JP6420278B2 - Computer program, information processing apparatus and information processing method - Google Patents

Description

  The present disclosure relates to an information processing apparatus, an information processing method, and a computer program that process user action records.

  Techniques have been proposed for recognizing user action behavior from sensor information acquired using various sensing techniques. Recognized user behavior is automatically recorded as an action log, for example, reproduced by animation such as an avatar, showing a user's movement trajectory on a map, or expressing various behaviors using an index that is abstracted Etc., and can be expressed by various methods.

JP 2008-3655 A

  However, when reproducing an action log with an animation such as an avatar using an action recording apparatus such as motion capture, for example, a very large apparatus is required. On the other hand, in action logs generated using a small sensor built-in recording device such as a smartphone, the types of actions that can be recorded / recognized are limited, so it is difficult to present valuable action records to the user. . For this reason, the behavior log is generally displayed on the map of the movement trajectory of the user or displayed as a behavior record converted into an activity amount such as a health index.

  Therefore, there has been a demand for a proposal of an expression method that presents an action log recorded by a small sensor built-in recording device to a user in an easy-to-understand manner.

  According to the present disclosure, the computer manages an action segment representing the action behavior of the user recognized based on the sensor information and an action log including at least the action segment, time information, position information, and action segment action There is provided a computer program for executing associating a user's mood with respect to an action and displaying on the display unit a button for storing the associated time information, position information, and the user's mood with respect to the action behavior of the action segment.

  In addition, according to the present disclosure, a data management unit that manages an action segment that represents a user's action action recognized based on sensor information, and an action log that includes at least the action segment, time information, position information, and an action segment There is provided an information processing apparatus comprising: a display processing unit that displays a button for associating and storing a user's mood with respect to the operation behavior of the user on the display unit.

  Further, according to the present disclosure, it is possible to manage an action segment representing a user's action behavior recognized based on sensor information and an action log including at least the action segment, time information, position information, and action behavior of the action segment. There is provided an information processing method including associating a user's mood with respect to the display, and displaying on the display unit a button for storing the user's mood with respect to the associated time information, position information, and action behavior of the action segment.

  As described above, according to the present disclosure, the recorded action log can be presented to the user in an easily understandable manner.

It is explanatory drawing which shows the structure of the action log display system which concerns on embodiment of this indication. It is a functional block diagram which shows the function structure of the action log display system which concerns on the embodiment. It is explanatory drawing which shows an example of a context level dictionary. It is explanatory drawing which shows the case where an action segment is produced | generated from action action data by context analysis, and the display of an action log is changed by changing the segmentation granularity of an action segment. It is explanatory drawing which shows the other example at the time of producing | generating an action segment from movement action data by context analysis, and changing segmentation granularity. It is explanatory drawing which shows the case where an action segment is produced | generated from action | operation action data combining context analysis and time width, and the display of an action log is changed by changing the segmentation granularity of an action segment. It is explanatory drawing which shows the case where an action segment is produced | generated from action | operation action data combining context analysis, a time width, and a position change, and the display of an action log is changed by changing the segmentation granularity of an action segment. It is a flowchart which shows the flow of the whole process of action recognition. It is a flowchart which shows the process by a living action recognition part. It is a flowchart which shows the process by a hierarchical structure judgment part. It is a flowchart which shows an action segment production | generation process. It is a flowchart which shows an action segment production | generation process. It is explanatory drawing explaining the provision method of the hierarchy information with respect to an action segment. It is a functional block diagram which shows the function structure of an analysis server. It is explanatory drawing which shows an example of the expression of an action log. It is explanatory drawing which shows one display example of the action log when starting an action log display application. It is explanatory drawing which shows the example of a display of 1 calendar. It is explanatory drawing which shows one display example when the map button is operated and the positional information corresponding to an action log is displayed on a map. It is explanatory drawing which shows the state by which the correction screen which corrects the action segment of correction object was displayed. It is explanatory drawing which shows an example of the correction screen which corrects an action action. It is explanatory drawing which shows an example of the coupling | bonding method of an action segment. It is explanatory drawing which shows an example of the operation content determination method of the action segment after another coupling | bonding. It is explanatory drawing which shows an example of the division | segmentation method by the time setting of an action segment. It is explanatory drawing which shows an example of the division | segmentation method based on the hierarchy information of an action segment. It is explanatory drawing which shows the case where display roughness is changed using a slider. It is explanatory drawing which shows the case where display roughness is changed using a zoom button. It is explanatory drawing which shows the display change of an action segment when the button of "work details" is checked in the action type selection list. It is explanatory drawing which shows the display change of an action segment when the button of "shopping details" is checked in the action type selection list. It is explanatory drawing which shows the display change of an action segment when the button of "movement details" is checked in the action type selection list. It is explanatory drawing which shows the display change of an action segment when the button of "uniform details" is checked in the action type selection list. It is explanatory drawing which shows the position structural example of the display granularity setting part which provided the slider which sets the display roughness of an action segment for every kind of action. It is explanatory drawing which shows the method of deleting an action segment from an action log. It is explanatory drawing which shows the method of posting the content of the action segment of an action log on a contribution site. It is explanatory drawing which shows the example of a position structure of the setting screen which performs various settings regarding an action log display application. It is a flowchart which shows an example of the action recognition process by a living action recognition part. It is explanatory drawing which shows the action action estimation information which shows the relationship between the weighting coefficient depending on a place, and the probability distribution of each action. It is explanatory drawing explaining the outline | summary of the reflection process of correction feedback. It is a flowchart which shows the reflection process of the correction feedback with respect to action. It is explanatory drawing for demonstrating correction of the operation | movement action estimation information based on the process of FIG. It is a flowchart which shows the other reflection process of the correction feedback with respect to action. It is a flowchart which shows the reflection process of correction feedback with respect to action and position information. It is explanatory drawing explaining the personal modeling of the action pattern by a typical action pattern production | generation part. It is explanatory drawing explaining the position display method by moving medium / means determination. It is explanatory drawing explaining a route estimation process. It is explanatory drawing explaining a station name selection process. It is a block diagram which shows the hardware structural example of the action recording apparatus which concerns on the embodiment.

  Hereinafter, preferred embodiments of the present disclosure will be described in detail with reference to the accompanying drawings. In addition, in this specification and drawing, about the component which has the substantially same function structure, duplication description is abbreviate | omitted by attaching | subjecting the same code | symbol.

The description will be made in the following order.
<1. Overview of action log display system>
<2. Action Log Display System Functional Configuration>
[2-1. Action recording device]
[2-2. Action log server]
[2-3. Analysis server]
<3. Action segment generation processing>
[3-1. Relationship between action behavior and its meaning]
[3-2. Action segment generation process]
(Example 1: Generation of action segment by context analysis)
(Example 2: Generation of action segment combining context analysis and time span)
(Example 3: Generation of action segment combining context analysis, time width and position change)
[3-3. Action recognition processing]
[3-4. Processing contents of action expression generation unit]
<4. Action Record Display Application>
[4-1. Action log representation based on action segments]
[4-2. Browse Behavior]
[4-3. Action modification]
[4-4. Combining actions]
[4-5. Action division]
[4-6. Action segment display based on segmentation granularity]
[4-7. Delete action]
[4-8. Posting an action]
[4-9. Action log acquisition stop processing]
[4-10. Update display]
<5. Reflection processing of correction feedback>
[5-1. Nature of correction feedback]
[5-2. Action recognition processing]
[5-3. Application of correction feedback]
(5-3-1. Outline of correction feedback reflection processing)
(5-3-2. Reflection processing of correction feedback for action)
(5-3-3. Reflection processing of correction feedback for action and position information)
<6. Other>
[6-1. Personal modeling of behavior patterns]
[6-2. Position display method based on moving medium / means determination]
(6-2-1. Route estimation processing)
(6-2-2. Station name selection process)
<7. Hardware configuration example>

<1. Overview of action log display system>
First, an overview of an action log display system according to an embodiment of the present disclosure will be described with reference to FIG. FIG. 1 is an explanatory diagram showing a schematic configuration of an action log display system according to the present embodiment.

  The action log display system according to the present embodiment realizes an expression method for easily presenting an action log recorded by a recording device 100 (hereinafter referred to as “behavior recording device”) with a small sensor. As the action recording device 100, for example, a mobile phone, a PDA (Personal Digital Assistant), a mobile terminal such as a smartphone, or the like can be used. The behavior recording device 100 is provided with at least one sensor that senses the situation and behavior of the user holding the device. The behavior recording apparatus 100 estimates the user's behavior based on the sensor information acquired by the sensor, and transmits the behavior behavior to the behavior log server 200 as a behavior log. In this way, the action log server 200 accumulates user action logs.

  The behavior log analyzed by the behavior recording device 100 and stored in the behavior log server 200 is a record of actions such as “meal”, “movement”, and “sleep” together with behavior time, position information, and the like. The behavior log display system according to the present embodiment further analyzes the behavior log representing the operation content by the analysis server 300 to recognize the meaning of the behavior, and generates information (behavior segment) to which the meaning of the behavior is added. The action segment is unit information in which the action log is expressed in an easy-to-understand manner for the user. The behavior log can be presented so that the meaning of the behavior can be understood rather than simply presenting the behavior log to the user by the behavior segment.

  The action log analyzed by the analysis server 300 and presented to the user can be corrected by the user. In addition, by generating action segments, it is possible to combine, divide, or delete the data of the presented action logs. The presented action log can be posted to the posting site. Thus, by using the action log display system according to the present embodiment, the action log acquired as the operation can be analyzed and presented to the user in an easy-to-understand manner. Hereinafter, the configuration and function of the action log display system according to the present embodiment will be described in detail.

<2. Action Log Display System Functional Configuration>
FIG. 2 shows a functional configuration of the action log display system according to the present embodiment. As described above, the behavior log display system is a behavior recording device 100 that records a user's behavior, a behavior log server 200 that manages a behavior log recorded by the behavior recording device 100, and a behavior that is analyzed by analyzing the behavior log. It consists of an analysis server 300 that generates segments.

[2-1. Action recording device]
The behavior recording apparatus 100 includes sensors 110, a behavior recognition unit 120, a client interface unit 130, a behavior expression processing unit 140, a display unit 150, and an input unit 160.

  The sensors 110 are devices that sense a user's behavior and situation, and are mounted on the behavior recording apparatus 100. As the sensors 110, for example, an acceleration sensor, a gyro sensor, a geomagnetic sensor, an atmospheric pressure sensor, an illuminance sensor, a temperature sensor, a microphone, or the like can be used. In addition, a latitude / longitude acquisition sensor that acquires latitude / longitude can be mounted as the sensors 110. For example, the latitude / longitude acquisition sensor may use not only GPS (Global Positioning System) and WiFi but also base station information of other communication networks, information such as RFID and images. The sensors 110 output the detected information to the action recognition unit 120 as sensor information.

  The behavior recognition unit 120 estimates the user's behavior based on the sensor information. The behavior recognition unit 120 includes a sensor control unit 122 and an operation behavior recognition unit 124. The sensor control unit 122 controls the sensors 110, the CPU, or the entire system in order to efficiently operate sensing by the sensors 110. The sensor control unit 122 controls the devices based on the recognition results of the sensors 110 and the operation behavior recognition unit 124.

  The movement behavior recognition unit 124 performs signal processing and statistical processing of sensor information, and recognizes the user's behavior and situation. The action recording apparatus 100 holds in advance a correspondence relationship between an action model that is information on a user's action obtained as a result of processing sensor information and an action action. When the behavioral action recognition unit 124 obtains a behavioral parameter by processing the sensor information, the behavioral behavior recognition unit 124 identifies a behavioral behavior corresponding to the behavioral parameter. Then, the behavioral action recognition unit 124 associates the identified behavioral behavior with the behavior time, behavior time, position information, and the like as behavioral behavior data, and outputs it to the client interface unit 130. The action behavior data is uploaded from the client interface unit 130 to the behavior log server 200.

  The client interface unit 130 transmits / receives information to / from the action recording device 100, the action log server 200, and the analysis server 300. For example, the client interface unit 130 transmits the operation behavior data input from the behavior recognition unit 120 to the behavior log server 200 or outputs the analysis result received from the analysis server 300 to the behavior expression processing unit 140. In addition, the client interface unit 130 transmits feedback information from the user input from the input unit 160 to the analysis server 300.

  The behavior expression processing unit 140 is a functional unit that processes the display of behavior logs and feedback information from the user, and includes a display processing unit 142 and an input information processing unit 144. The display processing unit 142 performs processing for displaying the analysis result by the analysis server 300 input from the client interface unit 130 on the display unit 150. The input information processing unit 144 performs processing for transmitting feedback information from the user to the action log input from the input unit 160 to the analysis server 300 via the client interface unit 130.

  The display unit 150 is one of output devices that display information, and can be configured by, for example, a liquid crystal display, an organic EL display, or the like. For example, an action log that has been subjected to display processing by the display processing unit 142 is displayed on the display unit 150.

  The input unit 160 is an input device for inputting information. For example, a touch panel, a keyboard, a hardware button, or the like can be used. In the present embodiment, it is assumed that a touch panel is provided on the display surface of the display unit 150 as the input unit 160. At this time, the user can input information by, for example, bringing an operating body such as a finger or a touch pen into contact with the display surface of the display unit 150 or moving the operating body in contact with the display surface. Information input from the input unit 160 is output to the input information processing unit 144.

[2-2. Action log server]
The action log server 200 includes a log server interface unit 210 and an action log DB 220.

  The log server interface unit 210 transmits / receives information to / from the behavior log server 200, the behavior recording device 100, and the analysis server 300. For example, the log server interface unit 210 records the behavioral behavior data received from the behavior recording device 100 in the behavior log DB 220 or acquires the behavioral behavior data from the behavior log DB 220 in response to a transmission request from the analysis server 300 for analysis. To the server 300.

  The action log DB 220 is a storage unit that stores user action action data acquired by the action recording apparatus 100. As described above, the behavioral behavior data stored in the behavioral log DB 220 associates the behavioral behavior specified by the behavioral behavior recognition unit 124 with behavioral time, behavioral time, position information, and the like. It is stored in the action log DB 220.

[2-3. Analysis server]
The analysis server 300 includes an analysis server interface unit 310, an action expression generation unit 320, and a data management unit 330.

  The analysis server interface unit 310 transmits and receives information between the analysis server 300, the action recording device 100, and the action log server 200. The analysis server interface unit 310 receives, for example, an action log analysis instruction (analysis request) from the action recording device 100, or transmits a required operation action data transmission request (transmission request) in response to the analysis request. . Further, the analysis server interface unit 310 receives feedback information from the user for the action log from the action recording apparatus 100.

  The behavior expression generation unit 320 analyzes the behavioral behavior data to understand the meaning, and generates a behavior segment to which the meaning content is added. The behavior expression generation unit 320 includes a living behavior recognition unit 321 and a hierarchical structure determination unit 322. The living behavior recognition unit 321 generates a behavior segment from a behavior log including motion behavior data. The living behavior recognition unit 321 analyzes the semantic content of the behavioral behavior data arranged in time series based on the relationship between the data, the time of the data, the time, and the like. Then, the living behavior recognition unit 321 sets data classified into the most detailed semantic content among the analyzed semantic content as the behavior segment. The generated action segment is output to the data management unit 330 and held.

  The hierarchical structure determination unit 322 determines the hierarchical structure related to the semantic content of the behavior segment generated by the living behavior recognition unit 321 and assigns hierarchical information representing the hierarchical relationship of the semantic content to the behavior segment. Hierarchical information is hierarchical semantic information that is given to an action segment by processing to be described later. The hierarchy information may be information using a normalized value as a key, for example, or may be information using an ID for specifying a hierarchy of semantic information as a direct key. An action segment to which hierarchy information is assigned is also referred to as a hierarchy information-added action segment. The hierarchical relationship regarding the semantic content of the action is stored in advance in the data management unit 330. The hierarchical structure determination unit 322 outputs the hierarchical information-added behavior segment to the data management unit 330 via the living behavior recognition unit 321 and holds it. The details of the function of the behavior expression generation unit 320 and the processing content thereby will be described later.

  The data management unit 330 manages the behavior segment generated by the behavior expression generation unit 320. The data management unit 330 includes a data acquisition unit 331, a feedback adjustment unit 332, an analysis parameter DB 333, a unit data storage DB 334, and a hierarchy information-added data storage DB 335.

  The data acquisition unit 331 transmits / receives data to / from the behavior expression generation unit 320. The data acquisition unit 331 records the behavior segment transmitted from the behavior expression generation unit 320 in the unit data storage DB 334 and records the hierarchical information added behavior segment in the hierarchical information added data storage DB 335. Also, the data acquisition unit 331 acquires the specified behavior segment from the unit data storage DB 334 or the hierarchy information-added data storage DB 335 in response to a request from the behavior expression generation unit 320 and outputs the acquired behavior segment to the behavior expression generation unit 320. To do.

  The feedback adjustment unit 332 reflects the feedback information received from the action recording apparatus 100 in the analysis parameter used for analyzing the semantic content of the action action data. The feedback information represents the content of processing such as correction performed by the user on the action log displayed on the display unit 150 of the action recording apparatus 100. The feedback adjustment unit 332 uses the feedback information to correct the analysis parameter so that the semantic content of the user's action can be recognized more accurately.

  The analysis parameter DB 333 is a storage unit that stores analysis parameters used for analyzing the semantic content of the action behavior data. In the analysis parameter DB 333, as an analysis parameter, for example, a correspondence relationship between operation behavior and meaning content is stored. Information stored in the analysis parameter DB 333 can be referred to by either the living behavior recognition unit 321 or the hierarchical structure determination unit 322. The analysis parameter is updated as needed based on feedback information from the user.

  The unit data storage DB 334 stores the action segment generated by the action expression generation unit 320. The action segment stored in the unit data storage DB 334 is a minimum unit segment (unit segment) necessary for recognition.

  The hierarchy information-added data storage DB 335 stores an action segment in which hierarchy information is added to the action segment generated by the action expression generation unit 320. The behavior segment stored in the hierarchical information-added data storage DB 335 is a hierarchical information-added behavior segment to which hierarchical information representing the hierarchical structure of the meaning content of the behavior is assigned by the hierarchical structure determination unit 322. The recording timing of the action segment to which the hierarchy information is assigned may be, for example, when requested by the application, or the action expression generation unit 320 may record a plurality of segmentation granularity analysis results in advance.

  In other words, the behavior expression generation unit 320 and the data management unit 330 function as an information processing device that analyzes the semantic content of the behavioral behavior data generated by the behavior recording device 100 and presents easy-to-understand information to the user.

<3. Action segment generation processing>
In the behavior log display system according to the present embodiment, the semantic content of the motion behavior generated by the behavior recording device 100 is analyzed by the analysis server 300, and a behavior segment based on the semantic content of the behavior is generated. Hierarchy information regarding the semantic content of the action can be given to the action segment, and the display form of the action log can be easily changed based on the hierarchy information. First, the action segment generation process will be described with reference to FIGS.

[3-1. Relationship between action behavior and its meaning]
In the behavior recording apparatus 100, for example, behaviors such as “meal”, “movement”, and “sleep” are analyzed. The analysis server 300 analyzes the content of each operation action more deeply using the operation action data including this operation action. The semantic content of the action behavior is analyzed using, for example, a context level dictionary as shown in FIG.

  When the action behavior “movement” is taken out of the action behaviors “meal”, “movement”, and “sleep”, the meaning content changes depending on what kind of movement it is, as shown in FIG. For example, when the user is “walking and moving”, the user can continue to take the action of “walking”, and thereafter can move to the action of “stop”. Further, for example, in the state of “waiting for a vehicle” while moving, it is possible to continue to take an action of “waiting for a vehicle”. Further, for example, when “moving by train”, this movement can be made an action of “moving by a single train”. Furthermore, the state of “moving by train” can be continued, or the state of “train stop” can be taken in which the train on board stops. Alternatively, it is possible to take an action of “transfer” after “move by train”, and it is possible to shift to a state of “waiting for a vehicle”.

  The “walking” and “transfer” behaviors can be associated with the “walking” further behavior, and the “stop” behavior, “waiting for the vehicle” state, and “stop” in the “train stop” state. You can associate actions. The state of “moving by train” can be further associated with “train” as a moving means.

  As described above, the action meta at the action action level can be changed to a higher-order action meta depending on the context as shown in FIG. In the action log display system of this embodiment, an action log that is easy to understand can be presented to the user by analyzing the meaning content of the action based on the relationship between the action action and the meaning content. In addition, by assigning a hierarchical relationship to the action segment as hierarchical information with respect to the semantic content of the action action, it becomes possible to easily change the segmentation granularity of the action log described later.

  In the present embodiment, ontology / semantic technology is applied to the recognition of the semantic content of the action behavior, and the action recognition in which the “context” in the “action” is determined and the action action data are segmented. The ontology systematically represents the concept of relationships between vocabularies. In this embodiment, for example, the concept of relationships between actions is systematized as shown in FIG. Then, using the concept of the relationship between the systematized actions, the semantics of the actions and the relevance of the actions are understood by semantic technology, and the semantic content of the action actions is recognized based on the understanding. For example, an action segment that suits the user's sense by making context judgment using the property that it is easy to transition from a certain action (for example, a meal) to a certain action (for example, a work) by the action of “walking and moving” Can be generated.

[3-2. Action segment generation process]
(Example 1: Generation of action segment by context analysis)
As a specific example of the action segment generation process using the relationship between the operation action and the meaning content, the action segment generation process by context analysis will be described based on FIGS. 4 and 5. FIG. 4 is an explanatory diagram showing a case where an action segment is generated from motion action data by context analysis and the action log display is changed by changing the segmentation granularity of the action segment. FIG. 5 is an explanatory diagram illustrating another example in which an action segment is generated from motion action data by context analysis and the segmentation granularity is changed.

  As shown in FIG. 4, it is assumed that an action log composed of action action data is acquired by the action action recognition unit 124. The motion behavior data is arranged from left to right in time series. The action behavior data is an action behavior recognized based on the sensor information of the sensors 110, and an action log is represented by a simple action behavior such as “walked”, “stopped”, or “ridden on a train”. For such an action log, the living action recognition unit 321 recognizes the meaning of each action action data, the relevance between action action data, and the like using a dictionary as shown in FIG.

  For example, a short state of “stop” that is less than or equal to a predetermined time between the action behavior data “on the train” can be estimated as a state of “the train has stopped (at a station or the like)”. Further, it can be estimated that a short “walking” state within a predetermined time period between the action behavior data “on the train” is an action “changed train”. Furthermore, it can be estimated that “stopped” in the action behavior data immediately before the action behavior data “get on the train” is a state of “waiting for the train”.

  In addition, by using the action time of the action action data, the action can be estimated more appropriately. For example, for an action “move by train”, if the action time is morning (for example, between 6:00 am and 10:00 am), the meaning of the action “commuting” or “commuting to school” can be estimated, and the action time is night (for example, afternoon 5 to 8 pm), the meaning of the action “return home” can be estimated. Similarly, the meaning of the action “meal” can be estimated as “breakfast” if the action time is morning, “lunch” if noon, and “dinner” if it is night.

  As described above, the behavior log composed of the behavioral behavior data is analyzed by the lifestyle behavior recognition unit 321, thereby generating the behavior log composed of behavioral segments as shown in FIG. 4. The action segment is data representing the action action to which the action content is added, and refers to a group of action actions having the same continuous meaning contents. The action segment generated corresponding to the action action data is composed of unit segments to which detailed action contents are added. Therefore, when an action log is represented by an action segment, the movement state during boarding can be understood as shown in FIG.

  Then, by acquiring the hierarchical behavior meta of the behavioral behavior level from the context level dictionary shown in FIG. 3, the segmentation granularity that is a parameter for determining the roughness of the behavior segment is hierarchically changed, and the behavior segment The display of can be changed. As the segmentation granularity is increased, a plurality of action segments that can be regarded as one action are combined to form an action segment representing a rough operation content. On the other hand, the action segment approaches the unit segment as the segmentation granularity is reduced.

  For example, as shown in FIG. 4, the segmentation granularity is increased with respect to the action log represented by the unit segment. In the state of granularity 1-1 where the segmentation granularity is increased from the segmentation granularity of the unit segment, a series of actions “get on the train”, “stop the train”, “get on the train” It is expressed as one action segment. Furthermore, in the state of granularity 1-2 in which the segmentation granularity is increased, a series of operations such as “get on a train on a certain route”, “transfer”, and “take a train on a certain route” Expressed as an action segment. Furthermore, in the state of granularity 1-3 in which the segmentation granularity is increased, one action segment that “moved” is a series of moving actions of “walking”, “waiting for train”, “moving by train”, and “walking”. Represented as:

  As described above, by changing the segmentation granularity based on the hierarchical behavior meta of the behavioral behavior level, the behavior log can be displayed with the behavioral behavior level that is easy for the user to see.

  Although FIG. 4 demonstrated the action segment regarding movement, an action log can be displayed similarly about another operation | movement. For example, as shown in FIG. 5, “behavior model X” that expresses a remarkably fluttering movement that appears in shopping behavior or the like, and the action behavior “having a meal” are recognized as action behavior data by the action behavior recognition unit 124. Suppose that The “behavior model X” usually means a class of shopping, but the meaning changes depending on the determination result before or after.

  In the example shown in FIG. 5, there is an “action model X” before and after “having a meal”. At this time, the living behavior recognition unit 321 determines that the behavior model X is “accepted” or “accounted” as an operation performed before or after the operation of “mealing” from the behavior behavior data before or after the behavior model X. " In this way, by adding meaning content to the user's fluttering movement before and after the operation, it is possible to present a user-friendly behavior log. Also in this example, by increasing the segmentation granularity, a series of operations “received”, “mealed”, and “accounted” can be expressed as one action segment “mealed”.

(Example 2: Generation of action segment combining context analysis and time span)
Next, based on FIG. 6, a specific example in the case where an action segment is generated in consideration of a time width in addition to context analysis will be described. FIG. 6 is an explanatory diagram showing a case where an action segment is generated from action action data by combining context analysis and time width, and the action log display is changed by changing the segmentation granularity of the action segment.

  As shown in FIG. 6, it is assumed that an action log composed of action action data is acquired by the action action recognition unit 124. In this example, the action log is represented as mere action actions such as “desk work”, “walked”, “meeting”, and “meal” as the action action data. For such an action log, the living action recognition unit 321 recognizes the meaning of each action action data and the relationship between the action action data using a dictionary as shown in FIG. Recognize the meaning of the content in consideration of the time width.

  FIG. 6 shows an example of a behavior log in a company. Here, it is possible to recognize what kind of walking is about the behavioral behavior data “walked” from the preceding and following behavioral behavior data, but it is also possible to estimate it based on the walking time. A short “walking” behavior in a company usually does not make much sense. However, when walking for a predetermined time or longer, it is estimated that the movement is not between movements within the floor but between facilities. Thus, the action segment generated by combining the context analysis using the dictionary and the time width of the action action data is as shown in FIG. The action behavior data “walked” is divided into “short-time walking” and “movement between facilities” according to the time width.

  When the action segment is generated, the display of the action log including the action segment can be easily changed by changing the segmentation granularity as described above. For example, in the state of granularity 2-1, in which the segmentation granularity of the unit segment is increased, the series of operations "desk work", "short walk", "meeting", "short walk", and "desk work" are performed. It is expressed as one action segment “worked”. At this time, since “short-time walking” is combined with one action segment “worked”, the action segment “movement between facilities” may be simply displayed as “movement”.

Furthermore, in the state of granularity 2-2 where the segmentation granularity is increased, a series of actions “worked”, “meal”, “worked”, “moving”, “worked” is a single action of “being in the company” Expressed as a segment. As described above, by changing the segmentation granularity based on the hierarchical behavior meta of the behavioral behavior level, the behavior log can be displayed with the behavioral behavior level that is easy for the user to see.
(Example 3: Generation of action segment combining context analysis, time width and position change)
Next, based on FIG. 7, a specific example in the case where action segments are generated in consideration of time width and position change in addition to context analysis will be described. FIG. 7 is an explanatory diagram showing a case in which an action segment is generated from action action data by combining context analysis, time width, and position change, and the action log display is changed by changing the segmentation granularity of the action segment.

  As shown in FIG. 7, it is assumed that an action log composed of action action data is acquired by the action action recognition unit 124. In this example, the behavior log is represented as mere behavioral behavior such as “shopping” or “walking” as the behavioral behavior data. For such an action log, the living action recognition unit 321 recognizes the meaning of each action action data and the relationship between the action action data using a dictionary as shown in FIG. The semantic content is recognized in consideration of the time width and the position change of the action recording apparatus 100 (that is, the user).

  FIG. 7 shows an example of an action log for shopping. Here, it is possible to recognize from the preceding and following movement behavior data about the movement behavior data of “walked”, but it is also possible to estimate in more detail by the walking time and the position change.

  For example, the motion behavior before and after the motion behavior data “walked” is “shopping”, the movement time t is t1 (for example, 35 seconds) or more, and the position change of the behavior recording device 100 held by the user is measured. It can be estimated that the user is “moving the store”. In addition, for example, the motion behavior before and after the motion behavior data “walked” is “shopping”, the movement time t is t2 (for example, 20 seconds) or more and shorter than t1, and the position change of the behavior recording device 100 is When not, it can be estimated that the user is “moving between floors” during shopping. Further, for example, the operation behavior before and after the operation behavior data “walked” is “shopping”, the movement time t is t3 (for example, 5 seconds) or more and shorter than t2, and the position change of the behavior recording apparatus 100 is If not, it can be estimated that the user is “moving in the store” during shopping.

  As described above, when the semantic content of the action behavior data is recognized by combining the context analysis, the time width, and the position change, as shown in FIG. 7, from the action behavior data “walked”, “movement in the store (SG1)”. , “Behavior in floor (SG2)” and “Move store (SG3)” are generated as behavior segments.

  When the action segment is generated, the display of the action log including the action segment can be easily changed by changing the segmentation granularity as described above. For example, in the state of the granularity 3-1, in which the segmentation granularity is increased from the segmentation granularity of the unit segment, the behavior segment SG1 having the shortest walking time among the behavior segments related to walking is combined with the “shopping” behavior segments around it. The These are represented by one action segment as a series of operations “shopping”. At this time, since “movement in the store” is combined with one action segment “shopping”, another action segment related to walking may be simply displayed as “movement”.

  Furthermore, in the state of the granularity 3-2 in which the segmentation granularity is increased, the action segment SG2 having the shortest walking time next to the action segment SG1 among the action segments related to walking is combined with the “shopped” action segments before and after the action segment SG1. In the state of granularity 3-3 in which the segmentation granularity is further increased, the action segment SG3 having the longest walking time among the action segments related to walking is combined with the action segment “shopped” before and after the action segment. As a result, a series of actions “shopped” and “walked” are represented as one action segment “shopped”. As described above, by changing the segmentation granularity based on the hierarchical behavior meta of the behavioral behavior level, the behavior log can be displayed with the behavioral behavior level that is easy for the user to see.

[3-3. Action recognition processing]
The process of generating an action segment from the action action data will be described in more detail based on FIGS. FIG. 8 is a flowchart showing the flow of the entire process of action recognition. FIG. 9 is a flowchart showing processing by the living behavior recognition unit 321. FIG. 10 is a flowchart showing processing by the hierarchical structure determination unit 322.

  As shown in FIG. 8, the behavior recognition process includes an action behavior data creation process (S100, S110) performed by the behavior recognition unit 120 of the behavior recording device 100, a behavior expression generation unit 320 and a data management unit 330 of the analysis server 300. The action segment generation process (S120 to S140) performed by.

  The action behavior recognition unit 124 of the action recognition unit 120 that has acquired the sensor information from the sensors 110 starts the action behavior data creation process (S100). The action behavior data creation process can be performed using an existing method. When the behavioral behavior recognition unit 124 creates behavioral behavior data, the behavioral behavior recognition unit 124 outputs the behavioral behavior data to the behavior log server 200 (S110). In this way, the behavior log server 200 accumulates the behavior behavior data constituting the user's behavior log. The behavior recognition unit 120 may generate not only behavior level behavior information but also information including time information, location information, device operation history, and the like as behavior behavior data.

  When the behavioral behavior data is created, the behavioral expression generation unit 320 of the analysis server 300 analyzes the semantic content of the behavioral behavior data by the living behavior recognition unit 321 (S120). The living action recognition unit 321 divides the action action data into data of a unit length set in advance, and assigns living action meta information to each divided data. The unit length of the action behavior data is defined by a predetermined time T (for example, T = 1 min). In addition, it is assumed that the order of classification of the action behavior data is i (i = 1 to N).

  After the behavioral behavior recognition unit 321 classifies the behavioral behavior data by the unit time T in time series, first, whether or not the integrated value of the unit length (T) and the parameter i is smaller than the length (time) of the behavioral behavior data. Is determined (S121). When it is determined in step S121 that the integrated value of the unit length (T) and the parameter i is smaller than the length (time) of the action action data, the living action recognition unit 321 starts from time T * i to time T * (i + 1). Living behavior meta information is given to the division data in (S122). Here, the symbol “*” represents the integration process. In step S122, for example, rule-based branching processing can be used to give semantic content (living behavior meta information) that applies to the segment data at the time. Alternatively, the living behavior meta information can be given to the segmented data by using a machine learning technique such as a Hidden Markov Model (HMM) or a neural network (Neural Network). It should be noted that not only one living behavior meta information but also a plurality of living meta information may be added to the division data.

  When the living behavior recognition unit 321 adds the living behavior meta information to the classification data of the behavioral behavior data in step S122, 1 is added to the parameter i (S123), and the processing from step S121 is repeated. When it is determined in step S121 that the integrated value of the unit length (T) and the parameter i is greater than or equal to the length (time) of the behavioral behavior data, the lifestyle behavior recognition unit 321 performs the lifestyle behavior meta information through the process of step S122. Each division data to which is given is output as living behavior data (S124). The output result of the living behavior recognition unit 321 may be recorded in a predetermined storage unit (not shown), or may be output as it is to a functional unit (here, the hierarchical structure determination unit 322) that performs the next processing. .

  Returning to the description of FIG. 8, when the living behavior data that is the information in which the living behavior meta information is added to the classification data constituting the behavioral behavior data is generated by the living behavior recognition unit 321, the hierarchical structure determination unit 322 Hierarchy information representing a hierarchical relationship regarding semantic content is assigned to the action data. Such processing will be described with reference to FIG. First, the hierarchical structure determination unit 322 has at least one of the conditions that the input life behavior data is not assigned hierarchical information or can be shifted to a higher hierarchy of the assigned hierarchical information. It is determined whether or not the condition is satisfied (S131).

  When none of these conditions is satisfied in step S131, that is, when the highest hierarchy information has already been added to the living behavior data, the hierarchy structure determination unit 322 ends the process shown in FIG. On the other hand, when any one of the above conditions is satisfied in step S131, the hierarchical structure determination unit 322 combines adjacent segment data of the same action for each segment data arranged in time series (S132). In step S132, when the same action continues for the data discretized in step S120, a process of considering it as one action action is performed. One set (segment) generated by combining the segment data may be recorded in a predetermined storage unit (not shown) (S133).

  Next, assuming that the time-series arrangement order of the segments generated in step S132 is j (j = 1 to M), the hierarchical structure determination unit 322 determines that j is smaller than the number of segments generated in step S131 and j It is determined whether dictionary information related to the action of the th segment can be acquired (S134). When all of these conditions are satisfied in step S134, the hierarchical structure determination unit 322 selects and assigns the most appropriate dictionary information for the segment from the obtained dictionary information (S135). Then, the hierarchical structure determination unit 322 determines whether or not higher hierarchy information can be given to the segment (j) than the selected dictionary information and temporal context (S136). If it is determined in step S136 that higher hierarchy information can be added, the hierarchy structure determination unit 322 adds higher hierarchy information to the segment (j) and adds 1 to the parameter j (S137). Thereafter, the processing from step S134 is repeated.

  On the other hand, if it is determined in step S134 that j is equal to or greater than the number of segments generated in step S132, or dictionary information related to the behavior of the j-th segment cannot be acquired, the hierarchical structure determination unit 322 starts from step S131. Repeat the process. In addition, when it is determined in step S136 that higher hierarchy information cannot be assigned to the segment (j), the hierarchy structure determination unit 322 repeats the processing from step S131.

  As illustrated in FIG. 10, the hierarchical structure determination unit 322 categorizes the segmented data generated in step S <b> 120 with the same action that is temporally continuous. Then, it acquires and adds related dictionary information for the behavior of each segment, and determines whether or not information of higher layers can be added. In this way, by performing the processes of steps S131 to S137, a minimum unit action segment (unit segment) to which hierarchical information is added is generated.

  11 and 12 are flowcharts showing an example of the action segment generation process. As shown in FIG. 11, the hierarchical structure determination unit 322 first determines whether or not “other actions” sandwiched by the same action exists in the segment data (S200). If there is an “other action” sandwiched between the same actions, the “other action” is merged with the preceding and succeeding actions (S202). It should be noted that merge processing is not performed for “other behaviors” that are sandwiched between “walking” motion behaviors that are sufficiently accurate and that are likely to be behavior change points. After merging “other actions” in step S202, or when there is no “other actions” sandwiched between the same actions in step S200, the hierarchical structure determination unit 322 merges the same actions that are consecutive ( S204).

  Thereafter, the hierarchical structure determination unit 322 sets a parameter k (k = 1 to K) representing the time-series order of the segments generated by the merge processing to an initial value 1 (S206), and the action time of the segment (k) It is determined whether or not it is less than a predetermined time T1 (eg, T1 = 3 min) (S208). When the action time of the segment (k) is smaller than the predetermined time T1 in step S208, the hierarchical structure determination unit 322 accumulates the segment in the buffer (S210). On the other hand, if it is determined in step S208 that the action time of the segment (k) is equal to or greater than the predetermined time T1, the hierarchical structure determination unit 322 further determines that the action time of the segment (k) is the predetermined time T2 (T2> T1, for example, T2 = 10 min) is determined (S212).

  When it is determined in step S212 that the action time of the segment (k) is smaller than the predetermined time T2, the hierarchical structure determination unit 322 merges the segment (k) with the immediately preceding action (S214). On the other hand, when the action time of the segment (k) is equal to or longer than the predetermined time T2 in step S212, the hierarchical structure determining unit 322 determines the operation action of the segment as “other action” (S216). Thereafter, the hierarchical structure determination unit 322 determines whether or not the processing of steps S208 to S216 has been executed for all the segments (S218). If there is an unprocessed segment, 1 is added to k ( S220), the process from step S208 is repeated.

  On the other hand, when the processes of steps S208 to S216 are executed for all segments, as shown in FIG. 12, a process of merging consecutive identical actions for these segments is performed (S222). After that, when there is a vehicle behavior only for the data unit time (for example, only for 1 minute), the behavior of the segment is set as “other behavior” (S224).

  Next, the hierarchical structure determination unit 322 determines whether or not the action content of the segment is “walking” (S226), and if other than “walking”, the segment is stored in the buffer (S228). On the other hand, when the action content of the segment is “walking” in step S226, it is further determined whether or not the vehicle action is accumulated in the buffer (S230). When the vehicle behavior is accumulated in the buffer, the hierarchical structure determination unit 322 sets the motion behavior of the segment as the behavior of the vehicle having the largest occupation ratio from “walking” (S323). On the other hand, when the vehicle behavior is not accumulated in the buffer, the motion behavior of the segment is determined as “other behavior” (S324).

  Here, the hierarchy information added to the action segment will be described with reference to FIG. As shown in FIG. 13, it is assumed that the operation contents of the six unit segments (SG01 to SG06) are “train”, “train”, “walk”, “walk”, “train”, and “train”. By the process shown in FIG. 10, unit segments SG01 and SG02 are grouped into action segment SG07, unit segments SG03 and SG04 are grouped into action segment SG08, and unit segments SG05 and SG06 are grouped into action segment SG09. This state is defined as particle size 1-0. The action segments SG07 to SG09 having the granularity 1-0 are respectively an action segment SG17 “getting on a train on a certain route (action B)”, an action segment SG18 “changing (behavior C)”, and “on a train on a certain route” It becomes action segment SG19 of "ta (action C)". The particle size at this time is set to 1-1. Further, when the action segments SG17 to SG19 are gathered from the state of the granularity 1-1, one action segment SG10 “get on the train (action A)” is obtained. The particle size at this time is set to 1-2.

  The behavior segment hierarchy information may be given to a behavior segment obtained by combining unit segments or to a unit segment. When hierarchical information is given to an action segment that combines unit segments, for example, it is assumed that action segment SG17 of action B in FIG. The behavior segment SG17 is considered to be a behavior segment newly generated by combining the unit segments SG01 and SC02. In this case, the action segment SG17 is given as hierarchical information that is an action segment having a granularity of 1-1, that the action content is “on a train on a certain route”, and the action start time and end time. Or you may give to action segment SG17 that it is comprised from unit segment SG01 and SG02 as hierarchy information.

  On the other hand, when hierarchical information is given to a unit segment, which is the smallest unit action segment, for example, it is assumed that attention is paid to the action segment SG01 in FIG. At this time, the action segment SG01 is a unit segment, the granularity 1-0 includes the action segment SG07, the granularity 1-1 includes the action segment SG17, and the granularity 1-2 includes the action segment SG10. As given. Specifically, for example, information that associates operation contents in hierarchical order such as [train, action B, action A] can be expressed as hierarchy information.

  Hierarchy information may be given in any format, and may be given in other formats. Giving hierarchical information to an action segment that combines unit segments is excellent from the viewpoint of data amount, and giving hierarchical information to a unit segment is excellent in terms of database search.

  Returning to the description of FIG. 8, when the behavior segment to which the hierarchy information is given from the lifestyle behavior data is generated in step S <b> 130, the lifestyle behavior recognition unit 321 outputs each behavior segment to the data management unit 330 (S <b> 140). The data management unit 330 records the acquired action segment in the storage unit (the unit data storage DB 334 or the hierarchy information-added data storage DB 335).

[3-4. Processing contents of action expression generation unit]
The analysis server 300 can accumulate an action log based on action segments in real time, and can simultaneously generate an action expression based on the semantic content of the action action. In addition, an action expression can be generated from a past action history. FIG. 14 shows the detailed configuration of the behavior expression generation unit 320 and the data management unit 330 of the analysis server 300. FIG. 14 is a functional block diagram illustrating a functional configuration of the analysis server 300.

  As illustrated in FIG. 14, the behavior expression generation unit 320 includes a hierarchy processing unit 323, a registration processing unit 324, a comment creation unit 325, and an acquisition unit in addition to the above-described living behavior recognition unit 321 and the hierarchical structure determination unit 322. 326 may further be provided.

  The hierarchy processing unit 323 performs subsequent processing on the determination result of the hierarchy structure determination unit 322. The hierarchy processing unit 323 records only a part of the data to be assigned to the action segment in the storage unit or passes the specified action segment hierarchy information to the application in order to reduce the weight and speed of the data. , Work on a hierarchical structure.

  As described above, the hierarchy information can be given to a behavior segment obtained by combining unit segments and to a unit segment. When hierarchy information is given to the combined action segment, the hierarchy processing unit 323 processes the action segment of the hierarchy information selected by the user via the input unit 160. On the other hand, when hierarchical information is given to the unit segments, the hierarchical processing unit 323 combines the unit segments based on the hierarchical information selected by the user via the input unit 160 to generate an action segment. The hierarchy processing unit 323 outputs the information processing result to the registration processing unit 324 and the comment creation unit 325.

  The registration processing unit 324 records the action segment generated by the hierarchy processing unit 323 in the data management unit 330. The registration processing unit 324 outputs the action segment to the data acquisition unit 331 and records the behavior segment in, for example, the hierarchy information-added data storage DB 335.

  The comment creating unit 325 generates and gives a comment such as the meaning content of the action to the generated action segment. The comment generated by the comment creation unit 325 is output to the data acquisition unit 331. The data acquisition unit 331 records the comment in association with the corresponding action segment, for example, in the hierarchical information-added data storage DB 335.

  The acquisition unit 326 acquires a predetermined action segment from the unit data storage DB 334 or the hierarchy information-added data storage DB 335. For example, when the action expression generation unit 320 executes a process that must use a past action log, the acquisition unit 326 stores past data recorded in the unit data storage DB 334 or the hierarchy information-added data storage DB 335. To get. The data to be acquired is determined based on an instruction from the user.

<4. Action Record Display Application>
As described above, the behavioral data to which the semantic content of the behavioral behavior is added is generated by analyzing the behavioral behavior data acquired by the behavior recording device 100 with the analysis server 300. Below, the function of the application which expresses a user's action log using an action segment is explained.

[4-1. Action log representation based on action segments]
First, the expression of the action log using the action segment will be described. An example of the expression of the action log is shown in FIG. The action log in FIG. 15 can be displayed on the display unit 150 of the action recording apparatus 100, for example.

  The action log is composed of action segments arranged in time series. In each action segment, for example, the start time and end time of the action action and the action content are displayed. Further, when the operation content is a mobile action such as “move by train”, a position expression such as a departure location to an arrival location (for example, “from Gotanda to Osaki”) is added to the operation content. When the operation content is an action other than a mobile system such as “work”, “meal”, etc., the place where the operation was performed (for example, “in Osaki”) is added to the operation content.

  Furthermore, in order to notify the user of the behavior of such an action segment in an easy-to-understand manner, an object indicating the content of the action can be displayed, and an object representing the mood of the user during the action can be displayed. Good. Moreover, you may display the value (exercise value) which shows the number of steps (step value) which the user walked for the operation | movement, and the energy consumption by operation | movement. The content displayed in each action segment constituting the action log is not limited to the example shown in FIG. 15, and information obtained from sensor information acquired from sensors can be further displayed in each action segment.

  In the action log shown in FIG. 15, there are places where the times of adjacent action segments are not continuous in time. For example, there is a blank time between the action “Meals in Osaki” started from 12:30 and the action “I was in Shibuya” started from 14:30. Thus, it is possible not to display all the action segments in the action log. The behavior segment is hidden by, for example, preventing the behavior segment from being displayed by editing / deleting the behavior segment by the user, or setting a non-display filter that hides some behavior segments.

  As the non-display filter, for example, a filter that is not displayed when the action time is short, a filter that does not display an action segment that is determined to be unimportant for the user, and the like are conceivable. Further, a filter that is not displayed when the recognition accuracy is low, a filter that displays only an action or a place designated by the user, and the like may be set.

[4-2. Browse Behavior]
When the user activates the action log display application on a browsing terminal (for example, the action recording device 100), the user can browse the user's action log in predetermined units, for example, in units of one day. FIG. 16 shows a display example of the action log when the action log display application is activated. FIG. 16 shows a state in which the daily action log 410 is displayed on the display unit 150 of the action recording apparatus 100.

  The action log 410 includes action segments 412 arranged in time series from the upper end to the lower end of the screen, for example. As described with reference to FIG. 15, each action segment 412 displays the place where the action was performed, the explanation of the place, the kind of action, the number of steps the user walked for the action, the exercise value, and the like. When all the action logs for one day cannot be displayed on the display screen, the action segment that is not displayed can be displayed on the display unit 150 by performing a screen scroll operation.

  By touching the Prev button 422 for displaying the action log of the previous day of the currently displayed action log or the Next button 424 for displaying the action log of the next day of the currently displayed action log, another day is displayed. The action log can be displayed on the display unit 150. When the Prev button 422 is pressed, if there is no action log one day ago, the action log of the day when the action log is acquired next in the past may be displayed. Similarly, when the Next button 424 is pressed and the next day's behavior log does not exist, the behavior log of the next day when the behavior log is acquired may be displayed. The display unit 150 displays operation buttons 430 for viewing and editing the action log 410, and the user can execute the process by touching the button corresponding to the process to be executed. .

  For example, when the calendar button 434 is touched, a calendar 440 is displayed on the display unit 150 as shown in FIG. The calendar 440 that is displayed first on the display unit 150 after the screen transition may be, for example, that of the current month, or that of the month corresponding to the action log 410 that was displayed before the screen transition. Good. In the calendar 440, a day on which the action log 410 can be displayed, that is, a day on which the action log 410 is stored as data can be selected by, for example, a touch operation. When a certain day is selected from the calendar 440, the action log 410 of that day is displayed on the display unit 150.

  The display of the calendar 440 can be changed by operating the previous (<) button 442 or the next (>) button 444. When the previous (<) button 442 is operated, the previous month calendar is displayed, and when the next (>) button 444 is operated, the next month calendar is displayed. When the previous (<) button 442 is pressed, if there is no action log one month before, the calendar 440 of the month in which the action log is acquired next in the past may be displayed. Similarly, when the next (>) button 444 is pressed and there is no action log in the next month, the calendar 440 of the month in which the action log is acquired next may be displayed.

  Although FIG. 17 shows an example in which the monthly calendar 440 is displayed, the present technology is not limited to this example, and for example, a weekly, weekly, or yearly calendar can be displayed. Further, in the calendar 440, an icon indicating a typical operation action on the day may be displayed for a day on which the action log can be displayed. Thereby, the user can recognize the action of the day at a glance. With such a calendar function, the action log 410 desired to be browsed can be easily found and displayed on the display unit 150. In order to transition from the display screen of the calendar 440 to the previous screen, the Back button 446 may be operated.

  For example, when the map button 431 of the operation buttons 430 is touched, the behavior log display application starts the map 450 and displays position information corresponding to the behavior log 410 on the map 450. FIG. 18 shows a display example when position information corresponding to the action log 410 is displayed on the map 450 by operating the map button 431.

  When the action log 410 is displayed, if the map button 431 is touched in a state where no action segment 412 constituting the action log 410 is selected, for example, the history of the position information of all the action logs 410 of the day is displayed. It is displayed on the map 450. If the user is moving, the movement trajectory is displayed on the screen.

  On the other hand, when the action log 410 is displayed, when the map button 431 is touched in a state where one action segment 412a is selected from the action log 410, the history of the position information of the action segment 412a is displayed on the map 450. Is displayed. For example, as shown in the left of FIG. 18, when the action segment 412 a “moved from Ashinomiya to Osaki by train” is selected and the map button 431 is touched, as shown in the right of FIG. 18, from the departure place (Ashinomiya) The movement trajectory by train to the arrival place (Osaki) is displayed on the map 450. Thereby, it is possible to present in an easy-to-understand manner what route the user has moved. When the position information is displayed on the map 450, the time information 452 of the position information may be displayed on the display unit 150.

  When the user is not moving, an icon or the like may be displayed at the place where the operation is performed. Further, FIG. 18 illustrates the case where one action segment 412 is selected. However, the present technology is not limited to such an example, and a plurality of action segments 412 are selected and position information of all the selected action segments 412 is displayed. Can also be displayed on the map 450. At this time, the position information on the map 450 may be displayed separately by color coding for each action segment. In order to change from the display screen of the map 450 to the previous screen, the Back button 454 may be operated.

[4-3. Action modification]
The method for displaying the action log 410 on the display unit 150 using the action segment 412 analyzed and generated by the analysis server 300 has been described above. However, there may be an error in the display content of the generated action log 410. At this time, the user can correct the contents of the action log 410. This correction feedback is reflected in the action recognition determination process. First, based on FIG. 19 and FIG. 20, the correction method of the action log 410 is demonstrated. FIG. 19 is an explanatory diagram showing a state in which a correction screen for correcting a behavior segment to be corrected is displayed. FIG. 20 is an explanatory diagram illustrating an example of a correction screen for correcting an operation action.

  To correct the content of the action segment 412, the user selects the action segment 412 a to be corrected from the action log 410 displayed on the display unit 150 and touches the edit button 435. Then, as shown on the right side of FIG. 19, a correction screen 460 for correcting the action segment 412a to be corrected is displayed. For example, when the modification of the action segment 412a “moved from Ashinomiya to Osaki by train” is selected, the action screen 410 can be edited from the display screen of the action log 410 to edit the action contents, the start and end places of the action, and the mood during the action The screen transitions to 460.

  The operation content can be corrected in the operation content correction area 461 of the correction screen 460. For example, when the operation content correction area 461 is selected, an operation content candidate list 461a in which operation content candidates to be corrected are listed is displayed as shown in FIG. The user can correct the operation content by selecting the correct operation content from the operation content candidate list 461a. When “free input” is selected from the motion content candidate list 461a, an input field in which the user can freely input motion content is displayed, and the correct motion content can be input.

  When the operation content is selected from the operation content candidate list 461a, the user continues to correct the start location and the end location of the operation. At this time, when the selected operation content is a mobile action such as “move by bus”, the start location correction area 462, the start location explanation correction area 463, the end location correction area 464, and the end location explanation correction area. 465 corrections can be made.

  The start location correction area 462 and the end location correction area 464 may display a location name list so that the user can select and input the location name, or the location name can be directly input. In the place name list, for example, place names that are landmarks such as building names, station names, and store names can be displayed. If there is no place to be a landmark, the place name (address) may be displayed in the place name list.

  In addition, a start location map 462a and an end location map 464a that display a map in conjunction with the input contents of the start location correction area 462 and the end location correction area 464 may be displayed on the display unit 150. In the start place map 462a and the end place map 464a, a map of an arbitrary place can be displayed by a scroll operation on the map. Further, when a touch operation is performed on the map displayed in the start location map 462a and the end location map 464a, the location name corresponding to the position where the touch operation has been performed is designated as the start location correction area 462 and the end location correction area. It is also possible to automatically input to 464.

  The start location explanation correction area 463 and the end location explanation correction area 465 are areas for inputting the locations entered in the start location correction area 462 and the end location correction area 464 for the user. When the start location explanation correction area 463 and the end location explanation correction area 465 are touched, for example, as shown in FIG. 20, the explanation candidate list 463a or 465a is displayed. The user can input a location description by selecting the correct description from the explanation candidate list 463a or 465a.

  Examples of the description contents of the place include a “place to return” such as a home, a “work place” such as a company, and a “study place” such as a school. By inputting such a description of a place, it is possible to understand what the place has for the user, and to help improve the accuracy of action recognition for the user. If there is no correct explanation in the explanation candidate list 463a or 465a, it is also possible to directly input the explanation into the start location explanation correction area 463 and the end location explanation correction area 465.

  When the operation content selected in the operation content candidate list 461a of FIG. 20 is an action other than a mobile system such as “shopping” or “work”, the end location correction area 464, the end location explanation correction area 465 corrections can be made. The correction method is as described above.

  For example, as shown in FIG. 19, an object that indicates a user's mood when an action is performed can be corrected in a mood correction area 466. The mood correction area 466 includes a “mood not set” button and a mood selection button for selecting whether the mood is good or bad in stages. The mood selection buttons are, for example, “Very bad (irritated / depressed)”, “Bad (somewhat annoyed)”, “Ok (no problem in particular)”, “Good (slightly good)”, “Very good ( Refreshing, refreshing and fulfilling) ”can be configured to be selectable. The user can select the mood when the operation is performed from the mood correction area 466.

  When all corrections are completed, the correction content can be reflected in the action segment 412a by pressing the save button 468a at the bottom of the correction screen 460 or the save button 468b at the top. When the save button 468a or 468b is pressed, the screen changes to the screen before the correction screen 460 transition. In order to change to the screen before the correction screen 460 transition without reflecting the input content on the correction screen 460, the user can press the cancel button 467a at the bottom of the correction screen 460 or the cancel button 467b at the top. Good.

[4-4. Combining actions]
In the present technology, not only the content of each action segment 412 is corrected, but also the display of the action log 410 can be easily changed by correcting the relationship between the action segments 412. For example, a plurality of behavior segments 412 can be combined and displayed as one behavior segment 412. The combination of action segments 412 is a function of combining a plurality of action segments 412 continuous in time into one action segment 412. The combined time range of the action segment 412 is from the start time of the oldest action segment 412 to the end time of the action segment 412 closest to the present time.

  FIG. 21 shows an example of a method for combining the action segments 412. First, when the action log 410 is displayed, when the merge button 432 is pressed, the action segment 412 can be combined (action combination mode). The selected action segment 412 can be combined by selecting the action segment 412 to be combined in the action combination mode.

  Here, the action of the action segment 412b selected first among the action segments 412 to be combined can be set as the operation content after combination. In FIG. 21, the operation content “work in Osaki” is the operation content after combination. Then, another action segment 412 to be combined is selected. The action segment 412 can be selected by a touch operation or a drag operation. In FIG. 21, the action segment surrounded by reference numeral 412c is selected as a combination target. When the action segment 412 to be combined is selected and then the save button 468a is pressed, the action segment 412 to be combined is displayed in combination. The combined action segment 412 represents the action of “working in Osaki” from 9:55 to 22:42. In order to cancel the combination mode, the cancel button 467a may be pressed.

  In the example of FIG. 21, the action content of the action segment 412 after the combination is determined to be that of the action segment 412 selected first, but the present technology is not limited to such an example. An example of the operation content determination method of the action segment 412 after another combination is shown in FIG. In FIG. 22, the action segment to be combined is selected by a drag operation. That is, first, the first action segment (start segment) to be combined is selected by touching with a finger, and the finger is moved to select the last action segment (end segment) to be combined. As a result, the action segment to be combined (the action segment surrounded by reference numeral 412c) is determined. When the save button 468a (see FIG. 21) is pressed, the combined action segment is displayed.

  The operation content of the action segment after the combination can be, for example, the operation content of an arbitrary action segment among the action segments to be combined. For example, when the operation content “walking in Osaki” is selected, the operation content of the action segment 412d1 after the combination is “walking in Osaki”.

  Moreover, you may determine the operation | movement content of the action segment after a coupling | bonding by the majority vote of the action segment of a coupling | bonding object, for example. For example, in the example of FIG. 22, the action content of two action segments 412 among the four action segments 412 to be combined is “work in Osaki”, and the action content of one action segment 412 is “meal in Osaki”. The operation content of another action segment 412 is “I was walking in Osaki”. Thus, the “operation in Osaki” with the most operation content can be determined as the operation content of the combined action segment 412d2.

  Alternatively, the operation content of the action segments after the combination may be determined by performing reanalysis on the action segments to be combined, for example. For example, in the example of FIG. 22, the operation contents of the four action segments 412 to be combined are “working in Osaki”, “mealing in Osaki”, and “walking in Osaki”. Thus, the semantic content of the user's motion can be reanalyzed, and for example, the motion content of “I was in Osaki” can be determined as the motion content of the combined action segment 412d3.

  As described above, the action segments 412 can be easily combined by selecting a combination target.

[4-5. Action division]
Further, in the present technology, for example, the plurality of behavior segments 412 can be divided and displayed as a plurality of behavior segments 412 as correction of the relationship between the behavior segments 412. The division of the action segment 412 is a function of dividing one action segment 412 into a plurality of action segments 412. As a method for dividing the action segment 412, for example, there are a method for setting a time for dividing the action segment 412 and a division method using hierarchical information.

  For example, FIG. 23 shows an example of a dividing method by setting the time of the action segment 412. First, when the action log 410 is displayed, when the division button 433 is pressed, the action segment 412 can be divided (action division mode). By selecting the action segment 412 to be divided in the action division mode, the selected action segment 412 can be divided at a specified time.

  For example, it is assumed that the action segment 412e is selected as the division target in FIG. Then, a division time setting screen for inputting the division time of the action segment 412e to be divided is displayed. On the division time setting screen, an arbitrary time from the start time to the end time of the action segment to be divided can be set. Thereafter, when the save button 468a is pressed, the action segment 412 to be divided is divided and displayed. For example, when the division time is set to 11:50, the behavior segment 412 includes a first behavior segment that “worked in Osaki” from 9:58 to 11:50, and 11:50 to 12:29. It is divided into a second action segment of “working in Osaki”. To cancel the division mode, the cancel button 467a may be pressed.

  Further, for example, FIG. 24 shows an example of a division method based on the hierarchy information of the action segment 412. In FIG. 24, it is assumed that the action division mode is already set. When the user selects an action segment 412e to be divided in a state where the action log 410 is displayed, as shown in FIG. 24, a hierarchical list 414 representing the action segment 412e to be divided by more detailed action segments is displayed. The When the hierarchy list 414 is displayed, the user selects an action segment to be a dividing point.

  For example, when the action segment 414a is selected in FIG. 24, for example, the end time of the action segment 414a is determined as a division time, and “work in Osaki” is performed from 9:30 to 11:59 as shown on the right side of FIG. It is divided into a first action segment 412e1 that has been performed and a second action segment 412e2 that has “worked in Osaki” from 11:59 to 12:30.

[4-6. Action segment display based on segmentation granularity]
In the present technology, the behavior segment 412 constituting the behavior log 410 holds a hierarchical relationship based on the meaning content as hierarchical information. By changing the segmentation granularity using this hierarchical information, the display roughness of the displayed action log 410 can be changed. The display roughness can be changed using, for example, a slider or a zoom button.

  FIG. 25 shows a case where the display roughness is changed using the slider 471. The slider 471 displays a knob 472 for setting the display roughness (granularity), and the display roughness can be changed by changing the position of the knob 472. For example, as shown on the left side of FIG. 25, when the knob 472 is on the small granularity side of the slider 471, the action log 410 is displayed by a detailed action segment 412. As the knob 472 is moved to the larger granularity side of the slider 471 from this state, a plurality of action segments 412 are displayed together based on the segmentation granularity previously assigned to the action segment 412.

  FIG. 26 shows a case where the display roughness is changed using the zoom button 473. A plurality of buttons 474 for setting display roughness (granularity) are displayed in a row on the zoom button 473. By checking any one of the plurality of buttons 474, the action log 410 can be displayed with the display roughness corresponding to the button 474. For example, as shown on the left side of FIG. 26, when the button 474 on the small granularity side of the zoom button 473 is checked, the action log 410 is displayed by a detailed action segment 412. As the large granularity button 474 is checked from this state, a plurality of action segments 412 are displayed together based on the segmentation granularity previously assigned to the action segment 412.

  Thus, the display roughness of the action log 410 can be easily changed based on the segmentation granularity assigned to the action segment 412, and the action log 410 can be viewed with the display roughness that the user wants to see.

  Here, in FIG. 25 and FIG. 26, the display roughness of the action log 410 is changed. However, in the present technology, the display roughness of the action segment 412 can be changed according to the purpose. That is, the display roughness of the action segment 412 is changed independently depending on the type of action. The type of action may be work, shopping, movement, etc. For example, checking the corresponding action button 476 from the action type selection list 475 as shown in FIG. 27 changes only the display roughness of the action. Can be made.

  For example, as shown in FIG. 27, when the “work details” button 476b is checked in the behavior type selection list 475, the behavior segments 412f1 and 412g1 related to the work are displayed in detail. For example, for the action segment 412 f 1, the operation content “Work in Osaki” has five actions, “Desk work in Osaki”, “Move on foot”, “Meeting in Osaki”, “Move on foot”, and “Desk work in Osaki”. It is displayed by the action segment group 412f2. In addition, about the action segment 412g1, since the said operation | movement content was the most detailed, the same content is displayed even after display roughness change (action segment 412g2).

  For example, as shown in FIG. 28, when the “shopping details” button 476c is checked in the behavior type selection list 475, the behavior segment 412h1 related to shopping is displayed in detail. For example, for the action segment 412h1, the operation content “shopping in Shibuya” is “shopping in Shibuya”, “moving the floor”, “shopping in Shibuya”, “moving between stores in Shibuya”, “shopping in Shibuya”. , “Move between stores in Shibuya” and “Shopping in Shibuya” are displayed by seven action segment groups 412h2.

  Furthermore, for example, as shown in FIG. 29, when the “movement details” button 476d is checked in the action type selection list 475, the action segments 412i1, 412j1, and 412k1 related to the movement are displayed in detail. . For example, for the action segment 412i1, the operation content of “Move by train from Ashinomiya to Osaki” is “Waiting for train at Ashinomiya”, “Move by train from Ashinomiya to Takadanobaba”, “Transfer at Takadanobaba”, “Takadanobaba” Is displayed by five action segment groups 412i2 such as “Move to Osaki by train” and “Move by walking in Osaki”. Similarly, for the action segment 412j1, the operation content “Move from Osaki to Shibuya” is “Move to Osaki Station”, “Waiting for train at Osaki Station”, “Move by train from Osaki to Shibuya”, “Move to Shibuya Are displayed by four action segment groups 412j2. The same details are displayed for the action segment 412k1 as well.

  Further, when the behavior granularity 412 is displayed with the same granularity without depending on the behavior, for example, as shown in FIG. 30, the “uniformly flat” button 476 a may be checked in the behavior type selection list 475. . Thereby, all the action segments 412 of the action log 410 are displayed in detail with the same granularity.

  As described above, since the display roughness of the action segment 412 can be changed independently according to the type of action, only the action that the user wants to check in detail can be displayed in detail.

  It is also possible to combine the display roughness changing method shown in FIGS. 25 and 26 with the display roughness changing method according to the type of action shown in FIGS. For example, as shown in FIG. 31, a slider may be provided for each type of action so that the display roughness of each type of action can be adjusted. In FIG. 31, a slider 478a for setting the display roughness of the action segment related to “work”, a slider 478b for setting the display roughness of the action segment related to “shopping”, and the display of the action segment related to “movement”. A display particle size setting unit 477 provided with a slider 478c for setting roughness is shown. By moving the knobs 479a, 479b, and 479c of the sliders 478a, 478b, and 478c of the display granularity setting unit 477, the display roughness for each type of action can be adjusted.

[4-7. Delete action]
In the present technology, the action segment 412 can be deleted from the action log 410. For example, as shown in FIG. 32, if the action segment 412l to be deleted is selected and the delete button 436 is pressed while the action log 410 is displayed, a deletion confirmation screen 480 is displayed as shown on the right of FIG. Is done. On the deletion confirmation screen 480, the user can input the reason for deletion of the action segment 412l to be deleted. When the user presses a button describing the corresponding reason for deletion, the action segment 412l to be deleted is deleted from the action log 410. Depending on the reason selected by the user, deletion of the behavior segment may be fed back as behavior modification.

[4-8. Posting an action]
In the present technology, the content of the action segment 412 of the action log 410 can be posted on the posting site. For example, as shown in FIG. 33, when the action segment 412m is selected in the state where the action log 410 is displayed and the posting button 437 is pressed, a posting screen 482 is displayed as shown on the right side of FIG. The On the posting screen 482, the operation content of the action segment 412m to be posted is automatically pasted in the posting content input area 482a. When the user presses the posting execution button 482b, the description content in the posting content input area 482a is posted to the posting site.

[4-9. Action log acquisition stop processing]
In the present technology, when acquisition of an action log is stopped for some reason, for example, as illustrated in FIG. 34, a setting button 438 is pressed to display a setting screen 490. On the setting screen 490, various settings regarding the action log display application can be performed. For example, when the acquisition of the action log 410 is stopped, “stop” of the acquisition function setting unit 491 that sets the operation of the action log acquisition function is selected. Thereby, the action log display application stops the action log acquisition function. In addition, what is necessary is just to select "resume" of the acquisition function setting part 491, when restarting the stopped action log acquisition function.

[4-10. Update display]
The behavior log display application of the present technology automatically uploads the behavior behavior data acquired by the behavior recording device 100 to the behavior log server 200 at a predetermined timing (for example, twice a day). The analysis server 300 also automatically generates an action segment at a predetermined timing (for example, twice a day). Although the action log is displayed based on the generated action segment, the action log displayed according to the function or situation of the system may not be the latest result. Therefore, the action log can be updated to the latest result by pressing an update button 493 for updating the action log displayed on the setting screen 490 of FIG. 34 to the latest result. When the action log display screen is displayed after the update button 493 is pressed, the latest action log can be displayed on the display unit 150.

<5. Reflection processing of correction feedback>
In the behavior log display system of the present technology, the behavior log is displayed by the behavior segment generated by analyzing the semantic content of the behavior by the analysis server 300. However, as described above, the contents of the displayed action log are not all correct. For this reason, in the present technology, the user can correct the content using the action log display application. In the present technology, the correction feedback of the user is reflected in the analysis process by the next analysis server 300 and used to improve the accuracy of the analysis result after the next time. The correction feedback reflection process will be described below with reference to FIGS.

[5-1. Nature of correction feedback]
In the present technology, the correction feedback of the user is reflected in the analysis process to improve the accuracy of the analysis result. However, the user does not always correct all errors in the analysis result by the analysis server 300. That is, it cannot be said that the content of the action segment that has not been corrected is correct. Therefore, in the present technology, it is necessary to assume a system that can collect only essentially biased information. Moreover, the analysis result before correction by the user does not necessarily match the latest analysis result. For this reason, it is possible to learn each user's specific behavior by reflecting the information on which behavior segment is modified for each user in the analysis process, and it is effective for improving the accuracy of the analysis result. Conceivable.

[5-2. Action recognition processing]
In consideration of such points, in the present embodiment, the action pattern is determined based on the feature amount analysis result in the action action recognition process, and a plurality of probability distributions corresponding to the action pattern, time, and position information (location) are obtained. get. At this time, the weight of the histogram is set, and the action behavior is recognized based on the result of weighting depending on the place. When location information cannot be obtained or when location information does not need to be obtained, uniform weighting may be used, or a specific weight such as “cannot take place” or “no need for place”. May be.

  FIG. 35 shows an example of action recognition processing by the living action recognition unit 321. Also, FIG. 36 shows operational behavior estimation information that determines operational behavior. The motion behavior estimation information is information representing, for example, the relationship between the place-dependent weighting coefficient and the probability distribution of each behavior, and as shown in FIG. 36, for example, “shopping”, “work”, “meal”, “others” A plurality of (four in FIG. 36) probability distributions are acquired for the action “”. A weighting factor depending on the location is set for each probability distribution. The motion behavior estimation information is set in advance and recorded in, for example, the analysis parameter DB 333.

  The living behavior recognition unit 321 starts a process of recognizing the behavior of the behavior log when acquiring the behavior log of unit time. First, as shown in FIG. 35, a pair of one or more probability distributions and a location-dependent weighting coefficient is acquired based on the behavior pattern, time information, and position information (S300).

  Next, the living behavior recognition unit 321 performs processing for determining the operation content of the behavior log for unit time in steps S302 to S306. First, n is the number of pairs of probability distributions and weighting factors acquired in step S300, and i (i = 0 to n) is a parameter representing the number of processes (S302). The living behavior recognition unit 321 then multiplies the probability distribution of each behavior and the weighting factor for the first (i = 0) probability distribution and weighting factor pair (S304). For example, in FIG. 36, when the first pair is a pair of the probability distribution and the weighting coefficient in the first row, the probability 50 and the weighting coefficient 1 for “shopping” are integrated, and the probability 10 and the weighting coefficient 1 for “work”. And. Then, the probability 10 and the weighting factor 1 are integrated for “meal”, and the probability 30 and the weighting factor 1 are integrated for “others”. Thereby, integrated values (“shopping”: 50, “work”: 10, “meal”: 10, “others”: 30) for each action are acquired.

  When the process of step S304 is completed, 1 is added to the parameter i (S306), and the process from step S302 is repeated. In the example of FIG. 36, the probability distribution of each action and the weighting coefficient are multiplied for the next (i = 1) probability distribution and weighting coefficient pair, that is, the second row probability distribution and weighting coefficient pair. (S304). For the pair in the second row, first, the probability 10 and the weighting factor 6 are accumulated for “shopping”, and the probability 50 and the weighting factor 6 are accumulated for “work”. Then, the probability 10 and the weighting factor 6 are integrated for “meal”, and the probability 30 and the weighting factor 6 are integrated for “others”. Thereby, the integrated values (“shopping”: 60, “work”: 300, “meal”: 60, “others”: 180) for each action are acquired.

  Thereafter, the living behavior recognition unit 321 adds the integrated value of the second row to the integrated value of the first row for each behavior. As a result, the added values are “shopping”: 110, “work”: 310, “meal”: 70, and “others”: 210. Similarly, when the integrated value is calculated for the pair of the probability distribution and the weighting coefficient in the third row and the fourth row and the integrated value is added to the added value of each action so far, finally, “shopping”: 260, “work”: 460, “meal”: 420, “others”: 460 are added.

  The living behavior recognition unit 321 determines the behavior with the maximum final added value as the operation content of the behavior log. In the example of FIG. 36, both “work” and “other” have the maximum addition value of 460, but in this case, actions other than “other” are preferentially determined as the operation content. Therefore, in the example of FIG. 36, “work” is recognized as the operation content.

[5-3. Application of correction feedback]
(5-3-1. Outline of correction feedback reflection processing)
As described based on FIG. 35 and FIG. 36, the recognition processing result of the action content greatly varies depending on the action action estimation information indicating the relationship between the place-dependent weighting coefficient and the probability distribution of each action. Therefore, when the behavior log is corrected by the user, the feedback adjustment unit 332 of the analysis server 300 reflects the correction content in the motion behavior estimation information recorded in the analysis parameter DB 333. This increases the accuracy of the operation content recognition process.

  Based on FIG. 37, the outline of the correction feedback reflection process will be described. It is assumed that the relationship between the weight coefficient depending on the place shown in FIG. 36 and the probability distribution of each action is held as the motion action estimation information before correction. As a result of generating an action segment from the action action data based on the action action estimation information, it is assumed that the user inputs action segment correction information (correction feedback) from the input unit 160. The correction feedback is converted into data in a format that can be transmitted to the analysis server 300 by the input information processing unit 144 and transmitted to the analysis server 300 via the client interface unit 130.

  The analysis server 300 that has received the correction feedback from the behavior recording device 100 by the analysis server interface unit 310 causes the feedback adjustment unit 332 to reflect the content of the correction feedback in the operation behavior estimation information. At this time, the feedback adjustment unit 332 corrects the probability distribution of the motion behavior estimation information when the content of the correction feedback is for the behavior, and when it is for the location information (location), the weight depending on the location Correct the coefficient.

  For example, as shown in FIG. 37, it is assumed that the operation content “work” is acquired as an analysis result, but the user receives correction feedback that sets the operation content to “shopping”. At this time, the feedback adjustment unit 332 corrects the probability distribution having the highest “work” probability among the plurality of probability distributions. For example, the feedback adjustment unit 332 calculates the probability of “work” as the analysis result and the probability of “shopping” as the correction result for the probability distribution of the second row having the maximum probability of “work”, as an average value of the two probabilities. Make a correction.

  On the other hand, it is assumed that an analysis result “place to work” is acquired, but the user receives correction feedback that explains the place as “place to improve shopping”. At this time, the feedback adjustment unit 332 corrects the weighting coefficient of the probability distribution having the largest “shopping” probability among the plurality of probability distributions. For example, the feedback adjustment unit 332 performs a correction to increase the weight coefficient of the first row having the maximum “shopping” probability by a predetermined number (for example, 10).

  By correcting the action behavior estimation information in this way, it is expected that the correction feedback on the action segment analysis result is reflected and the accuracy of the action content analysis result is improved. Hereinafter, the correction feedback reflection process will be described in more detail with reference to FIGS.

(5-3-2. Reflection processing of correction feedback for action)
First, based on FIGS. 38 to 40, the process of reflecting the correction feedback on the action will be described. FIG. 38 is a flowchart showing the process of reflecting the correction feedback for the action. FIG. 39 is an explanatory diagram for explaining the correction of the motion behavior estimation information based on the processing of FIG. FIG. 40 is a flowchart showing another reflection process of correction feedback for an action. “001”, “002”, and “003” described in the top row of each column in FIG. 39 are IDs representing actions. In the following description, it is assumed that the analysis result by the living behavior recognition unit 321 is “behavior 002”, and the correct behavior by the user's correction feedback is “behavior 003”.

  When the feedback adjustment unit 332 receives correction feedback from the behavior recording apparatus 100, the feedback adjustment unit 332 first recognizes the correction content. Here, it is assumed that the action content of the action segment is corrected. The feedback adjustment unit 332 acquires the action segment to be corrected from the unit data storage DB 334 or the hierarchy information-added data storage DB 335, and starts the process illustrated in FIG.

  First, the feedback adjustment unit 332 acquires a probability distribution (partial probability distribution) used for recognizing the action content of the action segment to be corrected from the action action estimation information stored in the analysis parameter DB 333 (S310). Next, the feedback adjustment unit 332 calculates, for the partial probability distribution, a value M (i) obtained by multiplying the maximum probability of each probability distribution by the weight coefficient of the row, and sorts these probability distributions (S311).

  A parameter i (i = 0 to n) indicating the order of the sorted probability distributions is set, and the number of probability distributions constituting the partial probability distribution is set to n. Then, the feedback adjustment unit 332 determines whether the parameter i is smaller than n and the multiplication value M (i) is larger than a predetermined threshold th (S312). If the condition of step S312 is not satisfied, the process shown in FIG. 38 is terminated. For example, in the case of the motion behavior estimation information on the left side of FIG. 39, only the probability distribution on the 4th to 6th rows is corrected. On the other hand, when the condition of step S312 is satisfied, the feedback adjustment unit 332 determines the action with the maximum probability distribution value among the actions in the target row and the correct action obtained from the corrected feedback based on the action action estimation information. The correction ratio C (i) is obtained from the loss ratio calculation function (S313).

  Here, the loss ratio calculation function is a single and comprehensive measure representing the loss that occurs when any available decision is made. In the present embodiment, a correction ratio table representing the correction ratio C between the behavior of the analysis result and the correct action as shown in the lower part of FIG. 39, for example, is set using the loss ratio calculation function. This correction ratio table can be set in advance and can be stored in the analysis parameter DB 333. From the correction ratio table, the feedback adjustment unit 332 performs a correction ratio C (i) between the action having the largest probability distribution value and the correct action “action 003”. For example, when the process of step S313 is performed on the probability distribution of the fourth row in the motion behavior estimation information on the left side of FIG. 39, the “action 003” having the maximum probability distribution value and the correct behavior “action 003” are obtained. A correction ratio C (0) = 0 is acquired.

  Thereafter, the feedback adjustment unit 332 subtracts the correction ratio C (i) acquired in step S313 from the value of the probability distribution of the action with the maximum probability distribution value, and corrects the correction ratio C ( i) is added and reflected in the motion behavior estimation information (S314). For example, when the process of step S314 is performed on the probability distribution of the fourth row in the motion behavior estimation information on the left in FIG. 39, the probability distribution of the row is not changed because the correction ratio C (0) = 0. Then, 1 is added to the parameter i (S315), and the processing from step S312 is repeated.

  For example, when the process of step S313 is performed on the probability distribution of the fifth row in the motion behavior estimation information on the left side of FIG. 39, “action 002” having the largest probability distribution value and correct behavior “action 003” are obtained. A correction ratio C (1) = 5 is acquired. Then, when the process of step S314 is performed, the value of the probability distribution of “action 002” is corrected from 50 to 45 from the correction ratio C (1) = 5, and the value of the probability distribution of “action 003” is 10 to 15 To be corrected.

  Similarly, when the process of step S313 is performed on the probability distribution of the sixth row in the motion behavior estimation information on the left side of FIG. 39, “action 001” having the largest probability distribution value and correct behavior “action 003” are obtained. The correction ratio C (1) = 10 is acquired. Then, when the process of step S314 is performed, the value of the probability distribution of “action 001” is corrected from 40 to 30 from the correction ratio C (1) = 10, and the value of the probability distribution of “action 003” is 10 to 20. To be corrected. Through the above processing, it is possible to obtain the motion behavior estimation information after the correction feedback is reflected as shown in the right of FIG.

  In this way, the action content of the correction feedback is reflected in the action action estimation information. The reflection process shown in FIG. 38 is effective in that the reflection speed and divergence can be controlled. In other words, an unacceptable error can be reflected earlier, and the value can be converged by treating it as a ratio to the maximum value. In the reflection process shown in FIG. 38, the correction ratio C (i) is added to or subtracted from the value of the probability distribution. However, the present technology is not limited to this example. For example, the value of the probability distribution is multiplied by the correction ratio. The correction feedback may be reflected in the motion behavior estimation information.

  Here, in the correction feedback reflection process illustrated in FIG. 38, the content of the correction feedback is reflected in the motion behavior estimation information using the correction ratio table, but the present technology is not limited to such an example. For example, as shown in FIG. 40, a feedback system using a neural network method may be configured. In FIG. 40, it is assumed that the action content of the action segment is corrected.

  First, the feedback adjustment unit 332 acquires a probability distribution (partial probability distribution) used for recognizing the motion content of the behavior segment to be corrected from the motion behavior estimation information stored in the analysis parameter DB 333 (S320). Next, the feedback adjustment unit 332 calculates, for the partial probability distribution, a value M (i) obtained by multiplying the maximum probability of each probability distribution by the weight coefficient of the row, and sorts these probability distributions (S321). Note that steps S320 and S321 can be the same as steps S310 and S311 of FIG.

  If the parameter i (i = 0 to n) indicating the order of the sorted probability distribution is assumed, the feedback adjustment unit 332 determines whether the parameter i is smaller than n (S322). If the condition of step S322 is not satisfied, the process shown in FIG. 40 is terminated. On the other hand, when the condition of step S322 is satisfied, the feedback adjustment unit 332 reflects the correction content of the correction feedback on each probability distribution of the motion behavior estimation information based on the weighting factor using a neural network method. (S323). Then, 1 is added to the parameter i (S324), and the processing from step S322 is repeated.

  In this way, by using learning processing such as a neural network method instead of using the correction ratio table, the contents of the correction feedback can be reflected in each value of the motion behavior estimation information without setting the correction ratio table in advance. .

(5-3-3. Reflection processing of correction feedback for action and position information)
Next, based on FIG. 41, correction feedback reflection processing for behavior and position information will be described. FIG. 41 is a flowchart showing the process of reflecting correction feedback on the behavior and position information.

  The feedback adjustment unit 332 acquires the action segment to be corrected from the unit data storage DB 334 or the hierarchy information-added data storage DB 335, and starts the process illustrated in FIG. The feedback adjustment unit 332 first determines whether or not position information is included in the correction feedback (S330). When position information is included in the correction feedback in step S330, the process after step S331 is performed, and the corrected position information is reflected in the motion behavior estimation information.

  In step S331, it is determined whether correction regarding position information has been performed on an action segment involving movement. When the correction related to the position information is performed on the action segment with movement, the representative coordinates of the end points (two representative coordinates from position X to position Y) are calculated from the position information (S332). On the other hand, when the correction regarding the position information is not performed for the action segment accompanied by the movement, the representative coordinates in the movement are calculated (S333). The representative coordinates can be calculated using the center, the center of gravity, the maximum number of points, and the like.

  Next, the feedback adjustment unit 332 records the representative coordinates calculated in step S332 or S333, the accuracy, and the assigned attribute in a feedback DB (not shown) (S334). The feedback DB is a storage unit provided in the analysis server 300. Thereafter, the feedback adjustment unit 332 determines whether or not the action matches the correct action input by the correction feedback when the action content is analyzed using the new position information recorded in the feedback DB in step S334 ( S335). If it is determined in step S335 that the operation content analyzed using the new position information matches the correct action, it is determined that the correction feedback regarding the position information is correctly reflected and that the action content is correct. it can. Therefore, it is determined that the correction feedback reflection process has ended, and the process of FIG. 41 is ended.

  On the other hand, if it is determined in step S335 that the operation content analyzed using the new position information does not match the correct action, it can be determined that correction feedback is not correctly determined only by correcting the position information. In this case, the processing of steps S336 to S341 is executed, and the operation content of the correction feedback is reflected in the operation behavior estimation information. The processing in steps S336 to S341 can be the same as the processing in FIG.

  That is, the feedback adjustment unit 332 first obtains a probability distribution (partial probability distribution) used for recognizing the action content of the action segment to be corrected from the action action estimation information stored in the analysis parameter DB 333 (S336). ). Next, the feedback adjustment unit 332 calculates a value M (i) obtained by multiplying the maximum probability of each probability distribution by the weight coefficient of the row for the partial probability distribution, and sorts these probability distributions (S337).

  A parameter i (i = 0 to n) indicating the order of the sorted probability distributions is set, and the number of probability distributions constituting the partial probability distribution is set to n. Then, the feedback adjustment unit 332 determines whether the parameter i is smaller than n and the multiplication value M (i) is larger than a predetermined threshold th (S338). If the condition of step S338 is not satisfied, the process shown in FIG. 41 is terminated. On the other hand, when the condition of step S338 is satisfied, the feedback adjustment unit 332 determines the action having the maximum probability distribution value among the actions in the target row and the correct action obtained from the corrected feedback based on the action action estimation information. The correction ratio C (i) is obtained from the loss ratio calculation function using (S339).

  Thereafter, the feedback adjustment unit 332 subtracts the correction ratio C (i) acquired in step S339 from the probability distribution value of the action with the maximum probability distribution value, and corrects the correction ratio C (( i) is added and reflected in the motion behavior estimation information (S340). Then, 1 is added to the parameter i (S341), and the processing from step S338 is repeated. Through the above processing, it is possible to obtain motion behavior estimation information after correction feedback is reflected.

  Note that the processing shown in FIG. 40 may be executed instead of the processing in steps S336 to S341. In this case as well, it is possible to obtain the motion action estimation information after the correction feedback is reflected.

  Here, the correction feedback of the position information may be reflected by changing the weighting coefficient of the probability distribution of the motion behavior estimation information as shown in the lower left of FIG. Or a correction attribute dependence part, a designation | designated attribute dependence part, and ID dependence part may be set, and you may reflect in each weighting coefficient. For example, the specified attribute dependent part is strengthened for the position information “house”, and the peripheral attribute dependent part is strengthened for the position information “place to shop”. For example, there may be a plurality of pieces of position information such as different offices for the position information “company”. At this time, it is possible to correctly select position information having the same meaning by giving differences in business contents, scales, and the like as the features of each position information.

  Also, the amount of weighting factor added to the position information may be determined based on the original position information, for example, or may be changed for each attribute type of position information. Further, a probability distribution specific to position information may be randomly generated and added to the motion behavior estimation information. Thereby, overlearning can be prevented.

<6. Other>
[6-1. Personal modeling of behavior patterns]
In the action log display system according to the present embodiment, an action log is displayed using an action segment to which semantic content is given. Using this behavior segment, for example, by performing autocorrelation processing or filter processing, temporal and behavioral errors can be absorbed. And it becomes possible to extract a user's typical action pattern from few data.

  As a functional unit for extracting a typical behavior pattern of a user, for example, as shown in FIG. 42, a typical behavior pattern generation unit 336 is provided in the analysis server 300. In the extraction of the typical behavior pattern, first, the behavior log for a predetermined period (for example, one day) acquired from the behavior log server 200 by the living behavior recognition unit 321 is smoothed and output to the typical behavior pattern generation unit 336. The typical behavior pattern generation unit 336 generates a typical behavior pattern using a statistical method such as cross-correlation processing for the behavior segment of the smoothed behavior log.

  In the example of FIG. 42, the typical behavior pattern generation unit 336 acquires the typical behavior pattern of the user as a result of analyzing the correlation of the behavior segments of these behavior logs based on the behavior log for seven days. In this way, it is possible to generate a probable user's typical behavior pattern from a small amount of data by analyzing the behavior segment to which the hierarchical information indicating the relationship between the behavior segments is given by the semantic content of the behavior. .

[6-2. Position display method based on moving medium / means determination]
When the behavioral action recognition unit 321 generates a behavior segment and recognizes that it is a mobile behavior, the user recognizes the user according to what moving medium the user has moved or what moving means the user has moved. Is specified (FIG. 43). Specifically, when the living behavior recognition unit 321 recognizes the mobile behavior from the motion behavior data, the lifestyle behavior recognition unit 321 analyzes how to display the position information. At this time, the living behavior recognition unit 321 first acquires a nearest station candidate that is easy to use as a landmark, previous position information, and information related thereto. The nearest station candidate can be specified using the route name, station name, distance to the station, and the like. Further, as the previous position information and information related thereto, the moving medium, the moving means, the time difference, the distance from the previous latitude and longitude, and the like are acquired.

  The living behavior recognition unit 321 uses these pieces of information to weight routes and stations and identifies the nearest station. The weighting of the route and the station includes, for example, increasing the weight of the nearest nearest station candidate, giving priority to the route and station that are continuously acquired in the action log, and the like. Or you may weight in consideration of the distance difference and time difference which can be acquired from the information until the last time. As a result, if it is recognized from the previous information and the current information that a predetermined distance has passed or a predetermined time has passed, the possibility of changing to another route should be considered. it can.

(6-2-1. Route estimation processing)
The estimation of the route can be determined by, for example, the number of passing stations recognized from the action log. In addition, the user's movement trajectory can be estimated in consideration of the possibility of transfer from the station identified from the position information and the presence or absence of direct operation between a plurality of routes. When multiple routes run in parallel between the same station, it is possible to estimate a more likely route from the user's movement trajectory or acquire more detailed location information from the location information acquisition sensor. It is possible to specify which route was used.

  As a result of performing such route estimation processing, for example, as shown in FIG. 44, the movement of the user can be displayed on a map, for example. Note that the route display on the map may be performed when the accuracy of the route estimation process is secured to a predetermined value or more.

(6-2-2. Station name selection process)
The station name is selected by specifying the nearest station as described above. At this time, even if the user is not actually moving, it may be erroneously recognized that the latitude and longitude have changed due to an error in the radio field intensity of the sensor or the like. Therefore, for example, as shown in FIG. 45, the expression of the station name of the nearest station may be changed according to the position accuracy. For example, when the nearest station is identified as Osaki Station, the distance between the location of the nearest station and the location information, such as “Work at Osaki Station”, “Work near Osaki Station”, or “Work at Osaki” The expression is changed based on the difference. Thereby, the place which is operating can be expressed more accurately.

  Further, when the moving medium / means is not a train movement, for example, the specified nearest station is given priority as a landmark, and the station is operated by the name of the station (excluding “station”). Good. For example, as a result of the analysis of the action log, it is assumed that movement by a car is recognized and “Higashi Koganei Station” and “Shin Koganei Station” are specified as landmarks. At this time, since it is unnatural to move between stations by car, expressing the content of the action naturally by expressing the departure place and arrival place as `` Higashi Koganei '' and `` New Koganei '' Can do.

<7. Hardware configuration example>
The processing by the action recording apparatus 100 according to the present embodiment can be executed by hardware or can be executed by software. In this case, the action recording apparatus 100 can also be configured as shown in FIG. Hereinafter, based on FIG. 46, a hardware configuration example of the action recording apparatus 100 according to the present embodiment will be described.

  As described above, the action recording apparatus 100 according to the present embodiment can be realized by a processing apparatus such as a computer. As shown in FIG. 46, the behavior recording apparatus 100 includes a CPU (Central Processing Unit) 101, a ROM (Read Only Memory) 102, a RAM (Random Access Memory) 103, and a host bus 104a. The action recording device 100 includes a bridge 104, an external bus 104b, an interface 105, an input device 106, an output device 107, a storage device (HDD) 108, a drive 109, a connection port 111, and a communication device. 113.

  The CPU 101 functions as an arithmetic processing device and a control device, and controls the overall operation in the action recording device 100 according to various programs. Further, the CPU 101 may be a microprocessor. The ROM 102 stores programs and calculation parameters used by the CPU 101. The RAM 103 temporarily stores programs used in the execution of the CPU 101, parameters that change as appropriate during the execution, and the like. These are connected to each other by a host bus 104a including a CPU bus.

  The host bus 104 a is connected to an external bus 104 b such as a PCI (Peripheral Component Interconnect / Interface) bus via the bridge 104. Note that the host bus 104a, the bridge 104, and the external bus 104b are not necessarily configured separately, and these functions may be mounted on one bus.

  The input device 106 includes an input means for a user to input information, such as a mouse, keyboard, touch panel, button, microphone, switch, and lever, and an input control circuit that generates an input signal based on the input by the user and outputs the input signal to the CPU 101. Etc. The output device 107 includes, for example, a liquid crystal display (LCD) device, an OLED (Organic Light Emitting Diode) device and a display device such as a lamp, and an audio output device such as a speaker.

  The storage device 108 is an example of a storage unit of the behavior recording device 100, and is a device for storing data. The storage device 108 may include a storage medium, a recording device that records data on the storage medium, a reading device that reads data from the storage medium, a deletion device that deletes data recorded on the storage medium, and the like. The storage device 108 is composed of, for example, an HDD (Hard Disk Drive). The storage device 108 drives a hard disk and stores programs executed by the CPU 101 and various data.

  The drive 109 is a reader / writer for a storage medium, and is built in or externally attached to the behavior recording apparatus 100. The drive 109 reads information recorded on a mounted removable recording medium such as a magnetic disk, an optical disk, a magneto-optical disk, or a semiconductor memory, and outputs the information to the RAM 103.

  The connection port 111 is an interface connected to an external device, and is a connection port with an external device capable of transmitting data by USB (Universal Serial Bus), for example. The communication device 113 is a communication interface configured by a communication device or the like for connecting to the communication network 10, for example. The communication device 113 may be a wireless LAN (Local Area Network) compatible communication device, a wireless USB compatible communication device, or a wire communication device that performs wired communication.

  The preferred embodiments of the present disclosure have been described in detail above with reference to the accompanying drawings, but the technical scope of the present disclosure is not limited to such examples. It is obvious that a person having ordinary knowledge in the technical field of the present disclosure can come up with various changes or modifications within the scope of the technical idea described in the claims. Of course, it is understood that it belongs to the technical scope of the present disclosure.

  For example, in the above embodiment, the behavior expression generation unit 320 and the data management unit 330 are provided in the analysis server 300, and the behavior expression processing unit 140 is provided in the behavior recording device 100. However, the present technology is limited to such an example. Not. For example, all of these functional units may be provided in the analysis server 300, or may be provided in the action recording device 100.

The following configurations also belong to the technical scope of the present disclosure.
(1)
On the computer,
Managing an action segment representing a user's action action recognized based on sensor information and an action log including at least the action segment;
Associating time information, location information and a user's mood with respect to the motion behavior of the behavior segment;
Displaying on the display unit a button for storing a user's mood with respect to the associated time information, the position information, and the action behavior of the action segment;
A computer program that executes
(2)
The computer program according to (1), wherein the sensor information includes at least one of time information and position information.
(3)
The computer program according to (2), wherein the position information is acquired from at least one of GPS, WiFi, and a communication network.
(4)
The computer program according to any one of (1) to (3), wherein the position information is selectable from a place name list.
(5)
The computer program according to (4), wherein the place name list includes a building name, a station name, or a shop name, and includes at least a place name serving as a landmark.
(6)
The computer program according to any one of (1) to (5), wherein the user's mood can be selected from a mood selection area.
(7)
The computer according to any one of (1) to (6), wherein a user's mood with respect to the operation behavior of the time information, the position information, and the behavior segment is displayed together with the associated behavior segment. program.
(8)
The computer program according to any one of (1) to (7), wherein a map corresponding to the action segment is displayed on the display unit.
(9)
The computer program according to any one of (1) to (8), wherein a non-display filter that hides some of the action segments is set by a user setting.
(10)
The computer program according to any one of (1) to (9), wherein a filter for displaying only an action or place designated by a user is set.
(11)
The computer program according to any one of (1) to (10), wherein the action segment deleted by the user is hidden.
(12)
The computer program according to any one of (1) to (11), wherein an icon indicating an operation content is displayed on the display unit.
(13)
The computer program according to (12), wherein the icon is displayed based on an operation content selected by a user from an operation content candidate list.
(14)
A data management unit for managing an action segment representing a user's action action recognized based on sensor information, and an action log including at least the action segment;
A display processing unit that displays on the display unit a button for associating and storing a user's mood with respect to the operation behavior of the time information, position information, and the behavior segment;
An information processing apparatus comprising:
(15)
Managing an action segment representing a user's action action recognized based on sensor information and an action log including at least the action segment;
Associating time information, location information and a user's mood with respect to the motion behavior of the behavior segment;
Displaying on the display unit a button for storing a user's mood with respect to the associated time information, the position information, and the action behavior of the action segment;
Including an information processing method.

DESCRIPTION OF SYMBOLS 100 Action recording apparatus 110 Sensors 120 Action recognition part 122 Sensor control part 124 Operation | movement action recognition part 130 Client interface part 140 Action expression process part 142 Display process part 144 Input information processing part 150 Display part 160 Input part 200 Action log server 210 Log Server interface unit 220 Action log DB
DESCRIPTION OF SYMBOLS 300 Analysis server 310 Analysis server interface part 320 Action expression production | generation part 321 Living action recognition part 322 Hierarchical structure judgment part 330 Data management part 331 Data acquisition part 332 Feedback adjustment part 333 Analysis parameter DB
334 Unit data storage DB
335 Hierarchical information added data storage DB

Claims (17)

On the computer,
Managing an action segment representing a user's action action recognized based on sensor information and an action log including at least the action segment;
Associating time information, location information and a user's mood with respect to the motion behavior of the behavior segment;
Displaying on the display unit of the recording device a button for storing a user's mood with respect to the associated time information, the position information, and the action behavior of the action segment;
Displaying a posting execution button for posting the content of the action segment included in the action log on the display unit;
A computer program that executes   The computer program according to claim 1, wherein the sensor information includes at least one of time information and position information.   The computer program according to claim 2, wherein the position information is acquired from at least one of GPS, WiFi, and a communication network.   The computer program according to claim 1, wherein the position information can be selected from a place name list.   The computer program according to claim 4, wherein the place name list includes at least a place name that is a landmark including a building name, a station name, or a store name.   The computer program according to claim 1, wherein the user's mood can be selected from a mood selection area.   The computer program according to any one of claims 1 to 6, wherein a user's mood with respect to the operation behavior of the time information, the position information, and the behavior segment is displayed together with the associated behavior segment.   The computer program according to any one of claims 1 to 7, wherein a map corresponding to the action segment is displayed on the display unit.   The computer program of any one of Claims 1-8 which sets the non-display filter which hides a part of said action segment by a user's setting.   The computer program of any one of Claims 1-9 which sets the filter which displays only the action or place designated to the user.   The computer program according to claim 1, wherein the action segment deleted by the user is hidden.   The computer program of any one of Claims 1-11 which displays the icon which shows operation | movement content on the said display part.   The computer program according to claim 12, wherein the icon is displayed based on an operation content selected by a user from an operation content candidate list.   The computer program of any one of Claims 1-13 which displays the user's mood with respect to the said action action of the said action segment as an object.   The computer program of any one of Claims 1-14 which displays the correction screen which can edit an object about the edit of the said action action of the said action segment, and the user's mood with respect to the said action action. A data management unit for managing an action segment representing a user's action action recognized based on sensor information, and an action log including at least the action segment;
The display device of the recording device includes a button for associating and storing user information with respect to the operation behavior of the time information, position information and the behavior segment, and a posting execution button for posting the content of the behavior segment included in the behavior log. A display processing unit to be displayed;
An information processing apparatus comprising: Managing, by the data management unit, an action segment representing the action behavior of the user recognized based on the sensor information, and an action log including at least the action segment;
Associating a user's mood with respect to the action behavior of the time segment, the position information and the behavior segment by the data management unit;
Causing the display processing unit to display on the display unit of the recording device a button for storing a user's mood with respect to the associated time information, the position information, and the action behavior of the action segment;
Causing the display processing unit to display a posting execution button for posting the content of the behavior segment included in the behavior log on the display unit;
Including an information processing method.

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