a result, the alarm notification time is changed within a range of ± 3 hours.

  Next, the operation concept of the mobile phone according to the first embodiment will be described with reference to the flowcharts shown in FIGS. Here, each function described in these flowcharts is stored in the form of a readable program code, and operations according to the program code are sequentially executed. In addition, the operation according to the above-described program code transmitted via the transmission medium can be sequentially executed. This also applies to other embodiments described later, and in addition to the recording medium, an operation specific to this embodiment can be executed using a program / data supplied externally via a transmission medium.

FIG. 4 is a flowchart showing the overall operation of the mobile phone that is started to be executed when the power is turned on.
First, the control unit 1 activates the communication unit 4 to perform standby processing for registering the current position, and reads out a predetermined standby image and displays it as a standby screen to enter a voice call standby state (step A1). . When it is detected that there is an incoming voice call in this standby state (YES in step A2), the notification unit 8 is driven to perform an incoming notification that generates an incoming melody or the like, and then responds to an incoming call response operation (off-hook operation). (YES in step A3), call processing is performed in order to make the call ready (step A4). Then, in response to the on-hook operation (YES in step A5), line disconnection processing is performed (step A6), and then the standby state is returned (step A1).

 Further, when the current position acquisition timing (for example, every 1 minute interval) is reached in the standby state (YES in step A7), the current position is acquired by accessing the position acquisition unit 10 (step A8). ), The standard position memory BP is accessed, the standard position is read (step A9), and it is checked whether the current position matches the standard position (returned home) by comparing the current position with the standard position (step A10). ). Here, when the two do not coincide with each other, when the user has not returned home (NO in step A10), the process returns to the standby state (step A1), but when the return is detected due to the match between the current position and the standard position. (YES in step A10), the current time (current time of going home) is acquired from the clock unit 9 (step A11), and standard time estimation processing is performed based on the current time (step A12).

FIG. 5 is a flowchart for explaining the standard time estimation process (step A12 in FIG. 4) in detail.
First, the control unit 1 additionally stores the acquisition time (current return time) in the time history table CR (step B1), and then specifies a time zone corresponding to the acquisition time with reference to the time zone frequency table TF ( Step B2). Here, when the corresponding time zone does not exist, for example, when the acquisition time is out of the existing time zone such as “21:40”, a new time zone (for example, 21:36 to 21:45) and newly set in the frequency table TF by time zone. Then, “1” is added to the “frequency” corresponding to the specific time zone and the value is updated (step B3), and then the “frequency” for each time zone is compared to find the time zone with the highest frequency. Then, the central time of this time zone is estimated as a standard home return time (step B4), the standard home time is stored in the standard time memory BT, and the content is updated (step B5).

 When such a standard time estimation process is completed (step A12 in FIG. 4), the contents of the updated standard time memory BT are read (step A13), and the time difference between the acquisition time (current home time) and the standard time is calculated. Calculate (step A14). For example, if the acquisition time (current return time) is “20:25” and the standard time is “19:00”, 20: 25-19: 00 = + 1: 25 is calculated as the time difference t. This time difference t (+1: 25) indicates that the user is going home after 1 hour and 25 minutes from the standard time. Then, the time change table TC is searched based on the time difference t, and the corresponding “change time” is read (step A15).

 In this case, as described above, if the time difference t is “+1: 25”, it corresponds to +1 hour ≦ t <+2 hours. Therefore, “+1 hour” is read as the “change time”, but the time difference t is “ If +3 hours ≦ t, “+3 hours” is read as the “change time”, and “−3 hours” is read as the “change time” if “t ≦ −3 hours”. And the control part 1 performs a function execution time change process based on the "change time" read as mentioned above (step A16).

FIG. 6 is a flowchart for explaining the function execution time changing process (step A16 in FIG. 4) in detail.
First, the control unit 1 reads the alarm notification time set in the alarm data memory AD as the set time for the predetermined process (step C1). Then, the set time is changed by adding the “change time” read this time to the set time (alarm notification time) to calculate a new set time (step C2). For example, if the set time (alarm notification time) before the change is “08:30” and the “change time” read this time is “−3 hours”, the new set time after the change is “05:30”. It becomes. If the “change time” read this time is “+2 hours”, the new set time after the change is “10:30”.

 On the other hand, when the control unit 1 detects that the alarm notification time has been reached by comparing the current time with the alarm notification time in the standby state (YES in step A17 in FIG. 4), the control unit 1 drives the notification unit 8 to generate an alarm. A notification process is executed (step A18). For example, alarm notification is performed while generating an alarm sound or blinking an LED. In this case, the alarm notification may be performed for a certain time. If any operation is performed in the standby state (YES in step A19), processing corresponding to the operation is performed. For example, processing for setting an arbitrary alarm notification time according to a user operation, voice phone call processing, and the like are performed. Note that processing for stopping alarm notification may be performed in response to an alarm stop operation during alarm notification.

 As described above, in the first embodiment, the control unit 1 monitors the user's behavior and acquires the time when the specific behavior is detected as the behavior time. Since the set time of the predetermined process is changed based on the correct action time, the set time set corresponding to the predetermined process can be changed according to the user's action, and a special operation is performed. Without this, the set time can be changed appropriately, and a flexible response according to the actual situation is possible.

  The predetermined process is a notification process for performing alarm notification, and the alarm notification time that is the set time of the notification process is changed. Therefore, the alarm notification time can be appropriately changed according to the user's action. For example, when the alarm notification function is used as a wake-up function, since the return to home is delayed, the alarm notification time can be delayed accordingly.

 The control unit 1 acquires the current position and detects whether or not the specific action is based on whether or not the user is at the specific position, and acquires the time when the presence of the specific position is detected as the action time. Therefore, for example, it can be detected whether the user has returned home according to the home position, and the set time can be changed in conjunction with the return home.

 The control unit 1 stores the action time as an action history every time the action time when the specific action is detected (current return time) is acquired, and the standard action time is based on the action history. Since (standard return time) is updated, the standard return time can be changed based on the action history (return status), which is in accordance with the actual situation.

  In the first embodiment described above, the home position is stored in the standard position memory BP, and the return time is stored in the standard time memory BT. However, the present invention is not limited to this. For example, a company is stored in the standard position memory BP. You may make it memorize | store a position and memorize | store a work time or leaving time in the standard time memory BT. As a result, it is possible to notify an alarm in response to leaving or leaving the office.

  In the first embodiment described above, the case where the alarm notification is applied as the predetermined process is shown, and the alarm notification time that is the set time is changed according to the user's action. However, the predetermined process is not limited to the notification process, and may be arbitrary. For example, the predetermined process may be a schedule management process for storing and managing the schedule information. You may make it change according to it.

7 and 8 exemplify the case where the predetermined process is applied to the schedule management process as a modification of the first embodiment, and FIG. 7 is a diagram showing a schedule table ST that stores schedule information. .
The schedule table ST is configured to have items of “record No.”, “type”, “content”, “start time”, and “end time”, and the contents are arbitrarily set by a user operation or the like. . “Type” indicates the type of schedule, for example, business trip, personal work, meeting, training, etc. “Content” is specific content such as visit to XX company, prototype production, etc. Is shown. “Start time” and “End time” indicate the schedule time which is the set time of the schedule information.

FIG. 8 is a flowchart showing a function execution time change process instead of FIG. 6 described above as a modification of the first embodiment. Hereinafter, an operation when applied to the schedule management process as the predetermined process will be described with reference to FIGS. In this case as well, other operations are the same as those in the flowcharts of FIGS.
First, the control unit 1 sets “1” as an initial value to a pointer n for sequentially designating each record (schedule information) of the schedule table ST (step D1), and then a schedule designated by the pointer n. The information is referred to (step D2), and it is checked whether the “type” is a predetermined type (for example, “personal work”) (step D3).

  Here, if it is not a predetermined type (individual work) (NO in step D3), "1" is added to the pointer n to specify the next schedule information, and the value is updated (step D5). It is checked whether the value of the pointer n exceeds the final “record No.”, that is, whether all the schedule information has been specified (step D6). Returning to the above and repeating the above-described operation. If the “type” of the schedule information designated by the pointer n is a predetermined type (individual work) (YES in step D3), the “start time” and “end time” are selected from the designated schedule information. As in the first embodiment, the “start time” and “end time” are changed based on the “change time” (step D4). Then, the process proceeds to step D5, and the above operation is repeated while updating the pointer n (steps D2 to D6).

  As described above, as a modification of the first embodiment, even when the predetermined process is applied to the schedule management process, the schedule time (start time, end time) that is the set time of the schedule information is used as the user's action. Appropriate changes can be made accordingly. For example, since the return home is delayed, the schedule time can be delayed in conjunction with it, and convenience can be improved.

 In addition, the schedule time (start time, end time) that is the set time of the schedule information is controlled based on the type of the schedule information, so the schedule time is changed only for a specific type. can do.

 In addition, it has the same effect as the first embodiment described above. That is, the control unit 1 acquires the current position and detects whether or not the specific action is based on whether or not the user is at the specific position, and acquires the time when the presence of the specific position is detected as the action time. Thus, for example, it is possible to detect whether the user has returned home according to the home position, and the set time can be changed in conjunction with the return home.

 In addition, every time the action time when the specific action is detected (current return time) is acquired, the action time is stored as an action history, and the standard action time (standard Since the standard home return time can be changed based on the action history (home return situation), the actual home return time can be changed.

(Embodiment 2)
Hereinafter, a second embodiment of the present invention will be described with reference to FIGS.
In the first embodiment described above, whether or not the user has returned home is monitored while periodically acquiring the current position. However, in the second embodiment, the user action is the user action. The operation status of the system is monitored.
Here, in both the embodiments, the same or the same names are denoted by the same reference numerals, the description thereof will be omitted, and the following description will focus on the features of the second embodiment. .

FIG. 9 is a block diagram showing basic components of the mobile phone according to the second embodiment.
Similar to the first embodiment, the cellular phone according to the second embodiment includes a control unit 1, a power supply unit 2, a storage unit 3, a communication unit 4, a display unit 6, an operation unit 7, a notification unit 8, and a clock unit 9. Although it is a structure, in this 2nd Embodiment, it has the cradle connection detection part 11. FIG. The cradle connection detection unit 11 detects that the mobile phone is connected to the cradle when the mobile phone is connected (placed) to the cradle (charging stand) that is an external device, and the charging current from the cradle is also detected. The control unit 1 monitors whether the apparatus main body is connected to the cradle based on the detection signal from the cradle connection detection unit 11.

  That is, the control unit 1 monitors whether the apparatus main body is connected to the cradle. When the cradle connection is detected, when the user performs a specific action (specific operation), that is, the user returns home. And the current time is acquired from the clock unit 9 as the action time (sleeping time), and the alarm notification process is performed from the action time and the standard action time (standard sleep time). The set time (alarm notification time) is changed. The storage unit 3 is provided with an alarm data memory AD, a standard time memory BT, a time change table TC, a time history table CR, and a time zone frequency table TF except for the standard position memory BP.

FIG. 10 is a flowchart showing the overall operation of the mobile phone that is started to be executed when the power is turned on in the second embodiment.
First, similarly to the case of the first embodiment described above, the control unit 1 displays a standby screen and enters a voice call standby state (step E1). When the presence of an incoming call is detected in this state (YES in step E2), an incoming call notification is made, and then a call process for making a call ready is performed in response to an incoming call response operation (off-hook operation) (YES in step E3) ( Step E4). Then, in response to the on-hook operation (YES in step E5), line disconnection processing is performed (step E6), and the standby state is returned (step E1).

 Further, in the standby state, the control unit 1 accesses the cradle connection detection unit 11 and checks whether or not the apparatus main body is connected to the cradle based on the detection signal (step E7), and detects the connection to the cradle. Then, after acquiring the current time (cradle connection time) from the clock unit 9 (step E8), the process proceeds to the standard time estimation process (step E9). The standard time estimation process in this case is also the same as that of the first embodiment shown in FIG. 5, and the standard time is updated by taking the current time into account.

 Then, the contents of the updated standard time memory BT are read (step E10), and the time difference between the acquisition time (cradle connection time) and the standard time is calculated (step E11). Then, the time change table TC is searched based on the time difference t, and the corresponding “change time” is read (step E12). In this case, if the time difference t is “+1: 25” as described above, it corresponds to +1 hour ≦ t <+2 hours, and therefore “+1 hour” is read as the “change time”. Then, based on this “change time”, the process proceeds to a function execution time change process (step E13). The function execution time changing process in this case is also the same as that of the first embodiment shown in FIG. 6, and the set time (alarm notification time) is updated according to the “change time”.

  As described above, in the second embodiment, the control unit 1 detects whether or not a specific operation has been performed by monitoring the operation status as the user's behavior, and detects that the specific operation has been performed. As the action time is acquired as the action time, it can be changed according to the specific operation by the set time user set corresponding to the predetermined process. That is, when the cradle connection is detected based on the detection signal from the cradle connection detection unit 11, it is assumed that the user is going home and goes to bed, and the current time is obtained from the clock unit 9 as the action time (sleeping time). ), The set time (alarm notification time) of the alarm notification process can be changed from this action time and the standard action time (standard bedtime).

 Each time the control unit 1 acquires an action time (sleeping time) when a specific action (specific operation) is detected, the control unit 1 stores the action time as an action history, and a standard based on the action history. Since the action time (standard bedtime) is updated, the standard bedtime can be changed based on the action history (sleeping situation), which is in accordance with the actual situation.

  In the second embodiment described above, the setting time (alarm notification time) of the alarm notification process is changed. However, as in the modification of the first embodiment described above, the schedule time (start time, end time) is changed. (Time) may be changed. That is, the predetermined process is not limited to the alarm notification process, but is arbitrary such as a schedule management process.

 In the second embodiment described above, the presence / absence of connection to the cradle is detected based on the detection signal from the cradle connection detection unit 11 as the specific action (specific operation). For example, the power is turned off. When a predetermined time has elapsed since then, the specific action (specific operation) may be recognized.

 When the user operates an external device, for example, when a personal computer (PC), a television receiver, a lighting device, or the like is turned on, the mobile phone receives an operation signal (power-on signal) from the external device. When received, the power-on operation of the external device may be recognized as a specific action (specific operation). In this case, a signal receiving unit (not shown) for receiving a signal from an external device may be provided in place of the cradle connection detecting unit 11, and in step E7 in FIG. 10, instead of detecting the cradle connection. What is necessary is just to detect whether the signal from the external device is received.

  Further, the content of the frequency table TF by time zone is arbitrary, and in each of the above-described embodiments, the time zone has a time interval of 10 minutes, but may be a time interval of 1 minute, etc. It may be possible to set the time zone. The contents of the time change table TC are also arbitrary, and are not limited to changing the set time within a range of ± 3 hours. For example, if the time difference t is ± 1 hour, the change time is ± 10 minutes, if it is ± 2 hours, the change time is ± 20 minutes, and if it is ± 3 hours, the change time is set to ± 30 minutes. Alternatively, any time difference and change time may be set by a user operation.

Furthermore, the specific action is not limited to the above-described embodiments, and a non-contact IC card function (wireless communication function) mounted on a mobile phone is used. It is also possible to detect entry / exit to a specific facility by communicating with an external device (reader / writer) installed in and recognize the entry / exit as a specific action.
In addition, the present invention is not limited to a mobile phone, and can be similarly applied to a mobile terminal device such as a PDA, a digital camera, an electronic wristwatch, or a music player.

The block diagram which showed the basic component of the mobile telephone applied as a portable terminal device. (A)-(C) is a figure for demonstrating alarm data memory AD, standard position memory BP, and standard time memory BT. (A)-(C) is a figure for explaining time history table CR, frequency table TF classified by time zone, and time change table TC. The flowchart which showed the whole operation | movement of the mobile telephone started execution with power activation. 6 is a flowchart for explaining in detail standard time estimation processing (step A12 in FIG. 4). 6 is a flowchart for explaining in detail a function execution time change process (step A16 in FIG. 4). The figure for demonstrating the case where it applies to a schedule management process as a predetermined process as a modification of 1st Embodiment, and is a figure for demonstrating the schedule table ST. The flowchart which showed the function execution time change process instead of FIG. 6 mentioned above as a modification of 1st Embodiment. The block diagram which showed the basic component of the mobile telephone in 2nd Embodiment. The flowchart which showed the whole operation | movement of the mobile telephone started execution with power activation in 2nd Embodiment.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Control part 3 Memory | storage part 4 Communication part 6 Display part 7 Operation part 8 Notification part 9 Clock part 10 Position acquisition part 11 Cradle connection detection part AD Alarm data memory BP Standard position memory BT Standard time memory CR Time history table ST Schedule table TC Time change table TF Frequency table by time zone

Claims (8)

A mobile terminal device that executes the predetermined process in accordance with a set time set corresponding to the predetermined process,
Monitoring means for monitoring the user's behavior and detecting whether the behavior is a specific behavior;
A time acquisition means for acquiring the time when the specific action is detected by the monitoring means as the action time;
Time storage means for storing a standard action time for causing the specific action;
Time change means for changing the set time of the predetermined process based on the action time obtained by the time acquisition means and the standard action time;
History storage means for storing the action time obtained by the time acquisition means as an action history;
Updating means for updating the standard action time based on the action history;
A portable terminal device comprising: A mobile terminal device that executes the predetermined process in accordance with a set time set corresponding to the predetermined process,
Monitoring means for monitoring the user's behavior and detecting whether the behavior is a specific behavior;
A time acquisition means for acquiring the time when the specific action is detected by the monitoring means as the action time;
Time storage means for storing a standard action time for causing the specific action;
Time change means for changing the set time of the predetermined process based on the action time obtained by the time acquisition means and the standard action time;
Equipped with,
The monitoring means detects whether or not a specific operation has been performed by monitoring the operation status as a user action,
The time acquisition means acquires the time when the monitoring means detects that a specific operation has been performed as the action time.
Mobile terminal apparatus characterized by the the like. The predetermined process is a notification process for performing alarm notification;
The time changing means changes an alarm notification time which is a set time of the notification process.
Portable terminal apparatus according to claim 1 or 2, wherein the in the way. The predetermined process is a schedule management process for storing and managing schedule information;
The time changing means changes a schedule time which is a set time of the schedule information.
Portable terminal apparatus according to claim 1 or 2, wherein the in the way. The time change means controls whether to change the set time of the schedule information based on the type of schedule information.
The portable terminal device according to claim 4, which is configured as described above. The monitoring means detects whether or not the specific action is based on whether or not the current position is acquired and the specific position is present,
The time acquisition means acquires the time when it is detected that the monitoring means is in a specific position as an action time,
The mobile terminal device according to claim 1 , wherein the mobile terminal device is configured as described above. Against the computer,
A function of executing the predetermined process according to a set time set corresponding to the predetermined process;
The ability to monitor user behavior and detect whether it is a specific behavior,
A function of acquiring the time when the specific action is detected as the action time;
A function of storing and managing a standard action time for causing the specific action;
A function of changing a set time of the predetermined process based on the acquired action time and the standard action time;
A function of storing the acquired action time as an action history;
A function of updating the standard action time based on the action history;
A program to realize Against the computer,
A function of executing the predetermined process according to a set time set corresponding to the predetermined process;
The ability to monitor user behavior and detect whether it is a specific behavior,
A function of acquiring the time when the specific action is detected as the action time;
A function of storing and managing a standard action time for causing the specific action;
A function of changing a set time of the predetermined process based on the acquired action time and the standard action time;
Realized ,
In the function to detect, it detects whether or not a specific operation has been performed by monitoring the operation status as a user action,
In the function to acquire, the time when the specific operation is detected is acquired as the action time.
A program characterized by that .

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