WO2021060544A1 - Information provision device, information provision method, and program - Google Patents

Information provision device, information provision method, and program Download PDF

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Publication number
WO2021060544A1
WO2021060544A1 PCT/JP2020/036479 JP2020036479W WO2021060544A1 WO 2021060544 A1 WO2021060544 A1 WO 2021060544A1 JP 2020036479 W JP2020036479 W JP 2020036479W WO 2021060544 A1 WO2021060544 A1 WO 2021060544A1
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Prior art keywords
information
state
environmental
health
living body
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PCT/JP2020/036479
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French (fr)
Japanese (ja)
Inventor
西村 勉
寛之 山内
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西村 勉
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Priority to JP2021548471A priority Critical patent/JP7369784B2/en
Publication of WO2021060544A1 publication Critical patent/WO2021060544A1/en

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    • GPHYSICS
    • G16INFORMATION AND COMMUNICATION TECHNOLOGY [ICT] SPECIALLY ADAPTED FOR SPECIFIC APPLICATION FIELDS
    • G16HHEALTHCARE INFORMATICS, i.e. INFORMATION AND COMMUNICATION TECHNOLOGY [ICT] SPECIALLY ADAPTED FOR THE HANDLING OR PROCESSING OF MEDICAL OR HEALTHCARE DATA
    • G16H50/00ICT specially adapted for medical diagnosis, medical simulation or medical data mining; ICT specially adapted for detecting, monitoring or modelling epidemics or pandemics
    • G16H50/30ICT specially adapted for medical diagnosis, medical simulation or medical data mining; ICT specially adapted for detecting, monitoring or modelling epidemics or pandemics for calculating health indices; for individual health risk assessment

Definitions

  • the present invention relates to a technique for providing information related to the state of a living body.
  • Geomagnetism is an example of an environmental element that is the subject of such research (see, for example, Non-Patent Documents 1-4).
  • the geomagnetism as a technology for identifying the state of a person, it is possible to specify the state such as the moving direction of the person based on the geomagnetism detected by the sensor.
  • a technique has been proposed in which information in this state is used in a communication device to determine whether or not to execute communication with the person concerned (see Patent Document 1).
  • Patent Document 1 does not specify and use a state due to the influence of geomagnetism on a person's psychological state, behavior, or physical condition.
  • the present invention can contribute to the realization of practical use of information on the influence of environmental factors on human beings, which is more useful to individuals or society by improving the health or psychological state of people or improving the quality of life. Provide information providing devices, etc.
  • the information providing device includes an environmental information acquisition unit that acquires environmental information indicating the state of environmental factors that can affect the biological state of the target living body at a given date and time and a place, and has been measured in the past.
  • a memory that holds a state model based on data showing the state of the environmental factor and data showing the biological state of the living body measured at the place and time corresponding to the place and time when the measurement of the state of the environmental factor was executed.
  • the state model is used to identify the biological state of the target living body corresponding to the environmental information, and the target at the given date and time based on the specified biological state.
  • the information providing method includes an environmental information acquisition step for acquiring environmental information indicating the state of environmental factors that can affect the biological state of the target living body at a given date and time, and measurement in the past. Holds a state model based on the data showing the state of the environmental factor and the data showing the biological state of the living body measured at the place and time corresponding to the place and time when the measurement of the state of the environmental factor was executed. Based on the storage step to be performed and the environmental information, the state model is used to identify the biological state of the target living body corresponding to the environmental information, and at the given date and time based on the specified biological state. It includes a control step of acquiring and outputting information related to the biological state of the target living body.
  • the program according to one aspect of the present invention is an environmental factor that can affect the health condition of the target living body at a given date and time and place on the processor by being executed by the processor in the information processing apparatus including the processor.
  • the health condition corresponding to the environmental information is determined by using the health effect model based on the data indicating the health condition of the subject, and the health condition of the target living body at the given date and time is related to the determined health condition.
  • an emotion index which is an index representing the emotion of the target organism, based on an emotion estimation model using environmental factors estimated based on the environmental information. Is specified at the desired target date and time, and the result of predicting the behavior of the target living body at the target date and time is output based on the emotion index specified by the emotion estimation unit.
  • a recording medium such as a system, an integrated circuit or a computer-readable CD-ROM, and the device, system, method, integrated circuit, computer program and recording medium. It may be realized by any combination of.
  • information on the influence of environmental elements on humans can be put into practical use that is useful to individuals or society through improvement of people's health or psychological state or improvement of quality of life. It makes it possible to contribute to the realization of practical use.
  • FIG. 1 is a diagram for explaining a configuration of an information providing device according to an embodiment.
  • FIG. 2A is a block diagram showing an example of a hardware configuration that realizes the information providing device according to the embodiment.
  • FIG. 2B is a schematic diagram showing an example of an information processing device that realizes the information providing device according to the embodiment.
  • FIG. 2C is a schematic diagram showing an example of an information processing device that realizes the information providing device according to the embodiment.
  • FIG. 2D is a schematic diagram showing an example of an information processing device that realizes the information providing device according to the embodiment.
  • FIG. 3 is a diagram showing an example of a data structure of biometric information used for acquiring health information in the information providing device according to the embodiment.
  • FIG. 1 is a diagram for explaining a configuration of an information providing device according to an embodiment.
  • FIG. 2A is a block diagram showing an example of a hardware configuration that realizes the information providing device according to the embodiment.
  • FIG. 2B is a schematic diagram showing an example of an
  • FIG. 4 is a diagram showing an example of a data structure of information on environmental factors used for acquiring health information in the information providing device according to the embodiment.
  • FIG. 5 is a flowchart showing a procedure example of the operation of the information providing device according to the embodiment.
  • FIG. 6 is a flowchart showing an example of a procedure for determining a health condition in the procedure for operating the information providing device illustrated in FIG.
  • FIG. 7 is a schematic diagram showing an example of presenting health information by the information providing device according to the embodiment.
  • FIG. 8 is a schematic diagram showing an example of presenting health information by the information providing device according to the embodiment.
  • FIG. 9 is a flowchart showing an example of a procedure for estimating an emotional state in the procedure for operating the information providing device 10 illustrated in FIG. FIG.
  • FIG. 10 is a flowchart showing an example of an action prediction procedure in the operation procedure of the information providing device 10 illustrated in FIG.
  • FIG. 11 is a flowchart showing an example of a procedure for determining a health condition in the procedure for operating the information providing device 10 illustrated in FIG.
  • FIG. 12 is a table showing the results of multiple regression analysis performed on environmental factors and the number of male suicides.
  • FIG. 13 is a table showing the results of multiple regression analysis performed on environmental factors and the number of male traffic accidents.
  • FIG. 14 is a table showing the relationship between environmental factors based on actual statistics and various deaths.
  • FIG. 15 is a table showing the results of a linear regression analysis of the concentration of substances in the atmosphere and the number of suicide attempts.
  • FIG. 16 is a table showing the relationship between the number of stink bugs and environmental factors.
  • FIG. 17 is a table showing the results of multiple regression analysis between environmental factors and hedonometers.
  • FIG. 18 is a schematic diagram showing a process of calculating happiness from environmental factors using multiple regression analysis and a correlation coefficient.
  • FIG. 19 is a schematic diagram showing a process of predicting user behavior from happiness calculated from environmental factors using multiple regression analysis and a correlation coefficient.
  • FIG. 20 is a table showing a causal relationship between suicide and environmental factors in consideration of time.
  • Non-Patent Document 1 listed in the column of "Background Technology", which is one of such previous studies, reports that depression in men increased by 36.2% two weeks after the earth's magnetic storm.
  • Non-Patent Document 2 reports the relationship between the geomagnetic disturbance found in the survey in Australia and the number of suicides.
  • Non-patent literature 4 the degree of geomagnetic fluctuation (K index) is generally larger in places where the geomagnetism is strong, and the strength of the geomagnetism at each prefecture's location and monthly by prefecture. It was found that there is a significant association with the standardized mortality ratio of male suicide (see Non-Patent Document 4).
  • the present inventors hypothesized that, in addition to geomagnetism, there are various phenomena that can be perceived as meteorology on the earth or in space, which can be environmental factors that affect the human mind and body. I stood up. Then, in a survey conducted to test this hypothesis, we found that the disturbance of the geomagnetic field may affect the physical and mental activity or health of human beings. In addition, some of these phenomena have been found to be significantly associated with human mortality due to certain diseases. The results of these investigations will be described later.
  • Non-Patent Documents 5, 6 and 7 the relationship with myocardial infarction and stroke has been reported as a short-term effect of geomagnetic disturbance.
  • a long-term effect of geomagnetic disturbance there is a report that the onset of multiple sclerosis tended to increase two years after the period when the geomagnetic fluctuation was large (see Non-Patent Document 8).
  • Medical weather forecasts are provided based on biometeorology. Medical weather forecast is based on weather data, heart failure, rheumatic disease, bleeding tendency, hypotension, schizophrenia, bronchitis, abdominal pain, sleep, depression, headache, convulsions, embolism, migraine, stump It provides warning forecasts for pain, inflammation, neuropathy, epilepsy, pneumonia, thrombosis, embolism, psychosis, traumatic encephalitis, glaucoma, reaction time, accident encounters, myocardial infarction, etc.
  • Such an information providing device includes an environmental information acquisition unit that acquires environmental information indicating the state of environmental factors that can affect the biological state of the target living body at a given date and time and a place in the past.
  • a state model based on the measured data showing the state of the environmental factor and the data showing the biological state of the living body measured at the place and time corresponding to the place and time when the measurement of the state of the environmental factor was executed.
  • the state model is used to identify the biological state of the target living body corresponding to the environmental information, and the given date and time based on the specified biological state.
  • a control unit that acquires and outputs information related to the biological state of the target living body in the above.
  • the environmental factors include meteorology, which refers to at least one of atmospheric pressure, precipitation, temperature, humidity, wind speed, sunshine time, snowfall, and season, and solar activity, geomagnetic activity, ionization zone activity, and space.
  • the health condition includes a dose and space weather indicating at least one of the ages of the moon, the health condition is a condition related to injury or death caused by the injury or illness, and the information related to the biological condition is symptoms, emotions, concentration, attention. Shows at least one of impulsiveness, activity, maneuverability, and depression.
  • the environmental factors may also include Schumann resonance, F10.7 index, solar activity, geomagnetic activity, proton phenomenon, radiation belt electrons, ionospheric storm, Delinger phenomenon and sporadic E layer intensity.
  • control unit is an emotion index that represents the emotion of the target living body based on an emotion estimation model using environmental factors estimated based on the environmental information, and obtains the emotion of the target living body.
  • Behavior prediction that predicts and outputs the behavior of the target living body at the target date and time based on the emotion estimation unit that specifies the emotion index at the target date and time that is desired to be estimated and the emotion index specified by the emotion estimation unit. It may be provided with a part.
  • the information providing device can specify the emotion of the target living body and predict the behavior of the target living body based on the specified emotion.
  • control unit determines a health state corresponding to the environmental information by using a health effect model using an environmental factor generated based on the environmental information, and is based on the determined health state.
  • a health determination unit that acquires and outputs health information related to the health state of the target living body at a given date and time may be provided.
  • the information providing device can determine the health state of the target living body and output the determined health state.
  • the health effect model is an inference model obtained by machine learning using the data indicating the state of environmental factors measured in the past as learning data and the data of the health state of the living body as teacher data. You may.
  • the health effect model further indicates the psychological state of the group including the target living body, based on the data indicating the psychological state of the living body and the health state data of the living body.
  • the health state obtained by acquiring the group psychological state information and determined by the health determination unit using the health effect model may further correspond to the psychological state indicated by the group psychological state information.
  • the health effect model is further based on the data of the environmental gene collected in the environment surrounding the living body and the data of the health state of the living body, and the health determination unit is further collected in the environment surrounding the target living body.
  • the health state obtained by acquiring the environmental gene information which is the information obtained from the obtained environmental gene and determined by the health determination unit using the health effect model further corresponds to the environmental gene information indicated by the environmental gene state information. It may be a thing. As a result, the accuracy of the above estimation can be further improved.
  • the health effect model further acquires individual information of the target organism based on the data of the individual information of the living body, and the health determination unit uses the health effect model.
  • the health state to be determined may further correspond to the individual information of the target living body. More specifically, for example, the individual information may include at least one of biological information, genetic information, epigenetic information and birth time.
  • the relationship between the state of the environmental factor and the emotion index of the living body is based on the data indicating the state of the environmental factor measured in the past and the data of the emotion index of the living body. It may be a model obtained by statistically analyzing the sex. Further, for example, the emotion estimation model is an inference model obtained by machine learning using the data indicating the state of environmental factors measured in the past as training data and the emotion data of the living body as teacher data. You may. And, for example, the machine learning may be deep learning.
  • the emotion estimation unit may specify the emotion index representing the emotion of the target living body at the target date and time based on the environmental information for a predetermined time before the target date and time.
  • the behavior prediction unit statistically analyzes the relationship between the data of the emotion index of the living body and the data indicating the behavior performed by the living body based on the data of the emotion index of the target living body.
  • the behavior of the target organism at the target date and time may be predicted using the model obtained by. Thereby, the accuracy of each of the above estimations, judgments and predictions can be further improved.
  • the first sensor may be further provided, and the provided information acquisition unit may acquire the biological information acquired based on the result of measurement using the first sensor as the individual information.
  • the user can acquire health information corresponding to his / her latest biological information measured by using the first sensor included in the information providing device.
  • the second sensor may be further provided, and the environmental information acquisition unit may acquire the environmental information based on the result of measurement using the second sensor. This makes it possible to provide health information corresponding to the latest environmental factors, for example, in a local place. Further, if the second sensor is provided in, for example, a wearable terminal or a mobile device, it is possible to provide health information according to the location of the user.
  • the communication unit may be further provided, and the environment information acquisition unit may acquire the environment information based on the data received from the outside by the communication unit.
  • the environment information acquisition unit may acquire the environment information based on the data received from the outside by the communication unit.
  • the storage unit contains data indicating the state of the environmental factor measured in the past and the economic trend observed at the place and time corresponding to the place and time when the measurement of the state of the environmental factor was executed. Further holding an economic impact model based on the data, the provided information acquisition unit further determines the economic trend corresponding to the environmental information using the economic impact model, and is currently based on the determined economic trend. Alternatively, economic information related to future economic trends may be acquired and output. Economic activity has an aspect of manifestation of human mental and physical activities, and although it is indirect, it can be affected to some extent by complex environmental factors including meteorological and celestial activities. Therefore, by using such information, it is possible to estimate economic trends with higher accuracy and provide the estimation results to people.
  • the information providing method in the embodiment of the present invention includes an environmental information acquisition step for acquiring environmental information indicating the state of environmental factors that can affect the biological state of the target living body at a given date and time, and the past.
  • a state model based on the data showing the state of the environmental factor measured in the above and the data showing the biological state of the living body measured at the place and time corresponding to the place and time when the measurement of the state of the environmental factor was executed.
  • the state of the target living body corresponding to the environmental information is specified by using the state model based on the storage step for holding the environmental information and the environmental information. It includes a control step of acquiring and outputting information related to the state of the target organism.
  • the information providing method according to the embodiment of the present invention can have the same effect as the above-mentioned information providing device.
  • the program according to the embodiment of the present invention may affect the health condition of the target living body at a given date and time and place on the processor by being executed by the processor.
  • Environmental information indicating the state of the environmental factor is acquired, and the data indicating the state of the environmental factor measured in the past and the place and time corresponding to the place and time when the measurement of the state of the environmental factor is executed are measured.
  • the health condition corresponding to the environmental information is determined by using the health effect model based on the data indicating the health condition of the living body, and the health condition of the target living body at the given date and time is determined based on the determined health condition.
  • the relevant health information is acquired, and the emotion index, which is an index representing the emotion of the target organism, is estimated. It may be specified at the target date and time desired to be performed, and the result of predicting the behavior of the target living body at the target date and time may be output based on the emotion index specified by the emotion estimation unit.
  • the program according to the embodiment of the present invention can have the same effect as the above-mentioned information providing device.
  • a recording medium such as a method, system, integrated circuit or computer readable CD-ROM, and the device, system, method, integrated circuit, computer program and the like. It may be realized by any combination of recording media.
  • the information providing device provides the user with information related to the biological state, which is information related to the biological state of the mind and body, and predicts the user's behavior based on the information related to the biological state. , Provide the prediction result to the user.
  • Health information includes, for example, the presence or absence of symptoms (including attacks) due to various injuries and illnesses, exacerbations or remissions, emotions (eg, relief-anxiety, happiness, tension-relaxation, excitement, motivation, irritation, etc.), concentration.
  • meteorology information about the weather at the place where the user is (hereinafter, also simply referred to as weather information).
  • specific examples of what the term meteorology refers to in the present disclosure include atmospheric pressure, precipitation, temperature, humidity, wind speed, sunshine duration, snowfall and season.
  • space weather information information on the space weather of the place where the user is (hereinafter, also simply referred to as space weather information) is also used.
  • specific examples of what the term space weather refers to in this disclosure include solar activity, geomagnetic activity, ionospheric activity, and moon age.
  • indicators representing solar activity include the bulk velocity of the solar wind, the proton flow rate (proton flux, an index of radiation exposure due to flare), the solar radio wave flow rate (F10.7 index), and the number of black spots.
  • the K index geomagnetic disturbance
  • the place where the user is may refer not only to a limited place on the earth but also to the whole earth, or further to a place outside the earth, for example, the moon and other celestial bodies and spacecraft in outer space.
  • the information providing device according to the present embodiment can be applied to a user who is outside the earth, and space weather information that affects the mind and body of the user at each place may be used as long as it can be obtained. ..
  • space weather information that affects the mind and body of the user at each place may be used as long as it can be obtained.
  • space weather information that affects the mind and body of the user at each place
  • the time difference between the observed phenomenon or biological condition occurring at the user's location may be determined, taking into account the possibilities as necessary.
  • the above-mentioned weather, space weather, and Schumann resonance can all affect the biological state of the user who is a living body, and are examples of environmental factors in the present disclosure.
  • information unique to the individual user may be used.
  • Specific examples include biological information and genetic information.
  • Specific examples of biological information in the present disclosure include gender, age, pulse, heartbeat, blood pressure, respiratory rate, exhaled breath and other biological gas components, body temperature, sweating, brain waves, activity amount, sleep time, calorie intake, and nutrient intake.
  • Drugs to be taken eg, pharmaceuticals, favorite foods such as tobacco
  • body composition e.g., and information obtained by sample tests or various clinical tests on specimens such as blood.
  • information indicating the user's physique such as height, weight, abdominal circumference, and various anthropometric indexes, may be included in the biological information in the present disclosure.
  • the genetic information is also information obtained from a sample such as saliva, but here, among the information obtained by analyzing the gene, for example, the constitution of the user, the risk related to various diseases, etc., the above-mentioned living body is congenital. It can also include more potential than information.
  • the user's labor information working status, working hours, salary
  • the user's birth time day, month or season
  • the individual condition indicated by individual information such as these is also known to be related to the user's health condition, and includes those that may affect the user's health condition.
  • the term "user” has been used to refer to a person whose health condition has been determined by the information providing device according to the present embodiment, but in the present disclosure, "user” in the context so far has been used in a narrow sense. You are a user. Users in a broader sense may include people who use this health information in the health care of a person whose health information provides information related to their health status, such as family members, healthcare professionals and caregivers. Further, as briefly mentioned above, the technique according to the present disclosure can also be used for acquiring health information related to the health condition of a living body other than human.
  • the living body other than humans may be, for example, an industrial animal, a domestic animal, an exhibited animal, or an experimental animal.
  • FIG. 1 is a diagram for explaining the configuration of the information providing device 10 according to the present embodiment.
  • the information providing device 10 constitutes the information providing system 1 together with the measuring device 20 and the server 50.
  • the information providing device 10 is connected to the measuring device 20.
  • the measuring device 20 includes a sensor 21 for acquiring biometric information of the user.
  • the measuring device 20 is, for example, a pulse rate monitor, a sphygmomanometer, an electrocardometer, a thermometer, a sweat meter, a brain wave meter, a weight scale, etc.
  • the sensor 21 is a pressure, temperature, movement, electricity, etc. used in these devices.
  • Various sensors that detect magnetism, electromagnetic waves, etc. The user's biological information acquired based on the measurement result using the sensor 21 is input from the measuring device 20 to the information providing device 10.
  • the number of measuring devices 20 shown in FIG. 1 is only one, there is no limit to the number and types of measuring devices that provide biological information to the information providing device 10.
  • the measuring device 20 may be portable or wearable by the user, and may be able to acquire biometric information at all times or at any time according to the user's operation, or may intermittently acquire biometric information according to a set schedule. You may.
  • the measuring device 20 may be a device installed at the user's home or a facility used by the user.
  • the biological information obtained by the measuring device 20 is not limited to the information acquired by the user actively using the measuring device 20.
  • the user's skin temperature measured remotely in the living room, the biogas component based on the analysis of the air component in the living room, the pressure sensed by the sensor installed on the user stepping, pushing, grasping, sitting or lying down, etc. Etc. may be acquired as biometric information provided to the information providing device 10.
  • the biological information acquired by the measuring device 20 may be constantly transmitted from the measuring device 20 to the information providing device 10 or at any time according to the operation of the user, or may be intermittently transmitted according to a set schedule. ..
  • the information providing device 10 and the measuring device 20 may be always connected wirelessly or by wire for communication, or may be connected only when necessary.
  • the biological information is not directly transmitted from the measuring device 20 to the information providing device 10, but may be exchanged via a storage device, for example, a home server or a cloud server, to which both are communicably connected.
  • the information providing device 10 is connected so as to be able to communicate with the server 50 via the communication network.
  • the server 50 is a web server
  • the communication network is the Internet.
  • This web server stores environmental information including meteorological information, space weather information, and Schumann resonance information observed and acquired by an observation institution or a research institution in a storage device.
  • the information providing device 10 may intermittently acquire this environmental information by connecting to the server 50 at any time according to the operation of the user or via the communication network according to the set schedule.
  • the information may be transmitted from the server 50 to the information providing device 10 via the communication network every time the information is updated or according to a set schedule.
  • the information providing device 10 includes a user interface 12, a communication unit 14, a storage unit 16, and a control unit 18 as functional components.
  • the information providing device 10 is realized by an information processing device including, for example, a processor (arithmetic processing unit) and a memory (storage device), and these components are one or a plurality of programs in which the processor is stored in the memory. It is realized by executing and working with various hardware.
  • FIG. 2A is a block diagram showing an example of the hardware configuration of such an information processing device.
  • the input device is, for example, a keyboard, a touch screen, a pointing device such as a mouse or a touch pad, a microphone, and switches such as various physical buttons.
  • the arithmetic processing unit is, for example, a CPU (Central Processing Unit, central processing unit).
  • the output device is, for example, a display, a speaker, a lamp, a vibrator, or the like.
  • the storage device is, for example, a non-volatile recording medium such as a hard disk or a flash memory, and a volatile recording medium such as a RAM (Random Access Memory).
  • the communication device is a communication module such as a network card that realizes wired or wireless communication.
  • FIG. 2B shows a smartphone
  • FIG. 2C shows a smart watch
  • FIG. 2D shows a desktop personal computer as an example of such an information processing device.
  • the information processing device that can realize the information providing device 10 is not limited to these.
  • Other examples include tablet or notebook computers and wearable terminals such as smart eyewear or activity meters.
  • the information providing device 10 may be realized by a combination of two or more of the information processing devices such as these.
  • the above configuration of the information processing device is an example, and the configuration of the information processing device that can realize the information providing device 10 is not limited to this example.
  • a reading device for acquiring data from a removable medium using an electromagnetic recording medium, and a camera as an input device may be provided.
  • the user interface 12 accepts input by the user of information used for acquiring health information, and presents the acquired health information to the user.
  • the hardware of FIG. 2A is a functional component realized by using an input device and an output device.
  • the information input from the user interface 12 includes individual information of the user that is not measured by the measuring device 20.
  • health such as birth time (date of birth or season), place of birth or habitat, current place of residence, gender, subjective symptoms, medical history of the person or family, labor information, etc.
  • Information that can be used to determine the state may be input via the user interface 12.
  • the calorie intake, the nutrient intake, and the drug to be ingested may be input by, for example, the user using the user interface 12 to select the ingested substance and amount from the options.
  • the meal content may be recognized from the image taken by the user using a camera to calculate calories or estimate nutrients.
  • the drug to be taken may be recognized by using an image.
  • the genetic information used as individual information may be input to the information providing device 10 using the user interface 12. Further, it may be read from a removable medium in which the genetic information is recorded by using a reading device. Further, it may be acquired by the following communication unit 14 via a communication network from a service provider that acquires genetic information from a sample. In addition, the information contained in the electronic medical record held by the medical institution may also be input to the information providing device 10 as individual information by each of the above routes and used.
  • the communication unit 14 receives the environmental information used for acquiring the health information from the server 50 via the communication network.
  • FIG. 3 shows an example of a data structure of environmental information used for acquiring health information in the information providing device 10.
  • the environmental information corresponds to the user's whereabouts at a given date and time.
  • a positioning system such as GPS (Global Positioning System)
  • GPS Global Positioning System
  • the position information acquired by using the positioning system is transmitted from the communication unit 14 to the server 50.
  • the weather information or the like that is transmitted and corresponds to the position indicated by the position information may be provided from the server 50 to the information providing device 10.
  • the information whose position can be known with a certain degree of accuracy for example, the IP (Internet Protocol) address is the server 50. It may be used in.
  • the information explicitly input by the user using the user interface 12 may be used as the position information indicating the user's whereabouts.
  • the location of the user (or the information providing device 10 used by the user) at a given date and time indicated by the location information is not limited to the current location, and is in the past or future. It may be a position. Further, the user's location information may be acquired from the schedule information accessible to the information providing device 10.
  • the server 50 provides the information providing device 10 with a past record or a future forecast at that position as weather information or the like.
  • the past weather information information corresponding to the history of information such as position information or IP address acquired by using a positioning system or the like may be provided.
  • Such a communication unit 14 is a functional component realized by using the communication device of FIG. 2A.
  • the environmental information acquisition unit 17 acquires environmental information indicating the state of environmental factors that can affect the biological state of the target living body at a given date and time and place.
  • the environment information acquisition unit 17 acquires environment information from the server 50.
  • Environmental information is data showing environmental factors such as precipitation, temperature, humidity, sunshine duration, F10.7 index, and galactic cosmic dose.
  • the control unit 18 determines the biological state of the user corresponding to the individual information of the user including the biological information acquired from the measuring device 20 and the environmental information acquired from the server 50, or predicts the behavior of the user.
  • FIG. 4 shows an example of data configuration of biological information acquired from the measuring device 20. This determination is performed by applying the state model, the emotion estimation model, and the health effect model held in the storage unit 16 to the information.
  • the state model is a model based on the data showing the state of the environmental factor measured in the past and the data of the biological state of the user measured in the past.
  • the data showing the state of the environmental factor measured in the past and the data showing the state of the environmental factor measured in the past It is obtained by statistically analyzing the relationship between the state of environmental factors and the biological state of the user based on the data of the biological state of the user measured at the place and time when the measurement was performed.
  • the value of the item included in the individual information and the value of the item included in the environmental information etc. are used as explanatory variables
  • the value of the item included in the item of health information for example, the incidence rate of the symptom of a certain disease is used as the objective variable.
  • the value of the item included in the individual information and the value of the item included in the environmental information are included in the explanatory variable and the item of the health information, for example, for the purpose of the occurrence rate of the user's emotional state. It is a multiple regression equation obtained by multiple regression analysis performed as a variable. Alternatively, it may be a table based on the results obtained by such statistical analysis.
  • Another example may be a machine learning inference model such as a deep neural network trained to infer various items of the user's biological state from data indicating the state of environmental factors.
  • machine learning may be a learning model that performs deep learning.
  • Such an inference model uses, for example, data indicating the state of weather, space weather, and Schumann resonance obtained by measurement in the past as learning data, and the state of the user measured at the place and time when the measurement was performed. Obtained by supervised learning using data (disease state, health state or emotional state) as teacher data.
  • the environmental information used in the state model includes, for example, meteorology, which indicates at least one of atmospheric pressure, precipitation, temperature, humidity, wind speed, sunshine time, snowfall, and season, and solar activity, geomagnetic activity, and ionization zone activity. Includes cosmic dose and at least one of Mercury, Venus, Earth, Mars, Jupiter, Saturn, Tenno, Neptune and the Moon, social conditions, days and environmental hormones.
  • Environmental information includes meteorology, solar activity, geomagnetic activity, ionospheric activity, cosmic dose, which refers to at least one of pressure, precipitation, cloud volume, temperature, humidity, wind speed, sunshine time, number of lightning, snowfall, and season.
  • the environmental factor may include group psychological state information indicating the psychological state of the group.
  • the emotion estimation model is a state model that specializes in estimating the user's emotions.
  • the emotion estimation model is a model based on the data showing the state of the environmental factor measured in the past and the data of the emotional state of the user measured in the past, for example, the data showing the state of the environmental factor measured in the past. , It is obtained by statistically analyzing the relationship between the emotional state of environmental factors and the biological state of the user based on the data of the emotional state of the user measured at the place and time when the measurement was performed. As a specific example, the value of the item included in the individual information and the value of the item included in the environmental information etc.
  • the value of the item included in the item of health information for example, the occurrence rate of the user's emotional state is used as the objective variable. It is a multiple regression equation obtained by multiple regression analysis. Alternatively, it may be a table based on the results obtained by such statistical analysis.
  • Another example may be a machine learning inference model such as a deep neural network trained to infer various items of the user's emotional state from data indicating the state of environmental factors.
  • machine learning may be a learning model that performs deep learning.
  • Such an inference model uses, for example, data indicating the state of weather, space weather, and Schumann resonance obtained by measurement in the past as learning data, and the user's emotion measured at the place and time when the measurement was performed.
  • the user's emotional state includes happiness, emotions, organic psychiatric disorders, mental / behavioral disorders due to agents, and intrinsic psychiatric disorders including schizophrenia, mood disorders, and neurotic disorders. Including.
  • the emotional state of the user is irritability, comfort, enjoyment, familiarity, respect / respect, gratitude, pleasantness, pride, impression, joy, sadness, loneliness, dissatisfaction, and sadness.
  • Suffering anxiety, depression, pain, like, compassion, embarrassment, impatience, surprise, anger, happiness, resentment, fear (in the sense of excuse, etc.), fear, regret, celebrating feelings, embarrassment, awkwardness, Excitement, worries, aspirations, disappointment, mercy, disdain, apology, hesitation, discomfort, negligence, disappointment, worry, tension, ashamedy, hate, regret, pity, calm, depression / anxiety, negligence, inactive pleasure, concentration, Includes feelings of hostility, active pleasure, affinity and startle, as well as happiness.
  • the health effect model is a model based on the data showing the state of environmental factors measured in the past and the data of the health condition of a person measured in the past, for example, the data showing the state of environmental factors measured in the past. , It is obtained by statistically analyzing the relationship between the state of environmental factors and the user's health state based on the data of the user's health state measured at the place and time when the measurement was performed.
  • the value of the item included in the individual information and the value of the item included in the environmental information etc. are used as explanatory variables, and those included in the item of health information, for example, the incidence rate of the symptom of a certain disease is used as the objective variable. It is a multiple regression equation obtained by multiple regression analysis.
  • machine learning inference model such as a deep neural network trained to infer various items of the user's health condition from data indicating the state of environmental factors.
  • machine learning may be a learning model that performs deep learning.
  • Such an inference model uses, for example, data indicating the state of weather, space weather, and Schumann resonance obtained by measurement in the past as learning data, and the user's health measured at the place and time when the measurement was performed. Obtained by supervised learning using state data as teacher data.
  • control unit 18 acquires state information related to the biological state of the user based on the biological state that is the result of the determination of the above state model, and the user's behavior or predicted based on the acquired state information. Output the biological state.
  • the content of the state information may be the result of the determination itself, for example, the possibility that a symptom of a certain disease may occur in the user, or the possibility of a change such as exacerbation or remission of the symptom.
  • the information may include advice, an allowance method, or a warning according to the result of such a determination.
  • the control unit 18 acquires this message according to the result of the above determination.
  • the control unit 18 transmits the result of the above determination to an external AI (Artificial Intelligence) server via the communication unit 14, and provides information such as appropriate advice according to the determination result from the AI server to health information. May be obtained as.
  • This AI server is prepared in advance for providing such information.
  • the control unit 18 provides the acquired health information to the user via the user interface 12.
  • the format of the data indicating the health information may be any of visual information including characters, figures and the like, voice, or a combination thereof. Further, along with or in place of the presentation of these data, non-voice sounds (beep sound, etc.), lamp lighting, and vibration of the vibrator may be used.
  • Such a control unit 18 is realized by the arithmetic processing unit of FIG. 2A executing a program stored in the storage device and accessing the storage device as necessary to refer to and save the data. It is a functional component to be used.
  • the storage unit 16 has already been described in the description of the other components so far, and is used by the information providing device 10 to output the health information provided to the user in response to the input of the individual information and the environmental information. Holds data such as health effects model, state model or emotion estimation model.
  • the user's emotional state or the user's health state using a state model, an emotion estimation model or a health effect model acquiring health information, and presenting the acquired health information to the user.
  • a program (application) executed by the control unit 18 is also stored in the storage unit 16.
  • the result of this determination or the history of health information presented to the user may also be stored in the storage unit 16.
  • the emotion estimation unit 18a acquires health information related to the emotional state of the user based on the state that is the result of the determination of the above emotion estimation model. That is, the emotion estimation unit 18a estimates the user's emotion by using the emotion index, which is an index representing the emotion of the user (target living body), based on the emotion estimation model using the explanatory variables generated based on the environmental information. Specify at the desired target date and time.
  • the emotional index is a numerical value or a word indicating the degree of emotions and emotions and emotions.
  • the content of the health information output by the emotion estimation unit 18a is an emotion index.
  • the information may include advice, treatment methods, or alerts according to the specified emotional index.
  • the health information having such contents for example, a list of messages according to the change of the psychological state and the possibility thereof is held in the storage unit 16, and the emotion estimation unit 18a acquires this message according to the result of the above determination. You may.
  • the emotion estimation unit 18a transmits the result of the above determination to an external AI server via the communication unit 14, and acquires information such as appropriate advice according to the result of the determination as health information from the AI server. You may.
  • This AI server is prepared in advance for providing such information.
  • the emotion estimation unit 18a provides the acquired health information to the user via the user interface 12.
  • the format of the data indicating the health information may be any of visual information including characters, figures and the like, voice, or a combination thereof. Further, along with or in place of the presentation of these data, non-voice sounds (beep sound, etc.), lamp lighting, and vibration of the vibrator may be used.
  • the behavior prediction unit 18b predicts and outputs the behavior of the user (target living body) at the target date and time based on the emotion index specified by the emotion estimation unit 18a. That is, the behavior prediction unit 18b statistically analyzes the relationship between the data of the emotion index of the living body and the data indicating the behavior performed by the living body based on the data of the user's emotion index, and obtains a model. It is used to predict the user's behavior at the target date and time.
  • the content of the action may be, for example, a purchasing action or a dangerous action.
  • the behavior prediction unit 18b may present information including advice, an allowance method, or a warning according to the result of such prediction.
  • the content of the health information output by the behavior prediction unit 18b is information on the predicted behavior.
  • the behavior prediction unit 18b acquires this message according to the result of the above prediction. May be good.
  • the behavior prediction unit 18b transmits the result of the above prediction to an external AI server via the communication unit 14, and acquires information such as appropriate advice according to the judgment result from the AI server as health information. You may.
  • This AI server is prepared in advance for providing such information.
  • the behavior prediction unit 18b provides the acquired health information to the user via the user interface 12.
  • the format of the data indicating the behavior information may be any of visual information including characters, figures, etc., voice, or a combination thereof. Further, along with or in place of the presentation of these data, non-voice sounds (beep sound, etc.), lamp lighting, and vibration of the vibrator may be used.
  • the health determination unit 18c acquires health information related to the biological state of the user based on the biological state that is the result of the determination of the above state model, and the living body of the user determined based on the acquired health information. Output the status.
  • the content of the health information output by the health judgment unit 18c may be the judgment result itself, for example, the possibility that a symptom of a certain disease may occur in the user, or the possibility of a change such as exacerbation or remission of the symptom. You may.
  • the content of the health information may be information containing advice, an allowance method, or a warning according to the result of such a determination.
  • the health information having such contents for example, a list of messages according to the onset or change of symptoms and the possibility thereof is held in the storage unit 16, and the health determination unit 18c sends this message according to the result of the above determination. You may get it.
  • the health determination unit 18c transmits the result of the above determination to an external AI server via the communication unit 14, and acquires information such as appropriate advice according to the determination result as health information from the AI server. You may.
  • This AI server is prepared in advance for providing such information.
  • the health determination unit 18c provides the acquired health information to the user via the user interface 12.
  • the format of the data indicating the health information may be any of visual information including characters, figures and the like, voice, or a combination thereof. Further, along with or in place of the presentation of these data, non-voice sounds (beep sound, etc.), lamp lighting, and vibration of the vibrator may be used.
  • Such a storage unit 16 is a functional component realized by using the storage device of FIG. 2A.
  • FIG. 5 is a flowchart showing a procedure example of the operation of the information providing device 10.
  • a procedure example of the operation of the information providing device 10 that provides information on the biological state related to the biological state of the user from the present to the near future will be described with reference to this flowchart.
  • each process executed by the function of each of the above components will be described as an operation process of the information providing device 10.
  • the information providing device 10 acquires individual information of a user who is a determination target person for a biological state. Examples of the information included in this individual information include genetic information read from removable media using a reading device. In addition, biological information based on the result of measurement using the sensor 21 in the measuring device 20 can also be included in this individual information.
  • the information providing device 10 acquires the current time information and the user's position information.
  • the time information is, for example, a value of a system clock included in the information providing device 10 which is an information processing device.
  • the position information is output from, for example, the receiver of the positioning system included in the information providing device 10.
  • the information providing device 10 transmits the time information and the position information acquired in step S20 to the server 50, and receives and acquires the environment information corresponding to the time information and the position information from the server 50.
  • “Corresponding to time information and position information” is, for example, environmental information about an area covering the position indicated by the position information, and is the latest information held by the server 50.
  • the information providing device 10 may be provided with environmental information which is a history or a forecast. Such environmental information at a time different from the present is useful for determining the past biological state or the future modulation of the biological state.
  • the information providing device 10 determines the biological state corresponding to the individual information and the environmental information by using the state model.
  • a more detailed example of the determination of the biological state executed in step S40 is shown in the flowchart of FIG.
  • FIG. 6 is a flowchart showing an example of a procedure for determining a biological state in the procedure for operating the information providing device 10 illustrated in FIG.
  • multiple regression equations are used as a state model to determine certain items of the biological state, such as future changes in a symptom (exacerbation, improvement, amelioration, or almost no change, etc.).
  • the control unit 18 acquires a multiple regression equation as a state model.
  • control unit 18 substitutes the values of each item of the individual information acquired in step S10 and the environmental information acquired in step S30 into the multiple regression equation acquired in step S41 as the value of the explanatory variable and calculates. ..
  • step S43 It is determined whether or not the value of the objective variable obtained as a result of the calculation in step S42 exceeds a predetermined threshold value.
  • the control unit 18 advances the procedure to step S44.
  • the control unit 18 advances the procedure to step S45.
  • the control unit 18 obtains a determination result that the symptom in this example is improved or ameliorated, and finishes the determination of the biological condition.
  • the control unit 18 acquires a determination result that the state in this example is exacerbated, and finishes the determination of the biological state.
  • the procedure for determining the biological condition is simplified for the sake of simplicity.
  • a determination may be made for a plurality of items of health information.
  • the determination result regarding the future time-series change of the symptom may be acquired by repeating the determination according to the future change of the weather shown in the weather forecast as the meteorological information.
  • the health information is information on the biological state.
  • the information providing device 10 acquires information on the biological state related to the biological state determined in step S40, and presents this health information to the user.
  • FIG. 7 is a schematic diagram showing an example of presentation of health information by the information providing device 10.
  • FIG. 7 shows an example of this presentation by taking the case where the information providing device 10 is realized by the smartphone shown in FIG. 2B as an example.
  • health information is displayed under the weather forecast by the weather forecast application on the lock screen of the smartphone.
  • the health information in this example is information related to the biological state related to the user's future depressive behavior, and characters and figures that are a part thereof are displayed.
  • a notification may be given by sound, vibration, or lighting of a lamp.
  • FIG. 8 is also a schematic diagram showing an example of presentation of health information by the information providing device 10.
  • the display corresponding to the user interface 12
  • the health information may be displayed on the display in this way when the application for realizing the information providing device 10 installed in the smartphone is started.
  • the details of the health information related to the biological state related to the depressive behavior presented in FIG. 7 are displayed.
  • This health information includes a change of about half a day from the current state of depression (after 18:00 on June 25), which is the user's biological state, under the item of "biological state”.
  • the result of the determination of the depressive behavior performed by the control unit 18 is presented using a figure imitating a person's facial expression that reflects the mood.
  • a commentary corresponding to the result of the determination of the biological state as health information is presented. For example, to reduce the depression of a user who is depressed and who is more depressed because of how long the mood will last, by showing this health information and letting the user know that his / her mood will improve in the future. There is a possibility of being forced to do so.
  • a user who is presented with health information indicating that there is a high possibility of future onset can prepare, for example, a drug to be used at the time of onset or prepare to avoid a situation in which a seizure is likely to occur.
  • the presentation of the health information shown in FIG. 7 or FIG. 8 includes, for example, an application installed in the information providing device 10 for determining a biological state and presenting health information related to the biological state, and information processing. This is done in collaboration with the OS (Operating System) of the information providing device 10 that realizes the device.
  • OS Operating System
  • FIG. 9 is a flowchart showing an example of a procedure for estimating an emotional state in the procedure for operating the information providing device 10 illustrated in FIG.
  • the information providing device 10 determines the emotion corresponding to the individual information and the environmental information by using the emotion estimation model among the state models.
  • the emotion estimation unit 18a acquires a multiple regression equation as an emotion estimation model.
  • the emotion estimation unit 18a substitutes the values of each item of the individual information acquired in step S10 and the environmental information acquired in step S30 into the multiple regression equation acquired in step S61 as the values of the explanatory variables, and performs an operation. To do.
  • the emotion estimation unit 18a identifies an emotion index representing the emotion of the user (target living body) at the target date and time based on the environmental information for a predetermined time before the target date and time.
  • the target date and time is a date and time for estimating the user's emotion at that date and time.
  • step S63 It is determined whether or not the value of the objective variable obtained as a result of the calculation in step S62 exceeds a predetermined threshold value.
  • the emotion estimation unit 18a advances the procedure to step S64.
  • the emotion estimation unit 18a advances the procedure to step S65.
  • the emotion estimation unit 18a acquires a determination result that the emotional state in this example is improved, and finishes the determination of the state.
  • the emotion estimation unit 18a acquires a determination result that the emotional state in this example is exacerbated, and finishes the determination of the state.
  • the above example of the procedure for determining the state is simplified for the sake of simplicity.
  • a determination may be made for a plurality of items of health information.
  • the determination result regarding the future time-series change of the symptom may be acquired by repeating the determination according to the future change of the weather shown in the weather forecast as the meteorological information.
  • FIG. 10 is a flowchart showing an example of an action prediction procedure in the operation procedure of the information providing device 10 illustrated in FIG.
  • the information providing device 10 determines the behavior corresponding to the emotion index representing the user's emotion estimated by the emotion estimation unit 18a using the behavior prediction model among the state models.
  • the behavior prediction unit 18b acquires a multiple regression equation as a behavior prediction model.
  • the behavior prediction unit 18b substitutes the values of each item of the individual information acquired in step S10 and the environmental information acquired in step S30 into the multiple regression equation acquired in step S71 as the values of the explanatory variables, and performs an operation. To do.
  • step S73 It is determined whether or not the value obtained as a result of the calculation in step S72 exceeds a predetermined threshold value.
  • the action prediction unit 18b advances the procedure to step S74.
  • the behavior prediction unit 18b advances the procedure to step S75.
  • the behavior prediction unit 18b acquires the determination result that the behavior in this example is improved, and finishes the determination of the state.
  • the behavior prediction unit 18b acquires the determination result that the behavior in this example deteriorates and finishes the determination of the state.
  • “behavior improves or behavior worsens” may mean that a predetermined index for each behavior improves or worsens.
  • the behavior prediction unit 18b sets a state in which the frequency of purchase is high as a state in which the index representing the behavior of purchasing is high, and a state in which the frequency of purchase is low as an index representing the behavior of purchasing.
  • the fact that the behavior of purchasing is improved by setting the value to a low level indicates a state in which the frequency of purchasing is high.
  • the above example of the procedure for determining the state is simplified for the sake of simplicity.
  • a determination may be made for a plurality of items of health information.
  • the determination result regarding the future time-series change of the symptom may be acquired by repeating the determination according to the future change of the weather shown in the weather forecast as the meteorological information.
  • FIG. 11 is a flowchart showing an example of a procedure for determining a health condition in the procedure for operating the information providing device 10 illustrated in FIG.
  • the information providing device 10 determines the health state corresponding to the environmental information by using the health effect model among the state models.
  • the health determination unit 18c acquires a multiple regression equation as a health effect model.
  • the health determination unit 18c substitutes the values of each item of the individual information acquired in step S10 and the environmental information acquired in step S30 into the multiple regression equation acquired in step S81 as the values of the explanatory variables, and performs an operation. To do.
  • step S83 It is determined whether or not the value of the objective variable obtained as a result of the calculation in step S82 exceeds a predetermined threshold value.
  • the health determination unit 18c advances the procedure to step S84.
  • the health determination unit 18c advances the procedure to step S85.
  • the health judgment unit 18c obtains a judgment result that the symptom in this example is improved or ameliorated, and finishes the judgment of the state.
  • the health judgment unit 18c acquires the judgment result that the symptom in this example is exacerbated and finishes the judgment of the state.
  • the above example of the procedure for determining the state is simplified for the sake of simplicity.
  • a determination may be made for a plurality of items of health information.
  • the determination result regarding the future time-series change of the symptom may be acquired by repeating the determination according to the future change of the weather shown in the weather forecast as the meteorological information.
  • FIG. 12 is a table showing the results of multiple regression analysis performed by the present inventors with various environmental factors as explanatory variables and the number of male suicides as objective variables.
  • the regression coefficient indicates the magnitude of the effect on the number of suicides as the predetermined value of each explanatory variable (depending on the variable) increases.
  • a negative value indicates that the number of suicides decreases as the predetermined value of the variable increases.
  • the P value is the significance probability of the regression coefficient of each environmental factor, and the value is underlined if it is less than 5%, that is, if it can be judged that a statistically significant relevance is observed.
  • the information providing device 10 can determine, for example, atmospheric pressure, temperature, F10.7 index, galaxy cosmic dose, Hedonometer, cloud cover, and the determination of health information that a man may commit suicide.
  • a multiple regression equation that includes the regression coefficient of the unemployment rate can be used as a health effect model.
  • FIG. 13 is a table showing the results of multiple regression analysis performed by the present inventors with various environmental factors as explanatory variables and the number of deaths due to male traffic accidents as objective variables. The reading of the value is similar to the suicide example above.
  • galactic cosmic dose and Hedomometer are statistically significantly related to the number of male traffic accidents.
  • the information providing device 10 uses a multiple regression equation including, for example, the galactic cosmic dose and the regression coefficient of Hedomometer to determine the health information that a male traffic accident may occur. It can be used as a model.
  • the senor 21 is described as a component of the measuring device 20 that is separate from the information providing device 10, but the sensor 21 may be a component of the information providing device 10. ..
  • the sensor included in the activity meter corresponds to the sensor 21 described above.
  • the input route of the individual information and the environmental information to the information providing device 10 in the above embodiment is an example and is not limited to this.
  • the environment information may be input using the user interface 12 instead of via the communication network.
  • the information providing device 10 may acquire environmental information based on the measurement result using the sensor connected to the information providing device 10.
  • the health condition may be determined using either one of the biological information or the genetic information of the individual information and the environmental information, or the environment included in the environmental information without using the individual information.
  • the health condition may be determined only from the index indicating the factor.
  • index value derived by using the one given in the description of the above embodiment may be input to the information providing device 10 as individual information. Further, the information providing device 10 may derive such other index values. For example, heart rate variability obtained by analyzing continuous heartbeats from an electrocardiogram waveform.
  • the weather information, space weather information, or Schumann resonance information used to determine the desired biological condition item can be used appropriately in light of whether or not it is related to the item, or in light of costs, regulations, etc. It is possible to select as appropriate depending on whether or not it is.
  • another index value derived by using the one described in the description of the above embodiment may be input to the information providing device 10 as environmental information. Further, the information providing device 10 may derive such other index values. As an example other than those mentioned in the description of the above-described embodiment, for example, an atmospheric substance may be used as an environmental factor.
  • FIG. 15 is a table showing the results of a linear regression analysis of the concentrations of atmospheric substances whose time and place correspond to each other and the number of female suicide attempts (monthly average) based on the data obtained by the present inventors. is there.
  • the results show a stronger and significant association between atmospheric carbon monoxide levels and the occurrence of female suicide attempts than other atmospheric substances. This association suggests the availability of carbon monoxide in the atmosphere as a measure of the likelihood of suicide or attempted suicide.
  • the space weather information may include the F10.7 index, solar activity, geomagnetic activity, proton phenomenon, radiation belt electrons, ionospheric storm, Delinger phenomenon, sporadic E layer, and the like.
  • Environmental factors include dioxins, DDT, DDE, pesticides, polychlorinated biphenyls (PCBs), diethylstilbestrol (DES), bisphenol A, nonylphenol, tin, lead, cadmium, benzpyrene, phytoestrogens, furans. , Mercury and the like may be included.
  • the information providing device 10 acquires the time information and transmits it to the server 50, but the present invention is not limited to this.
  • the time information is not essential.
  • the environmental information is approximately continuous observation values, but is not limited to this.
  • it may be information at a level that determines the observed value in light of a predetermined standard.
  • it may be discrete value information indicating a level as shown in Non-Patent Document 18.
  • the biological condition data given in the description of the above embodiment is a partial example, and statistical data showing the relationship with available environmental factors for other biological health conditions or life-threatening events. Can also be used. For example, the number of deaths due to suicide or intentional self-injury, the number of deaths due to traffic accidents, the number of deaths due to accidental injury or other external causes, the number of deaths due to injury or death due to harm, the number of deaths due to various diseases, as shown in the above data. Data can be used.
  • FIG. 14 is an example of such statistical data, which is statistically obtained by the present inventors using the actual data of environmental factors and the actual data of causes of death corresponding to the time and place shown. It is a table showing the presence or absence of a significant association with.
  • the left column for each cause of death shows the results for men and the right column for women.
  • a plus sign in the table indicates a positive and significant association, and a minus sign indicates a negative and significant association.
  • N. S. Indicates that there was no significant association.
  • the causes of death that are significantly related to some environmental factors include not only accidents / incidents but also various diseases such as infectious diseases, metabolic disorders, and cardiovascular diseases.
  • each cause of death for example, the number of deaths due to suicide as an objective variable and each item of environmental information as an explanatory variable, in the near future based on the environmental information.
  • the number of possible suicides can be obtained as a result of determining the biological condition.
  • health information that calls attention to the family members of people who are prone to suicide or related medical personnel may be provided.
  • the number of deaths due to a traffic accident is the objective variable
  • the number indicated by the judgment result when the number indicated by the judgment result is large, it can be used by people who drive cars in daily life, people involved in various transportation systems, people involved in traffic safety such as police, etc. Health information that calls attention may be provided.
  • health information may be provided to call attention to the patient or the persons concerned in the reserve group.
  • biological information and genetic information are mentioned as information included in the individual information, but the present invention is not limited to this.
  • personal epigenetic information may be used.
  • a state model is used as a tool for determining the biological state of a living body that is affected by the state of environmental factors indicated by environmental information on the mind and body of the living body.
  • the effects of environmental information on the mind and body of human beings, which are living organisms are said to affect economic activities as a manifestation of such affected human behavior, and the relationship between the business cycle and the cycle of sunspots is linked.
  • There is also a theory to argue see Non-Patent Document 19). Therefore, by using the state of environmental factors indicated by the environmental information and the economic impact model instead of the state model, the current or future economic trend may be determined and the economic information related to this economic trend may be acquired.
  • the economic impact model prepares data showing the state of environmental factors measured in the past and data of economic trends observed at the place and time corresponding to the place and time when the measurement of the state of the environmental factor was performed. Then, like the above state model, it is acquired as a statistical model such as a multiple regression equation or an inference model for machine learning.
  • the economic trend data here includes, for example, figures related to market conditions such as stock prices, exchange rates, and prices, figures related to employment (unemployment rate), income, bankruptcy, etc., and business performance in specific fields, regions, or scales. , The number of sales or sales of a specific product.
  • Economic information related to economic trends determined using such an economic impact model can be used, for example, to determine a policy or business policy, or to determine the execution timing of sales promotion measures such as the introduction of advertisements. This can bring about effects such as improvement or suppression of economic deterioration, improvement of cost-effectiveness of profit or investment, or avoidance of loss.
  • the living body for determining the biological state in which the state of the environmental factor indicated by the environmental information has an influence on the mind and body of the living body is not limited to humans.
  • the living body for determining the biological state in which the state of the environmental factor indicated by the environmental information affects the mind and body of the living body may be a stink bug.
  • FIG. 16 is a table showing the relationship between the number of stink bugs and environmental factors. As shown in FIG. 16, the number of stink bugs has a statistically significant correlation with galactic cosmic dose and Kp_10. Specifically, the number of stink bugs has a correlation coefficient of 0.64714 with the galactic cosmic dose and a correlation coefficient of -0.66155 with Kp_10.
  • Kp_10 is a K-index, which is an index representing geomagnetic disturbance.
  • the information providing device, the information providing method, and the program according to the embodiment may reflect this correlation in the state model. Then, the information providing device, the information providing method, and the program according to the embodiment predict the number of stink bugs using a state model that reflects the correlation between the number of stink bugs and environmental factors, and obtain the predicted result. It may be output. Thereby, the information providing device, the information providing method and the program according to the embodiment may be able to reduce the amount of pesticide sprayed at the agricultural production site.
  • the number of stink bugs is predicted here, the living body to be predicted is not limited to stink bugs. The living body to be predicted using the correlation with environmental factors may be other pests.
  • the environmental factors used for prediction include, for example, galaxy cosmic dose and Kp_10, F10.7 index, solar activity, geomagnetic activity, proton phenomenon, radiation belt electron, ionospheric storm, Delinger phenomenon, sporadic E. It may include layers, pressure, precipitation, temperature, humidity, wind speed, sunshine duration, cloud cover, age and the like.
  • the information providing device, the information providing method, and the program according to the embodiment may output the amount of pesticide sprayed estimated from the number of pests generated, not the predicted number of pests generated.
  • the state model of the embodiment predicts the number of pests generated from environmental factors including space weather such as galaxy cosmic dose or K index, and estimates the desired harvest time of agricultural products based on the predicted results. May be output.
  • FIG. 17 is a table showing the results of multiple regression analysis obtained by the present inventors using the actual data of the hedonometer corresponding to the indicated time and place and the actual data of environmental factors. These are data on phenomena that are completely different from each other, and it is usually expected that there is no statistically significant association between the two.
  • FIG. 18 is a schematic diagram showing the process of calculating happiness from environmental factors using relevance.
  • the emotion estimation unit 18a calculates the happiness level by using the results of the multiple regression analysis of the environmental factors shown in FIG. 14 and the environmental factors and the happiness level and the correlation coefficient.
  • the emotion estimation unit 18a calculates the happiness level by using the result of the multiple regression analysis with the K index, the Schumann resonance intensity, and the happiness level of F10.7 Index and the correlation coefficient. Since the K-index and the Schumann resonance intensity correlate with the Bulk Speed and the galactic cosmic dose, respectively, the happiness may be obtained indirectly from the Bulk Speed and the galactic cosmic dose.
  • the emotion estimation unit 18a calculates the K index from Bulk Speed, and the route for calculating happiness, from the galactic cosmic dose.
  • the happiness may be calculated using either the route of calculating the Schumann resonance and calculating the happiness, or the route of calculating the happiness from F10.7 Index.
  • the emotion estimation unit 18a may directly calculate the happiness level from the galactic cosmic dose.
  • the emotion estimation unit 18a may use the correlation coefficient between Bulk Speed and the galactic cosmic dose, or the correlation coefficient between the galactic cosmic dose and F10.7 Index, to calculate the degree of happiness.
  • FIG. 19 is a schematic diagram showing the process of predicting the user's behavior from the happiness calculated by using the result of multiple regression analysis and the correlation from environmental factors. Since the process of calculating happiness from environmental factors is the same as that described in FIG. 14, the description will be omitted.
  • the behavior prediction unit 18b predicts the user's behavior based on the result of multiple regression analysis with happiness and the correlation coefficient. The predicted behavioral result may be expressed as an index such as the number of deaths due to "intentional self-harm and suicide" of a man.
  • the behavior prediction unit 18b predicts the user's behavior directly from environmental factors such as Bulk Speed, Galactic Space Dose, and F10.7 Index, which are statistically significantly related to the user's behavior. Good.
  • the behavior of the user to be predicted is not determined to be, for example, the number of deaths due to intentional self-injury and suicide, the number of deaths due to a traffic accident, the number of deaths due to accidental damage or other external causes, accidental or intentional. Includes actions combined by indicators such as the number of deaths from incidents, the number of deaths from injury and death due to perpetration, and the number of deaths from each disease.
  • the behavior of the user to be predicted may include purchasing behavior and the like, and may not be limited to one user such as price movement of the stock market.
  • the prediction process shown in FIGS. 18 and 19 is an example, and the routes and numerical values shown in FIGS. 18 and 19 do not necessarily have to be used as they are.
  • the value of Hedonometer is considered to be related to the psychological state of the group, and the value of Hedomometer can be the basis for estimating the psychological state of the group, which is one of the environmental factors.
  • FIG. 20 is a table showing the causal relationship between suicide and environmental factors in consideration of time.
  • FIG. 20 shows the results of an analysis using a case crossover design in which a control group can be placed and a causal relationship can be asserted in a longitudinal study considering time.
  • Violent and non-violent suicides in women are statistically significantly associated with proton flux, according to an analysis performed by type and gender of suicide attempts using Taiwanese health insurance data. Be done. This suggests a causal relationship in which proton flux, which is one of the space weather conditions, affects women's suicide attempts.
  • a statistically significant association between female nonviolent suicide and temperature demonstrated the effectiveness of the combination of meteorological and space weather. Therefore, the estimation and prediction of the state by the information providing device or the like according to the present embodiment can be empirically supported.
  • information obtained from environmental DNA and environmental RNA (hereinafter, also referred to as an environmental gene by referring to at least one of them) can be mentioned. From the environmental genes collected in the environment surrounding the living body, for example, the number of individuals of the living body, the geographical distribution, epigenetic information as a group, and the like are acquired. Information obtained from the environmental genes surrounding the living body to be determined (environment in the present application) using a health effect model generated based on the data of the environmental genes showing such information and the data of the health condition of the living body. By deriving the health state corresponding to (example of genetic information), the health state of the living body of the target may be determined.
  • epigenetic information examples include those relating to the occurrence of biological diseases and the tendency of temperamental changes such as violence. Regarding the outbreak of illness, for example, there is a possibility that it can be used for preparation plans for vaccines and silver bullets, and for human illnesses, the medical insurance system. In addition, although it is a rather extreme example, if a person's violent rise is caught, it may be used for planning and implementing deterrent measures for violent crimes. It should be noted that such information may be used not only for the health of living organisms but also for the determination of economic trends as described above. For example, there may be a case where changes that are highly related to the manifestation of purchasing behavior are acquired as epigenetic information.
  • information on the psychological state of a group of living organisms such as the above-mentioned hedonometer, is also included in the example of information that can be used for determining the state of living organisms.
  • Information on the psychological state of the group including the living body to be determined using a state model generated based on the data of the psychological state of the living body and the data of the health state of the living body. By deriving the health state corresponding to the group psychological state information), the health state of the living body of the target may be determined.
  • the above-mentioned state model is not limited to a single model.
  • the state model based on the data showing the state of the environmental factor and the data showing the state of the living body and the state model based on the data of the environmental gene and the data showing the state of the living body may be individual state models.
  • the user may be presented with individually based information on the results of determinations made using the respective state models, or may be presented with information further derived based on both results.
  • the information providing device, the information providing method, and the program in the embodiment may obtain feedback from the user regarding the user's state at the target date and time, which is the date and time predicted by the state model.
  • the state model can be sent from the user to emotions (including emotions, depression, anxiety, negligence, inactive pleasure, concentration, hostility, active pleasure, affinity or startle, etc.) at the target date and time.
  • the information providing device, the information providing method, and the program in the embodiment may acquire information on the above state from the user through a dedicated application or by analyzing the user's SNS.
  • the user's SNS may be analyzed by statistical analysis, machine learning such as deep learning, or the like.
  • the information providing device, the information providing method, and the program in the embodiment may optimize the state model by learning based on the acquired feedback from the user. The optimization may be performed sequentially, or each time feedback is obtained. Thereby, the information providing device, the information providing method, and the program in the embodiment can accurately predict the state of the user at the individual level.
  • the information providing device uses a state model to identify the periodicity of an individual (or group) emotional index, and then determines the psychological state or behavior of the individual (or group). You may predict.
  • the information providing device in the embodiments of the present disclosure identifies the periodicity of an individual (or group) based on historical data or predicted psychological states or behaviors. The information providing device in the embodiment of the present disclosure then predicts the psychological state or behavior of an individual (or group) based on the identified periodicity.
  • the components of the above-mentioned information presenting device include, for example, a plurality of computers each having a processor and a memory and capable of communicating with each other, operating in cooperation with each other, and providing the same functions as each of the above-mentioned information processing devices. It may be realized as a component of the information processing system. In this case, these components are such that, for example, some or all of the processors provided by these computers execute one or more programs stored in some or all of the memory provided by these computers. It is realized by.
  • One aspect of the present invention may be not only the above-mentioned information presenting device or information presenting system, but also an information presenting method in which processing by a function of a characteristic component included in the information presenting device is a step. ..
  • This information presentation method is, for example, the information presentation method described above using the flowchart of FIG.
  • one aspect of the present invention may be a computer program that causes a processor included in the information processing apparatus to execute each characteristic step included in such an information presentation method.
  • one aspect of the present invention may be a computer-readable non-temporary recording medium on which such a computer program is recorded.
  • control unit 18 and the storage unit 16 have an example realized as a functional component of the information providing device 10 formed or worn by the user who is the target of determining the health state.
  • One or both may be provided in an external device capable of communicating with the information providing device 10.
  • it may be realized in a server that provides a cloud service that can communicate with the information providing device 10 via a communication network.
  • a server that provides a cloud service has a control unit 18 and a storage unit 16.
  • the biological information based on the measurement result using the sensor 21 is transmitted to the server at any time or by the operation of the user who is the target of determining the health state, and is stored in the storage unit 16 as individual information.
  • the control unit 18 executes the determination of the health state using the individual information including the biological information and other necessary information, and further acquires the health information corresponding to the determination result.
  • This health information may be transmitted and provided not only to the user but also to a user in a broad sense, that is, an information processing device which is an information providing device 10 such as the user's family or an attending physician.
  • these users may be notified of the location of the health information data and may access the location through the information providing device 10 to receive the health information. That is, the user receives the notification of the URL (Uniform Resource Locator) of the health information on the Internet, accesses the URL using the dedicated application or general-purpose web browser installed in the information providing device 10, and performs the health information. May be provided.
  • the form that the information presenting device or the like according to the present invention can take in the market is not limited to the means for providing health information as illustrated in FIGS. 7 and 8.
  • it may take a more casual form, such as a means of providing a fortune-telling service.
  • it can be more credible than the conventional one because it uses causal relationships and correlations backed by statistics.
  • As a specific example as a means of providing a fortune-telling service that presents advice on the mood and physical condition of oneself or those around him, or personal relationships based on these, belongings (lucky items) or actions that may improve unfavorable situations. Deployment is possible.
  • the medical device can also be used as a medical device after repeated clinical trials and obtaining regulatory approval.
  • it can be considered to be developed as a diagnostic tool for diseases based on the relationship between the wave of symptoms seen in a patient and environmental factors, or as a device for controlling the onset of the disease.
  • this tool is used as a tool to obtain information on the time and place of occurrence of patients with various diseases estimated based on prediction of environmental factors.
  • the information presentation device according to the invention can be used.
  • the technique according to the present invention can be used as a technique for providing information that enables coping with the influence of environmental factors such as weather on the current or future mental and physical condition of a person subject to health management.
  • Information providing system 10 Information providing device 12 User interface 14 Communication unit 16 Storage unit 17 Environmental information acquisition unit 18 Control unit 18a Emotion estimation unit 18b Behavior prediction unit 18c Health judgment unit 20 Measuring equipment 21 Sensor 50 Server

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Abstract

This information provision device is provided with: an environmental information acquisition unit (17) which acquires environmental information indicating the state of an environmental factor that could affect the biological condition of a target biological body at a given time, date, and place; a storage unit (16) which maintains a state model that is based on data indicating the state of an environmental factor measured in the past and data indicating the biological state of a biological body measured at a location and period of time that correspond to the location and period of time at which the measurement of the state of said environmental factor was made; and a control unit (18) which, on the basis of the environmental information, identifies the biological state of the target biological body corresponding to the environmental information, and which acquires and outputs information based on the identified biological state and related to the biological state of the target biological body at the given time and date.

Description

情報提供装置、情報提供方法及びプログラムInformation providing device, information providing method and program
 本発明は、生体の状態に関連する情報を提供する技術に関する。 The present invention relates to a technique for providing information related to the state of a living body.
 人の心理状態、行動又は体調に対する様々な環境要素の影響に関する研究が従来から行われている。このような研究の対象である環境要素の一例として地磁気が挙げられる(例えば非特許文献1-4参照)。 Research on the effects of various environmental factors on a person's psychological state, behavior or physical condition has been conducted conventionally. Geomagnetism is an example of an environmental element that is the subject of such research (see, for example, Non-Patent Documents 1-4).
 また例えば、地磁気を人の状態の特定に利用する技術として用い、センサで検出される地磁気に基づいて人の移動方向等の状態を特定することができる。この状態の情報を、通信機器で当該人を相手として通信を実行するか否かの判断に利用する技術が提案されている(特許文献1参照)。 Also, for example, by using the geomagnetism as a technology for identifying the state of a person, it is possible to specify the state such as the moving direction of the person based on the geomagnetism detected by the sensor. A technique has been proposed in which information in this state is used in a communication device to determine whether or not to execute communication with the person concerned (see Patent Document 1).
特開2017-059891号公報Japanese Unexamined Patent Publication No. 2017-059891
 このような研究の成果として、環境要素の変化と人の変調等との間には統計的に有意な相関が認められつつある。しかしながらこのような成果は、個人又は社会に役立つような実用的な利用方法が未だ十分に確立されていない。例えば特許文献1に開示される技術も、地磁気が人の心理状態、行動又は体調に与える影響による状態が特定されて利用されているわけではない。 As a result of such research, a statistically significant correlation is being recognized between changes in environmental factors and human modulation. However, practical usage methods for such results that are useful to individuals or society have not yet been sufficiently established. For example, the technique disclosed in Patent Document 1 does not specify and use a state due to the influence of geomagnetism on a person's psychological state, behavior, or physical condition.
 本発明は、環境要素が人に与える影響に関する情報を、人々の健康または心理等の状態の改善又は生活の質の向上等を通じてより個人又は社会の役に立つ実用的な利用の実現に資することを可能にする情報提供装置等を提供する。 INDUSTRIAL APPLICABILITY The present invention can contribute to the realization of practical use of information on the influence of environmental factors on human beings, which is more useful to individuals or society by improving the health or psychological state of people or improving the quality of life. Provide information providing devices, etc.
 本発明の一態様に係る情報提供装置は、所与の日時及び場所における対象生体の生体状態に影響し得る環境要因の状態を示す環境情報を取得する環境情報取得部と、過去に計測された前記環境要因の状態を示すデータと、当該環境要因の状態の計測が実行された場所及び時期に対応する場所及び時期に計測された生体の生体状態を示すデータとに基づく状態モデルを保持する記憶部と、前記環境情報に基づいて、前記状態モデルを用いて、前記環境情報に対応する前記対象生体の前記生体状態を特定し、特定した前記生体状態に基づく、前記所与の日時における前記対象生体の前記生体状態に関連する情報を取得して出力する制御部と、を備える。 The information providing device according to one aspect of the present invention includes an environmental information acquisition unit that acquires environmental information indicating the state of environmental factors that can affect the biological state of the target living body at a given date and time and a place, and has been measured in the past. A memory that holds a state model based on data showing the state of the environmental factor and data showing the biological state of the living body measured at the place and time corresponding to the place and time when the measurement of the state of the environmental factor was executed. Based on the unit and the environmental information, the state model is used to identify the biological state of the target living body corresponding to the environmental information, and the target at the given date and time based on the specified biological state. It includes a control unit that acquires and outputs information related to the biological state of the living body.
 また、本発明の一態様に係る情報提供方法は、所与の日時及び場所における対象生体の生体状態に影響し得る環境要因の状態を示す環境情報を取得する環境情報取得ステップと、過去に計測された前記環境要因の状態を示すデータと、当該環境要因の状態の計測が実行された場所及び時期に対応する場所及び時期に計測された生体の生体状態を示すデータとに基づく状態モデルを保持する記憶ステップと、前記環境情報に基づいて、前記状態モデルを用いて、前記環境情報に対応する前記対象生体の前記生体状態を特定し、特定した前記生体状態に基づく、前記所与の日時における前記対象生体の前記生体状態に関連する情報を取得して出力する制御ステップと、を含む。 In addition, the information providing method according to one aspect of the present invention includes an environmental information acquisition step for acquiring environmental information indicating the state of environmental factors that can affect the biological state of the target living body at a given date and time, and measurement in the past. Holds a state model based on the data showing the state of the environmental factor and the data showing the biological state of the living body measured at the place and time corresponding to the place and time when the measurement of the state of the environmental factor was executed. Based on the storage step to be performed and the environmental information, the state model is used to identify the biological state of the target living body corresponding to the environmental information, and at the given date and time based on the specified biological state. It includes a control step of acquiring and outputting information related to the biological state of the target living body.
 また、本発明の一態様に係るプログラムは、プロセッサを備える情報処理装置において、前記プロセッサによって実行されることで前記プロセッサに、所与の日時及び場所における対象生体の健康状態に影響し得る環境要因の状態を示す環境情報を取得させ、過去に計測された前記環境要因の状態を示すデータと、当該環境要因の状態の計測が実行された場所及び時期に対応する場所及び時期に計測された生体の健康状態を示すデータとに基づく健康影響モデルを用いて前記環境情報に対応する健康状態を判定させ、判定した前記健康状態に基づく、前記所与の日時における前記対象生体の健康状態に関連する健康情報を取得させ、前記環境情報に基づいて推定された環境要因を用いた感情推定モデルに基づいて、前記対象生体の感情を表す指標である感情指標を、前記対象生体の感情を推定することが望まれる対象日時において特定させ、前記感情推定部が特定した前記感情指標に基づいて、前記対象日時における前記対象生体の行動を予測した結果を出力させる。 In addition, the program according to one aspect of the present invention is an environmental factor that can affect the health condition of the target living body at a given date and time and place on the processor by being executed by the processor in the information processing apparatus including the processor. The data showing the state of the environmental factor measured in the past and the living body measured at the place and time corresponding to the place and time when the measurement of the state of the environmental factor was executed by acquiring the environmental information indicating the state of The health condition corresponding to the environmental information is determined by using the health effect model based on the data indicating the health condition of the subject, and the health condition of the target living body at the given date and time is related to the determined health condition. To acquire health information and estimate the emotion of the target organism by using an emotion index, which is an index representing the emotion of the target organism, based on an emotion estimation model using environmental factors estimated based on the environmental information. Is specified at the desired target date and time, and the result of predicting the behavior of the target living body at the target date and time is output based on the emotion index specified by the emotion estimation unit.
 なお、これらの包括的または具体的な態様は、システム、集積回路又はコンピュータ読み取り可能なCD-ROMなどの記録媒体で実現されてもよく、装置、システム、方法、集積回路、コンピュータプログラム及び記録媒体の任意な組み合わせで実現されてもよい。 It should be noted that these comprehensive or specific embodiments may be realized in a recording medium such as a system, an integrated circuit or a computer-readable CD-ROM, and the device, system, method, integrated circuit, computer program and recording medium. It may be realized by any combination of.
 本発明の一態様に係る情報提供装置等によれば、環境要素が人に与える影響に関する情報を、人々の健康または心理等の状態の改善又は生活の質の向上等を通じて個人又は社会の役に立つ実用的な利用の実現に資することを可能にする。 According to the information providing device or the like according to one aspect of the present invention, information on the influence of environmental elements on humans can be put into practical use that is useful to individuals or society through improvement of people's health or psychological state or improvement of quality of life. It makes it possible to contribute to the realization of practical use.
図1は、実施の形態に係る情報提供装置の構成を説明するための図である。FIG. 1 is a diagram for explaining a configuration of an information providing device according to an embodiment. 図2Aは、実施の形態に係る情報提供装置を実現するハードウェア構成の例を示すブロック図である。FIG. 2A is a block diagram showing an example of a hardware configuration that realizes the information providing device according to the embodiment. 図2Bは、実施の形態に係る情報提供装置を実現する情報処理装置の例を示す模式図である。FIG. 2B is a schematic diagram showing an example of an information processing device that realizes the information providing device according to the embodiment. 図2Cは、実施の形態に係る情報提供装置を実現する情報処理装置の例を示す模式図である。FIG. 2C is a schematic diagram showing an example of an information processing device that realizes the information providing device according to the embodiment. 図2Dは、実施の形態に係る情報提供装置を実現する情報処理装置の例を示す模式図である。FIG. 2D is a schematic diagram showing an example of an information processing device that realizes the information providing device according to the embodiment. 図3は、実施の形態に係る情報提供装置において健康情報の取得に用いられる生体情報のデータ構成の例を示す図である。FIG. 3 is a diagram showing an example of a data structure of biometric information used for acquiring health information in the information providing device according to the embodiment. 図4は、実施の形態に係る情報提供装置において健康情報の取得に用いられる環境要因の情報のデータ構成の例を示す図である。FIG. 4 is a diagram showing an example of a data structure of information on environmental factors used for acquiring health information in the information providing device according to the embodiment. 図5は、実施の形態に係る情報提供装置の動作の手順例を示すフローチャートである。FIG. 5 is a flowchart showing a procedure example of the operation of the information providing device according to the embodiment. 図6は、図5に例示する情報提供装置の動作の手順における、健康状態の判定の手順例を示すフローチャートである。FIG. 6 is a flowchart showing an example of a procedure for determining a health condition in the procedure for operating the information providing device illustrated in FIG. 図7は、実施の形態に係る情報提供装置による、健康情報の提示例を示す模式図である。FIG. 7 is a schematic diagram showing an example of presenting health information by the information providing device according to the embodiment. 図8は、実施の形態に係る情報提供装置による、健康情報の提示例を示す模式図である。FIG. 8 is a schematic diagram showing an example of presenting health information by the information providing device according to the embodiment. 図9は、図5に例示する情報提供装置10の動作の手順における、感情状態の推定の手順例を示すフローチャートである。FIG. 9 is a flowchart showing an example of a procedure for estimating an emotional state in the procedure for operating the information providing device 10 illustrated in FIG. 図10は、図5に例示する情報提供装置10の動作の手順における、行動の予測の手順例を示すフローチャートである。FIG. 10 is a flowchart showing an example of an action prediction procedure in the operation procedure of the information providing device 10 illustrated in FIG. 図11は、図5に例示する情報提供装置10の動作の手順における、健康状態の判定の手順例を示すフローチャートである。FIG. 11 is a flowchart showing an example of a procedure for determining a health condition in the procedure for operating the information providing device 10 illustrated in FIG. 図12は、環境要因と男性の自殺件数とについて行った重回帰分析の結果を示す表である。FIG. 12 is a table showing the results of multiple regression analysis performed on environmental factors and the number of male suicides. 図13は、環境要因と男性の交通事故発生件数とについて行った重回帰分析の結果を示す表である。FIG. 13 is a table showing the results of multiple regression analysis performed on environmental factors and the number of male traffic accidents. 図14は、実際の統計に基づく環境要因と各種の死亡数との関連性を示す表である。FIG. 14 is a table showing the relationship between environmental factors based on actual statistics and various deaths. 図15は、大気中物質の濃度と自殺企図の発生件数との線形回帰分析の結果を示す表である。FIG. 15 is a table showing the results of a linear regression analysis of the concentration of substances in the atmosphere and the number of suicide attempts. 図16は、カメムシ発生数と環境要因との関係を示した表である。FIG. 16 is a table showing the relationship between the number of stink bugs and environmental factors. 図17は、環境要因とhedonometerとの間の重回帰分析の結果を示す表である。FIG. 17 is a table showing the results of multiple regression analysis between environmental factors and hedonometers. 図18は、環境要因から重回帰分析や相関係数を用いて幸福度を算出する過程を示した概略図である。FIG. 18 is a schematic diagram showing a process of calculating happiness from environmental factors using multiple regression analysis and a correlation coefficient. 図19は、環境要因から重回帰分析や相関係数を用いて算出された幸福度から、ユーザの行動を予測する過程を示した概略図である。FIG. 19 is a schematic diagram showing a process of predicting user behavior from happiness calculated from environmental factors using multiple regression analysis and a correlation coefficient. 図20は、時間を考慮した自殺と環境要因との因果関係を示す表である。FIG. 20 is a table showing a causal relationship between suicide and environmental factors in consideration of time.
 (本発明の基礎となった知見)
 生物が備える磁気センサに予てより着目していた本発明者らは、さらに磁場のヒトへの影響の研究を進める中で、地磁気の擾乱と鬱又は自殺者数との相関に関する研究報告が海外において多数なされていることを見出した。そのような先行研究のひとつである「背景技術」の欄で挙げた非特許文献1では、地球の磁気嵐の2週間後に男性の鬱が36.2%増加したことが報告されている。また、非特許文献2では、オーストラリアでの調査で見出された地磁気の乱れと自殺者数との関連性が報告されている。そして、これらの研究報告に鑑みた本発明者らは、日本においてもこのような地磁気の月別の強度の擾乱と男性の自殺者数とに有意な関連性があることを突き止めた(非特許文献3参照)。さらに本発明者らは、地磁気が強い場所の方が地磁気の変動の程度(K指数)も一般的により大きいことに着目し、各都道府県庁所在地の地磁気の強さと月毎の都道府県別の男性の自殺の標準化死亡比とに有意な関連性があることを見出した(非特許文献4参照)。
(Knowledge that became the basis of the present invention)
The present inventors, who had been paying more attention to the magnetic sensor provided by living organisms, have been studying the effects of magnetic fields on humans, and research reports on the correlation between geomagnetic disturbance and the number of depressions or suicides have been reported overseas. I found that many things have been done in. Non-Patent Document 1 listed in the column of "Background Technology", which is one of such previous studies, reports that depression in men increased by 36.2% two weeks after the earth's magnetic storm. In addition, Non-Patent Document 2 reports the relationship between the geomagnetic disturbance found in the survey in Australia and the number of suicides. In view of these research reports, the present inventors have found that there is a significant relationship between the monthly intensity disturbance of the geomagnetism and the number of male suicides in Japan as well (non-patent literature). 3). Furthermore, the present inventors have focused on the fact that the degree of geomagnetic fluctuation (K index) is generally larger in places where the geomagnetism is strong, and the strength of the geomagnetism at each prefecture's location and monthly by prefecture. It was found that there is a significant association with the standardized mortality ratio of male suicide (see Non-Patent Document 4).
 このような知見を得た本発明者らは、地磁気以外にも、地球上又は宇宙の気象として捉え得る各種の現象に、ヒトの心身に影響を与える環境要因となり得るものがあるとの仮説を立てた。そしてこの仮説を検証すべく行った調査で、地磁気の擾乱がヒトの心身の活動又は健康に与える可能性を示唆するものを見出した。また、これらの現象の中には、ある種の疾患を原因とするヒトの死亡数との有意な関連性が見出されたものもある。これらの調査の結果は、後述する。 Based on these findings, the present inventors hypothesized that, in addition to geomagnetism, there are various phenomena that can be perceived as meteorology on the earth or in space, which can be environmental factors that affect the human mind and body. I stood up. Then, in a survey conducted to test this hypothesis, we found that the disturbance of the geomagnetic field may affect the physical and mental activity or health of human beings. In addition, some of these phenomena have been found to be significantly associated with human mortality due to certain diseases. The results of these investigations will be described later.
 なお、環境要因と疾患の発症・増悪との関連性については、地磁気の擾乱の短期的な影響として、心筋梗塞や脳卒中との関連性が報告されている(非特許文献5、6、7参照)。また、地磁気の擾乱の長期的な影響としては、地磁気の変動が大きい時期から2年後に多発性硬化症の発症が増える傾向が見られたとの報告(非特許文献8参照)がある。また、超低周波電磁場の職業曝露によって、アルツハイマー病、筋委縮性側索硬化症、パーキンソン病の発症率が高まる可能性を示唆する複数の報告がある(非特許文献9-14参照)。さらにドイツでは、生気象学(biometeorology)に基づいて医学気象予報が提供されている。医学気象予報とは、気象データを基に、心不全、リウマチ性疾患、出血傾向、低血圧、統合失調症、気管支炎、腹痛、睡眠、うつ病、頭痛、けいれん、塞栓症、偏頭痛、断端痛、炎症、神経症、てんかん、肺炎、血栓症、感冒、精神病、外傷性脳炎、緑内障、反応時間、事故遭遇、心筋梗塞等について注意予報を出すものである。 Regarding the relationship between environmental factors and the onset / exacerbation of diseases, the relationship with myocardial infarction and stroke has been reported as a short-term effect of geomagnetic disturbance (see Non-Patent Documents 5, 6 and 7). ). In addition, as a long-term effect of geomagnetic disturbance, there is a report that the onset of multiple sclerosis tended to increase two years after the period when the geomagnetic fluctuation was large (see Non-Patent Document 8). In addition, there are several reports suggesting that occupational exposure to ultra-low frequency electromagnetic fields may increase the incidence of Alzheimer's disease, amyotrophic lateral sclerosis, and Parkinson's disease (see Non-Patent Documents 9-14). Furthermore, in Germany, medical weather forecasts are provided based on biometeorology. Medical weather forecast is based on weather data, heart failure, rheumatic disease, bleeding tendency, hypotension, schizophrenia, bronchitis, abdominal pain, sleep, depression, headache, convulsions, embolism, migraine, stump It provides warning forecasts for pain, inflammation, neuropathy, epilepsy, pneumonia, thrombosis, embolism, psychosis, traumatic encephalitis, glaucoma, reaction time, accident encounters, myocardial infarction, etc.
 そして本発明者らは、上記の調査を進める一方で、従来はヒトの心身に影響する環境要因としては扱われていない現象をさらに取り込み、また、ヒトの心身の活動等のうち、従来は予報の対象から外れるもの、又はさらにヒトと関わりのある他の生体の活動への影響も予報の対象に含めることを可能にすることで人々の健康の改善又は生活の質の向上を図るための本発明に想到した。 While proceeding with the above investigation, the present inventors further incorporated phenomena that have not been treated as environmental factors that affect the human mind and body in the past, and also forecasted the activities of the human mind and body in the past. A book for improving people's health or quality of life by making it possible to include things that are not covered by the forecast, or even the effects on the activities of other living organisms related to humans, in the forecast. I came up with the invention.
 このような本発明の一態様に係る情報提供装置は、所与の日時及び場所における対象生体の生体状態に影響し得る環境要因の状態を示す環境情報を取得する環境情報取得部と、過去に計測された前記環境要因の状態を示すデータと、当該環境要因の状態の計測が実行された場所及び時期に対応する場所及び時期に計測された生体の生体状態を示すデータとに基づく状態モデルを保持する記憶部と、前記環境情報に基づいて、前記状態モデルを用いて、前記環境情報に対応する前記対象生体の前記生体状態を特定し、特定した前記生体状態に基づく、前記所与の日時における前記対象生体の前記生体状態に関連する情報を取得して出力する制御部と、を備える。これにより、複合的であり得る環境要因による生体への影響をより高い精度で推定し、その推定結果を人々に提供することができる。より具体的には、例えば、前記環境要因は、気圧、降水量、気温、湿度、風速、日照時間、降雪量及び季節の少なくともひとつを指す気象と、太陽活動、地磁気活動、電離圏活動、宇宙線量及び月齢の少なくともひとつを指す宇宙天気とを含み、前記健康状態は、傷病又は傷病を原因とする死亡に関する状態であり、前記生体状態に関連する情報は、症状、感情、集中力、注意力、衝動性、活動性、躁行動、鬱行動の少なくともひとつを示す。また、前記環境要因は、シューマン共振、F10.7インデックス、太陽活動、地磁気活動、プロトン現象、放射線帯電子、電離圏嵐、デリンジャー現象およびスポラディックE層の強度を含んでもよい。 Such an information providing device according to one aspect of the present invention includes an environmental information acquisition unit that acquires environmental information indicating the state of environmental factors that can affect the biological state of the target living body at a given date and time and a place in the past. A state model based on the measured data showing the state of the environmental factor and the data showing the biological state of the living body measured at the place and time corresponding to the place and time when the measurement of the state of the environmental factor was executed. Based on the storage unit to be held and the environmental information, the state model is used to identify the biological state of the target living body corresponding to the environmental information, and the given date and time based on the specified biological state. A control unit that acquires and outputs information related to the biological state of the target living body in the above. This makes it possible to estimate the effects of environmental factors that may be complex on the living body with higher accuracy and provide the estimation results to people. More specifically, for example, the environmental factors include meteorology, which refers to at least one of atmospheric pressure, precipitation, temperature, humidity, wind speed, sunshine time, snowfall, and season, and solar activity, geomagnetic activity, ionization zone activity, and space. The health condition includes a dose and space weather indicating at least one of the ages of the moon, the health condition is a condition related to injury or death caused by the injury or illness, and the information related to the biological condition is symptoms, emotions, concentration, attention. Shows at least one of impulsiveness, activity, maneuverability, and depression. The environmental factors may also include Schumann resonance, F10.7 index, solar activity, geomagnetic activity, proton phenomenon, radiation belt electrons, ionospheric storm, Delinger phenomenon and sporadic E layer intensity.
 例えば、前記制御部は、前記環境情報に基づいて推定された環境要因を用いた感情推定モデルに基づいて、前記対象生体の感情を表す指標である感情指標であって、前記対象生体の感情を推定することが望まれる対象日時における感情指標を特定する感情推定部と、前記感情推定部が特定した前記感情指標に基づいて、前記対象日時における前記対象生体の行動を予測して出力する行動予測部とを備えてもよい。これにより、本発明の一態様に係る情報提供装置は、対象生体の感情を特定し、特定した感情に基づいて、対象生体の行動を予測することができる。 For example, the control unit is an emotion index that represents the emotion of the target living body based on an emotion estimation model using environmental factors estimated based on the environmental information, and obtains the emotion of the target living body. Behavior prediction that predicts and outputs the behavior of the target living body at the target date and time based on the emotion estimation unit that specifies the emotion index at the target date and time that is desired to be estimated and the emotion index specified by the emotion estimation unit. It may be provided with a part. Thereby, the information providing device according to one aspect of the present invention can specify the emotion of the target living body and predict the behavior of the target living body based on the specified emotion.
 また、例えば、前記制御部は、前記環境情報に基づいて生成された環境要因を用いた健康影響モデルを用いて前記環境情報に対応する健康状態を判定し、判定した前記健康状態に基づく、前記所与の日時における前記対象生体の健康状態に関連する健康情報を取得して出力する健康判定部と、を備えてもよい。これにより、本発明の一態様に係る情報提供装置は、対象生体の健康状態を判定し、判定した健康状態を出力することができる。 Further, for example, the control unit determines a health state corresponding to the environmental information by using a health effect model using an environmental factor generated based on the environmental information, and is based on the determined health state. A health determination unit that acquires and outputs health information related to the health state of the target living body at a given date and time may be provided. Thereby, the information providing device according to one aspect of the present invention can determine the health state of the target living body and output the determined health state.
 また例えば、前記健康影響モデルは、前記過去に計測された環境要因の状態を示すデータを学習データとして用い、前記生体の健康状態のデータを教師データとして用いる機械学習によって得られた推論モデルであってもよい。 Further, for example, the health effect model is an inference model obtained by machine learning using the data indicating the state of environmental factors measured in the past as learning data and the data of the health state of the living body as teacher data. You may.
 また例えば、前記健康影響モデルは、さらに前記生体の集団の心理状態を示すデータと前記生体の健康状態のデータとに基づき、前記健康判定部は、さらに前記対象生体を含む集団の心理状態を示す集団心理状態情報を取得し、前記健康判定部が前記健康影響モデルを用いて判定する前記健康状態は、前記集団心理状態情報が示す心理状態にさらに対応するものであってもよい。また例えば、前記健康影響モデルは、さらに前記生体を取り巻く環境で採取された環境遺伝子のデータと前記生体の健康状態のデータとに基づき、前記健康判定部は、さらに前記対象生体を取り巻く環境で採取された環境遺伝子から得られる情報である環境遺伝子情報を取得し、前記健康判定部が前記健康影響モデルを用いて判定する前記健康状態は、前記環境遺伝子状態情報が示す環境遺伝子情報にさらに対応するものであってもよい。これらにより、上記の推定の精度のさらなる向上を図ることができる。 Further, for example, the health effect model further indicates the psychological state of the group including the target living body, based on the data indicating the psychological state of the living body and the health state data of the living body. The health state obtained by acquiring the group psychological state information and determined by the health determination unit using the health effect model may further correspond to the psychological state indicated by the group psychological state information. Further, for example, the health effect model is further based on the data of the environmental gene collected in the environment surrounding the living body and the data of the health state of the living body, and the health determination unit is further collected in the environment surrounding the target living body. The health state obtained by acquiring the environmental gene information which is the information obtained from the obtained environmental gene and determined by the health determination unit using the health effect model further corresponds to the environmental gene information indicated by the environmental gene state information. It may be a thing. As a result, the accuracy of the above estimation can be further improved.
 また例えば、前記健康影響モデルは、さらに前記生体の個体情報のデータに基づき、前記健康判定取得部は、さらに前記対象生体の個体情報を取得し、前記健康判定部が前記健康影響モデルを用いて判定する前記健康状態は、前記対象生体の個体情報にさらに対応するものであってもよい。より具体的には、例えば、前記個体情報は、生体情報、遺伝情報、エピジェネティック情報及び誕生時期の少なくともひとつを含んでもよい。 Further, for example, the health effect model further acquires individual information of the target organism based on the data of the individual information of the living body, and the health determination unit uses the health effect model. The health state to be determined may further correspond to the individual information of the target living body. More specifically, for example, the individual information may include at least one of biological information, genetic information, epigenetic information and birth time.
 また、例えば、前記感情推定モデルは、前記過去に計測された環境要因の状態を示すデータと前記生体の感情指標のデータとに基づいて、前記環境要因の状態と前記生体の感情指標との関連性を統計的に解析することによって得られたモデルであってもよい。また、例えば、前記感情推定モデルは、前記過去に計測された環境要因の状態を示すデータを学習データとして用い、前記生体の感情のデータを教師データとして用いる機械学習によって得られた推論モデルであってもよい。そして、例えば、前記機械学習は深層学習であってもよい。 Further, for example, in the emotion estimation model, the relationship between the state of the environmental factor and the emotion index of the living body is based on the data indicating the state of the environmental factor measured in the past and the data of the emotion index of the living body. It may be a model obtained by statistically analyzing the sex. Further, for example, the emotion estimation model is an inference model obtained by machine learning using the data indicating the state of environmental factors measured in the past as training data and the emotion data of the living body as teacher data. You may. And, for example, the machine learning may be deep learning.
 また、例えば、前記感情推定部は、前記対象日時より以前の所定時間分の前記環境情報に基づいて、前記対象日時における前記対象生体の感情を表す前記感情指標を特定してもよい。また、例えば、前記行動予測部は、前記対象生体の感情指標のデータに基づいて、前記生体の感情指標のデータと前記生体が行った行動を示すデータとの関連性を統計的に解析することによって得られたモデルを用いて、前記対象日時における前記対象生体の行動を予測してもよい。これにより、上記のそれぞれの推定、判定および予測の精度のさらなる向上を図ることができる。 Further, for example, the emotion estimation unit may specify the emotion index representing the emotion of the target living body at the target date and time based on the environmental information for a predetermined time before the target date and time. Further, for example, the behavior prediction unit statistically analyzes the relationship between the data of the emotion index of the living body and the data indicating the behavior performed by the living body based on the data of the emotion index of the target living body. The behavior of the target organism at the target date and time may be predicted using the model obtained by. Thereby, the accuracy of each of the above estimations, judgments and predictions can be further improved.
 また例えば、さらに第一センサを備え、前記提供情報取得部は、前記第一センサを用いた計測の結果に基づいて取得された前記生体情報を前記個体情報として取得してもよい。これにより、ユーザは情報提供装置が備える第一センサを用いて計測される、自身の最新の生体情報に対応する健康情報を取得することができる。 Further, for example, the first sensor may be further provided, and the provided information acquisition unit may acquire the biological information acquired based on the result of measurement using the first sensor as the individual information. As a result, the user can acquire health information corresponding to his / her latest biological information measured by using the first sensor included in the information providing device.
 また例えば、さらに第二センサを備え、前記環境情報取得部は、前記第二センサを用いた計測の結果に基づく前記環境情報を取得してもよい。これにより、例えば局地的な場所での最新の環境要因の状態に対応した健康情報の提供が可能である。また、第二センサが例えばウェアラブル端末又はモバイル機器に備えられるものであれば、そのユーザの居場所に応じて健康情報の提供が可能である。 Further, for example, the second sensor may be further provided, and the environmental information acquisition unit may acquire the environmental information based on the result of measurement using the second sensor. This makes it possible to provide health information corresponding to the latest environmental factors, for example, in a local place. Further, if the second sensor is provided in, for example, a wearable terminal or a mobile device, it is possible to provide health information according to the location of the user.
 また例えば、さらに通信部を備え、前記環境情報取得部は、前記通信部が外部から受信するデータに基づいて前記環境情報を取得してもよい。このような実施態様であれば、情報が入手可能な任意の場所における環境要因の、対象生体への影響の推定結果を健康情報として提供することができる。 Further, for example, the communication unit may be further provided, and the environment information acquisition unit may acquire the environment information based on the data received from the outside by the communication unit. In such an embodiment, it is possible to provide the estimation result of the influence of the environmental factor on the target living body as health information at any place where the information is available.
 また例えば、前記記憶部は、前記過去に計測された環境要因の状態を示すデータと、当該環境要因の状態の計測が実行された場所及び時期に対応する場所及び時期に観測された経済動向のデータとに基づく経済影響モデルとをさらに保持し、前記提供情報取得部はさらに、前記経済影響モデルを用いて、前記環境情報に対応する経済動向を判定し、判定した前記経済動向に基づく、現在又は将来における経済動向に関連する経済情報を取得して出力してもよい。経済活動は人間の心身の活動の現れという側面があり、間接的ではあるが気象及び天体活動等も含む複合的な環境要因による影響もある程度受け得る。したがって、このような情報を用いることで、経済動向をより高い精度で推定し、その推定結果を人々に提供することができる。 Further, for example, the storage unit contains data indicating the state of the environmental factor measured in the past and the economic trend observed at the place and time corresponding to the place and time when the measurement of the state of the environmental factor was executed. Further holding an economic impact model based on the data, the provided information acquisition unit further determines the economic trend corresponding to the environmental information using the economic impact model, and is currently based on the determined economic trend. Alternatively, economic information related to future economic trends may be acquired and output. Economic activity has an aspect of manifestation of human mental and physical activities, and although it is indirect, it can be affected to some extent by complex environmental factors including meteorological and celestial activities. Therefore, by using such information, it is possible to estimate economic trends with higher accuracy and provide the estimation results to people.
 また、例えば、本発明の実施の形態における情報提供方法は、所与の日時及び場所における対象生体の生体状態に影響し得る環境要因の状態を示す環境情報を取得する環境情報取得ステップと、過去に計測された前記環境要因の状態を示すデータと、当該環境要因の状態の計測が実行された場所及び時期に対応する場所及び時期に計測された生体の生体状態を示すデータとに基づく状態モデルを保持する記憶ステップと、前記環境情報に基づいて、前記状態モデルを用いて、前記環境情報に対応する前記対象生体の前記状態を特定し、特定した前記状態に基づく、前記所与の日時における前記対象生体の前記状態に関連する情報を取得して出力する制御ステップと、を含む。これにより、本発明の実施の形態における情報提供方法は、上記情報提供装置と同様の効果を奏することができる。 Further, for example, the information providing method in the embodiment of the present invention includes an environmental information acquisition step for acquiring environmental information indicating the state of environmental factors that can affect the biological state of the target living body at a given date and time, and the past. A state model based on the data showing the state of the environmental factor measured in the above and the data showing the biological state of the living body measured at the place and time corresponding to the place and time when the measurement of the state of the environmental factor was executed. At a given date and time based on the identified state, the state of the target living body corresponding to the environmental information is specified by using the state model based on the storage step for holding the environmental information and the environmental information. It includes a control step of acquiring and outputting information related to the state of the target organism. As a result, the information providing method according to the embodiment of the present invention can have the same effect as the above-mentioned information providing device.
 また、例えば、本発明の実施の形態におけるプログラムは、プロセッサを備える情報処理装置において、前記プロセッサによって実行されることで前記プロセッサに、所与の日時及び場所における対象生体の健康状態に影響し得る環境要因の状態を示す環境情報を取得させ、過去に計測された前記環境要因の状態を示すデータと、当該環境要因の状態の計測が実行された場所及び時期に対応する場所及び時期に計測された生体の健康状態を示すデータとに基づく健康影響モデルを用いて前記環境情報に対応する健康状態を判定させ、判定した前記健康状態に基づく、前記所与の日時における前記対象生体の健康状態に関連する健康情報を取得させ、前記環境情報に基づいて生成された環境要因を用いた感情推定モデルに基づいて、前記対象生体の感情を表す指標である感情指標を、前記対象生体の感情を推定することが望まれる対象日時において特定させ、前記感情推定部が特定した前記感情指標に基づいて、前記対象日時における前記対象生体の行動を予測した結果を出力させてもよい。これにより、本発明の実施の形態におけるプログラムは、上記情報提供装置と同様の効果を奏することができる。 Further, for example, in the information processing apparatus including the processor, the program according to the embodiment of the present invention may affect the health condition of the target living body at a given date and time and place on the processor by being executed by the processor. Environmental information indicating the state of the environmental factor is acquired, and the data indicating the state of the environmental factor measured in the past and the place and time corresponding to the place and time when the measurement of the state of the environmental factor is executed are measured. The health condition corresponding to the environmental information is determined by using the health effect model based on the data indicating the health condition of the living body, and the health condition of the target living body at the given date and time is determined based on the determined health condition. Based on an emotion estimation model using environmental factors generated based on the environmental factors, the relevant health information is acquired, and the emotion index, which is an index representing the emotion of the target organism, is estimated. It may be specified at the target date and time desired to be performed, and the result of predicting the behavior of the target living body at the target date and time may be output based on the emotion index specified by the emotion estimation unit. As a result, the program according to the embodiment of the present invention can have the same effect as the above-mentioned information providing device.
 なお、これらの包括的または具体的な態様は、方法、システム、集積回路又はコンピュータ読み取り可能なCD-ROMなどの記録媒体で実現されてもよく、装置、システム、方法、集積回路、コンピュータプログラム及び記録媒体の任意な組み合わせで実現されてもよい。 It should be noted that these comprehensive or specific embodiments may be realized in a recording medium such as a method, system, integrated circuit or computer readable CD-ROM, and the device, system, method, integrated circuit, computer program and the like. It may be realized by any combination of recording media.
 以下、実施の形態について図面を参照しながら具体的に説明する。なお、以下で説明する実施の形態は、いずれも包括的又は具体的な例を示すものである。実施の形態で示される数値、形状、材料、構成要素、構成要素の位置、配置及び接続形態、方法のステップ、ステップの順序等はこのような例の説明のために用意されるものであり、本発明を限定する趣旨ではない。 Hereinafter, the embodiment will be specifically described with reference to the drawings. It should be noted that all of the embodiments described below show comprehensive or specific examples. Numerical values, shapes, materials, components, component positions, arrangements and connection forms, method steps, step sequences, etc. shown in the embodiments are provided for the purpose of explaining such an example. It is not intended to limit the present invention.
 (実施の形態)
 [概要]
 本実施の形態に係る情報提供装置は、心身の生体状態に関連する情報である生体状態に関連する情報をユーザに提供し、当該生体状態に関連する情報に基づいて、ユーザの行動を予測し、予測結果をユーザに提供する。
(Embodiment)
[Overview]
The information providing device according to the present embodiment provides the user with information related to the biological state, which is information related to the biological state of the mind and body, and predicts the user's behavior based on the information related to the biological state. , Provide the prediction result to the user.
 ここでの生体状態に関連する情報は、健康情報と呼ばれてもよい。健康情報とは、例えば、各種の傷病、疾患による症状(発作を含む)の有無、増悪又は寛解、感情(例:安心-不安、幸福感、緊張-リラックス、興奮、意欲、苛立ち等)、集中力、注意力、衝動性、活動性(多動又は寡動を含む)、躁行動、又は鬱行動に関する情報である。より具体的には、これらの生体状態、生体状態の変化の傾向若しくは変化の生じる可能性等、又はこの傾向若しくは可能性に応じた助言、手当方法若しくは注意喚起に関する情報が例として挙げられる。 Information related to the biological condition here may be called health information. Health information includes, for example, the presence or absence of symptoms (including attacks) due to various injuries and illnesses, exacerbations or remissions, emotions (eg, relief-anxiety, happiness, tension-relaxation, excitement, motivation, irritation, etc.), concentration. Information about power, anxiety, impulsivity, activity (including hyperactivity or dysphoria), manic or depressive behavior. More specifically, examples thereof include information on these biological conditions, trends in changes in biological conditions, the possibility of changes, etc., or advice, treatment methods, or alerts according to these trends or possibilities.
 このような健康情報の取得に用いることができる情報には、複数の種類がある。 There are multiple types of information that can be used to obtain such health information.
 ひとつは、ユーザが居る場所の気象に関する情報(以下、単に気象情報ともいう)である。本開示において気象の語が指すものの具体例としては、気圧、降水量、気温、湿度、風速、日照時間、降雪量及び季節が挙げられる。 One is information about the weather at the place where the user is (hereinafter, also simply referred to as weather information). Specific examples of what the term meteorology refers to in the present disclosure include atmospheric pressure, precipitation, temperature, humidity, wind speed, sunshine duration, snowfall and season.
 また、ユーザが居る場所の宇宙天気に関する情報(以下、単に宇宙天気情報ともいう)も用いられる。本開示において宇宙天気の語が指すものの具体例としては、太陽活動、地磁気活動、電離圏活動及び月齢が挙げられる。太陽活動を表す指標としては、太陽風のバルク速度、プロトン流量(proton flux、フレアに伴う放射線被爆の指標)、太陽電波流量(F10.7 index)、黒点数が例に挙げられる。地磁気活動を表す指標としては、K指数(地磁気擾乱)が例に挙げられる。月齢は周期性の高い運動をする天体間の相対位置の変化で生じるものであり、時に突発的な変化を示すフレア又は地磁気擾乱のような現象ではない。しかしながら、例えば満月とヒトの活動等との相関を指摘する報告は多数ある(例えば、非特許文献15参照)。この点を考慮し、本開示においては月齢を宇宙天気のひとつに含める。 In addition, information on the space weather of the place where the user is (hereinafter, also simply referred to as space weather information) is also used. Specific examples of what the term space weather refers to in this disclosure include solar activity, geomagnetic activity, ionospheric activity, and moon age. Examples of indicators representing solar activity include the bulk velocity of the solar wind, the proton flow rate (proton flux, an index of radiation exposure due to flare), the solar radio wave flow rate (F10.7 index), and the number of black spots. As an index showing the geomagnetic activity, the K index (geomagnetic disturbance) can be mentioned as an example. Moon age is caused by changes in the relative positions of celestial bodies that move with high periodicity, and is not a phenomenon such as flare or geomagnetic disturbance that sometimes shows sudden changes. However, there are many reports pointing out the correlation between the full moon and human activity (see, for example, Non-Patent Document 15). In consideration of this point, the age of the moon is included in one of the space weathers in this disclosure.
 その他、宇宙天気とは別に、銀河宇宙線、および、地球の地表と電離層との間に常時存在する極極超長波であるシューマン共振も、健康情報の取得に用い得る情報として用い得るというのが本発明者らの考えである。シューマン共振は、雷の放電、又は太陽風による電離層の振動がそのエネルギー源と考えられており、その強弱の変化と健常者の血圧の変化との相関についての報告がある(非特許文献16参照)。 In addition to space weather, the book says that galactic cosmic rays and Schumann resonance, which is an extremely long wave that always exists between the earth's surface and the ionosphere, can also be used as information that can be used to acquire health information. This is the idea of the inventors. The energy source of Schumann resonance is considered to be the discharge of lightning or the vibration of the ionosphere due to the solar wind, and there is a report on the correlation between the change in strength and the change in blood pressure of healthy subjects (see Non-Patent Document 16). ..
 なお、これらの指標には地球規模のものがある。そして「ユーザが居る場所」は、地球上の限られた場所のみならず、地球全体を指す場合もあり、又はさらに地球外の場所、例えば、月その他の天体及び宇宙空間にある宇宙機を指す場合もある。本実施の形態に係る情報提供装置は、地球外に居るユーザにも適用可能であり、宇宙天気情報は、各場所に居るユーザの心身に影響するものは、取得可能な限り利用されてもよい。また、気象情報、宇宙天気情報又はシューマン共振の情報を取得するための観測がユーザの居場所とは離れた場所で行われている場合、観測された現象又は生体状態がユーザの居場所で発生する時間差又は可能性を必要に応じて考慮に入れて、取得される健康情報の内容が決定されてもよい。 Note that some of these indicators are global. And "the place where the user is" may refer not only to a limited place on the earth but also to the whole earth, or further to a place outside the earth, for example, the moon and other celestial bodies and spacecraft in outer space. In some cases. The information providing device according to the present embodiment can be applied to a user who is outside the earth, and space weather information that affects the mind and body of the user at each place may be used as long as it can be obtained. .. In addition, when observations for acquiring weather information, space weather information, or Schumann resonance information are performed at a location away from the user's location, the time difference between the observed phenomenon or biological condition occurring at the user's location. Alternatively, the content of the health information to be obtained may be determined, taking into account the possibilities as necessary.
 上記に挙げた、気象、宇宙天気、及びシューマン共振は、いずれも生体であるユーザの生体状態に影響し得るものであり、本開示における環境要因の例である。 The above-mentioned weather, space weather, and Schumann resonance can all affect the biological state of the user who is a living body, and are examples of environmental factors in the present disclosure.
 また、健康情報の取得には、さらにユーザの個体に固有の情報(以下、個体情報ともいう)が用いられてもよい。具体例としては、生体情報及び遺伝情報が挙げられる。本開示における生体情報の具体例としては、ユーザの性別、年齢、脈拍、心音、血圧、呼吸数、呼気その他の生体ガス成分、体温、発汗、脳波、活動量、睡眠時間、摂取カロリー、摂取栄養素、服用薬物(例:医薬品、たばこ等のし好品)、体組成、及び血液等の標本に対する検体検査又は各種の臨床検査によって得られる情報が挙げられる。また、身長、体重、腹囲、及び各種の体格指数等の、ユーザの体格を示す情報も本開示における生体情報に含まれ得る。健康情報の取得には、このような情報の直近のもののみが用いられてもよいし、又は履歴が用いられてもよい。遺伝情報は、唾液等の標本から取得される情報でもあるが、ここでは、遺伝子を解析して取得される、例えばユーザの体質、各種の疾病に関するリスク等のうち、先天的で、上記の生体情報より潜在的なものも含み得る。その他、本開示では、ユーザの労働情報(就業状態、労働時間、給与額)、及びユーザの誕生時期(日、月又は季節)も、健康情報の取得に用いることができる個体情報に含め得る。喘息、クローン病、精神疾患等の一部の疾患のリスクと誕生時期とには関連があることが報告されている(非特許文献17参照)。 Further, in order to acquire health information, information unique to the individual user (hereinafter, also referred to as individual information) may be used. Specific examples include biological information and genetic information. Specific examples of biological information in the present disclosure include gender, age, pulse, heartbeat, blood pressure, respiratory rate, exhaled breath and other biological gas components, body temperature, sweating, brain waves, activity amount, sleep time, calorie intake, and nutrient intake. , Drugs to be taken (eg, pharmaceuticals, favorite foods such as tobacco), body composition, and information obtained by sample tests or various clinical tests on specimens such as blood. In addition, information indicating the user's physique, such as height, weight, abdominal circumference, and various anthropometric indexes, may be included in the biological information in the present disclosure. For the acquisition of health information, only the latest information such as such information may be used, or history may be used. The genetic information is also information obtained from a sample such as saliva, but here, among the information obtained by analyzing the gene, for example, the constitution of the user, the risk related to various diseases, etc., the above-mentioned living body is congenital. It can also include more potential than information. In addition, in the present disclosure, the user's labor information (working status, working hours, salary) and the user's birth time (day, month or season) may be included in the individual information that can be used for acquiring health information. It has been reported that there is a relationship between the risk of some diseases such as asthma, Crohn's disease, and psychiatric disorders and the time of birth (see Non-Patent Document 17).
 これらのような個体情報が示す個体の状態もまた、ユーザの健康状態との関連性があると知られているものであり、ユーザの健康状態に影響し得るものを含む。 The individual condition indicated by individual information such as these is also known to be related to the user's health condition, and includes those that may affect the user's health condition.
 なお、ここまでは「ユーザ」の語を、本実施の形態に係る情報提供装置による健康状態の判定対象者を指して用いたが、本開示においてここまでの文脈における「ユーザ」は、狭義のユーザである。より広義のユーザには、健康情報によって健康状態に関連する情報が示される人物の健康管理に関わってこの健康情報を利用する人々、例えば家族、医療関係者及び介護関係者が含まれ得る。また、上記でも簡単に触れたように、本開示に係る技術は、ヒト以外の生体の健康状態に関連する健康情報の取得にも用い得る。ここでのヒト以外の生体とは、例えば産業動物、家庭動物、展示動物、又は実験動物であってもよい。さらには、捕獲若しくは養殖の対象である水産動物、又は忌避若しくは駆除対象の害獣及び害虫等について一部の個体を標本としてその個体の上記のような個体情報を収集し、その個体を含む集団の移動、繁殖等の活動、又は病気の流行等に焦点を当てての健康状態に関連する健康情報の取得にも適用の可能性がある。これらの場合における健康情報を利用する人々も広義のユーザに含まれる。以下での「ユーザ」の語については、文脈に応じて適切な意味で、また、可能な場合にはいずれの意味でも理解されたい。いずれの意味であるかを適宜明示又は例示する場合もある。 Up to this point, the term "user" has been used to refer to a person whose health condition has been determined by the information providing device according to the present embodiment, but in the present disclosure, "user" in the context so far has been used in a narrow sense. You are a user. Users in a broader sense may include people who use this health information in the health care of a person whose health information provides information related to their health status, such as family members, healthcare professionals and caregivers. Further, as briefly mentioned above, the technique according to the present disclosure can also be used for acquiring health information related to the health condition of a living body other than human. The living body other than humans here may be, for example, an industrial animal, a domestic animal, an exhibited animal, or an experimental animal. Furthermore, for aquatic animals that are the target of capture or aquaculture, or pests and pests that are the target of repellent or extermination, some individuals are sampled and the above-mentioned individual information of the individual is collected, and the population including the individual is collected. It may also be applied to the acquisition of health information related to health conditions focusing on activities such as movement and breeding of animals, or epidemics of diseases. People who use health information in these cases are also included in the broad sense of users. The term "user" below should be understood in the appropriate sense depending on the context and, if possible, in any sense. In some cases, the meaning may be clearly stated or exemplified as appropriate.
 [構成]
 次に、上述した環境要因の状態を示す情報(以下、環境情報ともいう)及び個体情報の入力を受け、これらを用いて健康情報を出力する本実施の形態に係る情報提供装置の構成について例を用いて説明する。図1は、本実施の形態に係る情報提供装置10の構成を説明するための図である。
[Constitution]
Next, an example of the configuration of the information providing device according to the present embodiment, which receives input of information indicating the state of the above-mentioned environmental factors (hereinafter, also referred to as environmental information) and individual information and outputs health information using these. Will be described using. FIG. 1 is a diagram for explaining the configuration of the information providing device 10 according to the present embodiment.
 この例において、情報提供装置10は、計測機器20及びサーバ50と共に情報提供システム1を構成する。 In this example, the information providing device 10 constitutes the information providing system 1 together with the measuring device 20 and the server 50.
 情報提供装置10は、計測機器20と接続される。計測機器20は、ユーザの生体情報を取得するためのセンサ21を備える。計測機器20は、例えば脈拍計、血圧計、心電計、体温計、発汗計、脳波計、又は体重計等であり、センサ21は、これらの機器で用いられる、圧力、温度、動き、電気、磁気、電磁波等を感知する各種のセンサである。センサ21を用いた計測結果に基づいて取得されたユーザの生体情報は、計測機器20から情報提供装置10へと入力される。図1に示される計測機器20は1個のみであるが、情報提供装置10に生体情報を提供する計測機器の個数及び種類数には制限はない。 The information providing device 10 is connected to the measuring device 20. The measuring device 20 includes a sensor 21 for acquiring biometric information of the user. The measuring device 20 is, for example, a pulse rate monitor, a sphygmomanometer, an electrocardometer, a thermometer, a sweat meter, a brain wave meter, a weight scale, etc., and the sensor 21 is a pressure, temperature, movement, electricity, etc. used in these devices. Various sensors that detect magnetism, electromagnetic waves, etc. The user's biological information acquired based on the measurement result using the sensor 21 is input from the measuring device 20 to the information providing device 10. Although the number of measuring devices 20 shown in FIG. 1 is only one, there is no limit to the number and types of measuring devices that provide biological information to the information providing device 10.
 なお、計測機器20は、ユーザが携帯又は装着可能であって、生体情報を常時、又はユーザの操作に従って随時取得可能であってもよいし、設定されたスケジュールに従って間欠的に生体情報を取得してもよい。または、計測機器20は、ユーザの自宅又はユーザが利用する施設等に設置される機器であってもよい。この場合、計測機器20による生体情報は、ユーザが能動的に計測機器20を使用することで取得されるものに限定されない。例えば居室においてリモートで計測されるユーザの皮膚温度、居室内の空気成分の分析に基づく生体ガス成分、ユーザが踏む、押す、握る、腰掛ける又は横たわる等するものに設置されたセンサで感知される圧力等の情報が情報提供装置10に提供される生体情報として取得されてもよい。 The measuring device 20 may be portable or wearable by the user, and may be able to acquire biometric information at all times or at any time according to the user's operation, or may intermittently acquire biometric information according to a set schedule. You may. Alternatively, the measuring device 20 may be a device installed at the user's home or a facility used by the user. In this case, the biological information obtained by the measuring device 20 is not limited to the information acquired by the user actively using the measuring device 20. For example, the user's skin temperature measured remotely in the living room, the biogas component based on the analysis of the air component in the living room, the pressure sensed by the sensor installed on the user stepping, pushing, grasping, sitting or lying down, etc. Etc. may be acquired as biometric information provided to the information providing device 10.
 また、計測機器20によって取得された生体情報は、計測機器20から情報提供装置10へ常時、又はユーザの操作に従って随時送信されてもよいし、設定されたスケジュールに従って間欠的に送信されてもよい。そして情報提供装置10と計測機器20とは、通信のために無線又は有線で常時接続されていてもよいし、必要な時だけ接続されてもよい。また、生体情報は計測機器20から情報提供装置10に直接送信されるのではなく、双方が通信可能に接続される記憶装置、例えばホームサーバ又はクラウドサーバを介して授受されてもよい。 Further, the biological information acquired by the measuring device 20 may be constantly transmitted from the measuring device 20 to the information providing device 10 or at any time according to the operation of the user, or may be intermittently transmitted according to a set schedule. .. The information providing device 10 and the measuring device 20 may be always connected wirelessly or by wire for communication, or may be connected only when necessary. Further, the biological information is not directly transmitted from the measuring device 20 to the information providing device 10, but may be exchanged via a storage device, for example, a home server or a cloud server, to which both are communicably connected.
 さらに情報提供装置10は、通信ネットワークを介してサーバ50と通信可能なように接続される。例えばサーバ50はウェブサーバ、通信ネットワークはインターネットである。このウェブサーバは、例えば観測機関又は研究機関が観測して取得した気象情報、宇宙天気情報及びシューマン共振の情報を含む環境情報を記憶装置に保持している。情報提供装置10は、この環境情報を、ユーザの操作に従って随時、又は設定されたスケジュールに従って通信ネットワークを介してサーバ50に接続して間欠的に取得してもよい。または、サーバ50から、情報が更新される度に、又は設定されたスケジュールに従って、通信ネットワークを介して情報提供装置10に送信されてもよい。 Further, the information providing device 10 is connected so as to be able to communicate with the server 50 via the communication network. For example, the server 50 is a web server, and the communication network is the Internet. This web server stores environmental information including meteorological information, space weather information, and Schumann resonance information observed and acquired by an observation institution or a research institution in a storage device. The information providing device 10 may intermittently acquire this environmental information by connecting to the server 50 at any time according to the operation of the user or via the communication network according to the set schedule. Alternatively, the information may be transmitted from the server 50 to the information providing device 10 via the communication network every time the information is updated or according to a set schedule.
 情報提供装置10は、ユーザインタフェース12、通信部14、記憶部16、及び制御部18を機能的な構成要素として備える。情報提供装置10は、例えばプロセッサ(演算処理装置)及びメモリ(記憶装置)等を含む情報処理装置によって実現され、これらの構成要素は、プロセッサがメモリに記憶される1個又は複数個のプログラムを実行し、各種のハードウェアと協働することで実現される。図2Aは、このような情報処理装置のハードウェア構成の例を示すブロック図である。 The information providing device 10 includes a user interface 12, a communication unit 14, a storage unit 16, and a control unit 18 as functional components. The information providing device 10 is realized by an information processing device including, for example, a processor (arithmetic processing unit) and a memory (storage device), and these components are one or a plurality of programs in which the processor is stored in the memory. It is realized by executing and working with various hardware. FIG. 2A is a block diagram showing an example of the hardware configuration of such an information processing device.
 図2Aに示す矩形の各ブロックが情報処理装置のハードウェア構成要素を示す。入力装置は、例えばキーボード、タッチスクリーン、マウス又はタッチパッド等のポインティングデバイス、マイク、各種の物理ボタン等のスイッチ類である。また、演算処理装置は、例えばCPU(Central Processing Unit、中央演算処理装置)である。また、出力装置は、例えばディスプレイ、スピーカ、ランプ、バイブレータ等である。また、記憶装置は、例えばハードディスク、フラッシュメモリなどの不揮発性の記録媒体、及びRAM(Random Access Memory)等の揮発性の記録媒体である。また、通信装置は、例えばネットワークカード等の、有線又は無線の通信を実現する通信モジュールである。これらのハードウェア構成要素は、相互の通信のためのバスに接続される。図2B、図2C及び図2Dは、このようなハードウェア構成を備えて情報提供装置10を実現する情報処理装置の例を示す模式図である。図2Bはスマートフォン、図2Cは、スマートウォッチ、図2Dは、デスクトップ型のパーソナルコンピュータをこのような情報処理装置の例として示す。ただし、情報提供装置10を実現し得る情報処理装置はこれらに限定されない。他の例として、タブレット型又はノート型のコンピュータ、及びスマートアイウェア又は活動量計等のウェアラブル端末も挙げられる。また、これらのような情報処理装置のうち、2つ以上の組み合わせによって情報提供装置10が実現されてもよい。 Each rectangular block shown in FIG. 2A shows the hardware component of the information processing device. The input device is, for example, a keyboard, a touch screen, a pointing device such as a mouse or a touch pad, a microphone, and switches such as various physical buttons. The arithmetic processing unit is, for example, a CPU (Central Processing Unit, central processing unit). The output device is, for example, a display, a speaker, a lamp, a vibrator, or the like. The storage device is, for example, a non-volatile recording medium such as a hard disk or a flash memory, and a volatile recording medium such as a RAM (Random Access Memory). Further, the communication device is a communication module such as a network card that realizes wired or wireless communication. These hardware components are connected to a bus for communication with each other. 2B, 2C, and 2D are schematic views showing an example of an information processing device that realizes the information providing device 10 with such a hardware configuration. FIG. 2B shows a smartphone, FIG. 2C shows a smart watch, and FIG. 2D shows a desktop personal computer as an example of such an information processing device. However, the information processing device that can realize the information providing device 10 is not limited to these. Other examples include tablet or notebook computers and wearable terminals such as smart eyewear or activity meters. Further, the information providing device 10 may be realized by a combination of two or more of the information processing devices such as these.
 なお、情報処理装置の上記の構成は一例であり、情報提供装置10を実現し得る情報処理装置の構成はこの例に限定されない。例えば、電磁的記録媒体を用いたリムーバブルメディアからデータを取得するための読取装置、入力装置としてのカメラを備えてもよい。 The above configuration of the information processing device is an example, and the configuration of the information processing device that can realize the information providing device 10 is not limited to this example. For example, a reading device for acquiring data from a removable medium using an electromagnetic recording medium, and a camera as an input device may be provided.
 図1を再び参照して情報提供装置10の構成要素の説明を続ける。 The explanation of the components of the information providing device 10 will be continued with reference to FIG. 1 again.
 ユーザインタフェース12は、健康情報の取得に用いる情報のユーザによる入力を受け付け、また、取得された健康情報をユーザに提示する。図2Aのハードウェアでは入力装置及び出力装置を用いて実現される機能的な構成要素である。 The user interface 12 accepts input by the user of information used for acquiring health information, and presents the acquired health information to the user. The hardware of FIG. 2A is a functional component realized by using an input device and an output device.
 ユーザインタフェース12から入力される情報には、ユーザの個体情報のうち、計測機器20で計測されないものが含まれる。例えば、健康状態についての判定対象者であるユーザの誕生時期(生年月日又は季節)、出生地又は生育地、現在の居住地、性別、自覚症状、本人又は家族の病歴、労働情報といった、健康状態の判定に利用可能な情報がユーザインタフェース12を介して入力されてもよい。また、摂取カロリー、摂取栄養素、及び服用薬物は、例えばユーザがユーザインタフェース12を用いて、摂取した物及び量を選択肢から選択するなどして入力してもよい。または、ユーザがカメラを用いて撮影した画像から食事内容が認識されてカロリー計算又は栄養素の推定がなされてもよい。服用薬物についても同様に画像を用いて認識がなされてもよい。なお、個体情報として利用される遺伝情報は、ユーザインタフェース12を用いて情報提供装置10に入力されてもよい。また、遺伝情報が記録されたリムーバブルメディアから読取装置を用いて読み取られるものでもよい。また、標本から遺伝情報を取得するサービスの提供者から、通信ネットワークを介して下記の通信部14によって取得されるものでもよい。その他、医療機関が保持する電子カルテに含まれる情報も上記の各経路で情報提供装置10に個体情報として入力され、利用されてもよい。 The information input from the user interface 12 includes individual information of the user that is not measured by the measuring device 20. For example, health such as birth time (date of birth or season), place of birth or habitat, current place of residence, gender, subjective symptoms, medical history of the person or family, labor information, etc. Information that can be used to determine the state may be input via the user interface 12. Further, the calorie intake, the nutrient intake, and the drug to be ingested may be input by, for example, the user using the user interface 12 to select the ingested substance and amount from the options. Alternatively, the meal content may be recognized from the image taken by the user using a camera to calculate calories or estimate nutrients. Similarly, the drug to be taken may be recognized by using an image. The genetic information used as individual information may be input to the information providing device 10 using the user interface 12. Further, it may be read from a removable medium in which the genetic information is recorded by using a reading device. Further, it may be acquired by the following communication unit 14 via a communication network from a service provider that acquires genetic information from a sample. In addition, the information contained in the electronic medical record held by the medical institution may also be input to the information providing device 10 as individual information by each of the above routes and used.
 通信部14は、健康情報の取得に用いる環境情報を、通信ネットワークを介してサーバ50から受信する。図3は、情報提供装置10において健康情報の取得に用いられる環境情報のデータ構成の例を示す。なお、環境情報は、所与の日時におけるユーザの居場所に対応するものである。例えば現在のユーザの居場所は、情報提供装置10がGPS(Global Positioning System)等の測位システムに対応している場合には、測位システムを用いて取得された位置情報が通信部14からサーバ50に送信され、この位置情報が示す位置に対応する気象情報等がサーバ50から情報提供装置10に提供されてもよい。また、現在のユーザの居場所を示す他の情報として、情報提供装置10による通信ネットワークへの接続に用いられる情報のうち、ある程度の精度で位置がわかるもの、例えばIP(Internet Protocol)アドレスがサーバ50で利用されてもよい。また、ユーザがユーザインタフェース12を用いて明示的に入力する情報がユーザの居場所を示す位置情報として利用されてもよい。この場合は前の2つの例と違って、位置情報が示す所与の日時におけるユーザ(又はユーザが使用している情報提供装置10)の居場所は現在の位置に限定されず、過去又は将来における位置であってもよい。また、ユーザの位置情報については、情報提供装置10がアクセス可能なスケジュール情報から取得されてもよい。例えば、情報提供装置10を実現する情報処理端末上のスケジュール管理アプリケーション、又はこの情報処理端末から利用されるスケジュール管理サービスを提供する遠隔のサーバから取得されてもよい。そしてサーバ50からは、その位置における過去の記録又は将来の予報を気象情報等として情報提供装置10に提供される。なお、過去の気象情報については、測位システム等を用いて取得された位置情報又はIPアドレス等の情報の履歴に対応するものが提供されてもよい。 The communication unit 14 receives the environmental information used for acquiring the health information from the server 50 via the communication network. FIG. 3 shows an example of a data structure of environmental information used for acquiring health information in the information providing device 10. The environmental information corresponds to the user's whereabouts at a given date and time. For example, as for the current location of the user, when the information providing device 10 is compatible with a positioning system such as GPS (Global Positioning System), the position information acquired by using the positioning system is transmitted from the communication unit 14 to the server 50. The weather information or the like that is transmitted and corresponds to the position indicated by the position information may be provided from the server 50 to the information providing device 10. In addition, as other information indicating the current location of the user, among the information used for connecting to the communication network by the information providing device 10, the information whose position can be known with a certain degree of accuracy, for example, the IP (Internet Protocol) address is the server 50. It may be used in. Further, the information explicitly input by the user using the user interface 12 may be used as the position information indicating the user's whereabouts. In this case, unlike the previous two examples, the location of the user (or the information providing device 10 used by the user) at a given date and time indicated by the location information is not limited to the current location, and is in the past or future. It may be a position. Further, the user's location information may be acquired from the schedule information accessible to the information providing device 10. For example, it may be acquired from a schedule management application on an information processing terminal that realizes the information providing device 10, or a remote server that provides a schedule management service used from the information processing terminal. Then, the server 50 provides the information providing device 10 with a past record or a future forecast at that position as weather information or the like. As for the past weather information, information corresponding to the history of information such as position information or IP address acquired by using a positioning system or the like may be provided.
 このような通信部14は、図2Aの通信装置を用いて実現される機能的な構成要素である。 Such a communication unit 14 is a functional component realized by using the communication device of FIG. 2A.
 環境情報取得部17は、所与の日時及び場所における対象生体の生体状態に影響し得る環境要因の状態を示す環境情報を取得する。環境情報取得部17は、サーバ50から環境情報を取得する。環境情報とは、例えば、降水量、気温、湿度、日照時間、F10.7 index、銀河宇宙線量等の環境要因を示すデータである。 The environmental information acquisition unit 17 acquires environmental information indicating the state of environmental factors that can affect the biological state of the target living body at a given date and time and place. The environment information acquisition unit 17 acquires environment information from the server 50. Environmental information is data showing environmental factors such as precipitation, temperature, humidity, sunshine duration, F10.7 index, and galactic cosmic dose.
 制御部18は、計測機器20から取得した生体情報を含むユーザの個体情報と、サーバ50から取得した環境情報に対応するユーザの生体状態を判定またはユーザの行動を予測する。図4に計測機器20から取得される生体情報のデータ構成例を示す。この判定は、記憶部16に保持されている状態モデル、感情推定モデルおよび健康影響モデルをこれらの情報に適用して実行される。 The control unit 18 determines the biological state of the user corresponding to the individual information of the user including the biological information acquired from the measuring device 20 and the environmental information acquired from the server 50, or predicts the behavior of the user. FIG. 4 shows an example of data configuration of biological information acquired from the measuring device 20. This determination is performed by applying the state model, the emotion estimation model, and the health effect model held in the storage unit 16 to the information.
 状態モデルは、過去に計測された環境要因の状態を示すデータ及び過去に計測されたユーザの生体状態のデータに基づくモデルであり、例えば、過去に計測された環境要因の状態を示すデータと、その計測が行われた場所及び時期に計測されたユーザの生体状態のデータとに基づいて、環境要因の状態とユーザの生体状態との関連性を統計的に解析することによって得られる。具体例としては、個体情報に含まれる項目の値及び環境情報等に含まれる項目の値を説明変数、健康情報の項目に含まれるもの、例えばある疾患の症状の発生率を目的変数として実施された重回帰分析によって得られた重回帰式である。また、別の具体例としては、個体情報に含まれる項目の値及び環境情報等に含まれる項目の値を説明変数、健康情報の項目に含まれるもの、例えばユーザの感情状態の発生率を目的変数として実施された重回帰分析によって得られた重回帰式である。または、このような統計的な解析によって得られた結果に基づくテーブルであってもよい。また別の例としては、環境要因の状態を示すデータからユーザの生体状態の諸項目について推論するよう訓練された、ディープニューラルネットワークなどの機械学習の推論モデルであってもよい。ここで、機械学習は、深層学習を行う学習モデルでもよい。このような推論モデルは、例えば過去に計測によって得らえた気象、宇宙天気、及びシューマン共振の状態を示すデータを学習データとして用い、その計測が行われた場所及び時期に計測されたユーザの状態(疾患の状態、健康の状態または感情の状態)のデータを教師データとして用いる教師あり学習によって取得される。 The state model is a model based on the data showing the state of the environmental factor measured in the past and the data of the biological state of the user measured in the past. For example, the data showing the state of the environmental factor measured in the past and the data showing the state of the environmental factor measured in the past. It is obtained by statistically analyzing the relationship between the state of environmental factors and the biological state of the user based on the data of the biological state of the user measured at the place and time when the measurement was performed. As a specific example, the value of the item included in the individual information and the value of the item included in the environmental information etc. are used as explanatory variables, and the value of the item included in the item of health information, for example, the incidence rate of the symptom of a certain disease is used as the objective variable. It is a multiple regression equation obtained by multiple regression analysis. Further, as another specific example, the value of the item included in the individual information and the value of the item included in the environmental information are included in the explanatory variable and the item of the health information, for example, for the purpose of the occurrence rate of the user's emotional state. It is a multiple regression equation obtained by multiple regression analysis performed as a variable. Alternatively, it may be a table based on the results obtained by such statistical analysis. Another example may be a machine learning inference model such as a deep neural network trained to infer various items of the user's biological state from data indicating the state of environmental factors. Here, machine learning may be a learning model that performs deep learning. Such an inference model uses, for example, data indicating the state of weather, space weather, and Schumann resonance obtained by measurement in the past as learning data, and the state of the user measured at the place and time when the measurement was performed. Obtained by supervised learning using data (disease state, health state or emotional state) as teacher data.
 また、状態モデルにおいて、用いられる環境情報は、例えば、気圧、降水量、気温、湿度、風速、日照時間、降雪量及び季節の少なくともひとつを指す気象と、太陽活動、地磁気活動、電離圏活動、宇宙線量及び水星、金星、地球、火星、木星、土星、天王星、海王星および月の満ち欠けの少なくともひとつと社会情勢と曜日と環境ホルモンとを含む。また、環境情報は、気圧、降水量、雲量、気温、湿度、風速、日照時間、雷数、降雪量及び季節の少なくともひとつを指す気象と、太陽活動、地磁気活動、電離圏活動、宇宙線量、銀河宇宙線量、F10.7インデックス、黒点数、プロトン現象、放射線帯電子、電離圏嵐、デリンジャー現象、スポラディックE層、月齢の少なくともひとつを指す宇宙天気の累積曝露量を含む。また、環境要因は、集団の心理状態を示す集団心理状態情報を含んでもよい。 In addition, the environmental information used in the state model includes, for example, meteorology, which indicates at least one of atmospheric pressure, precipitation, temperature, humidity, wind speed, sunshine time, snowfall, and season, and solar activity, geomagnetic activity, and ionization zone activity. Includes cosmic dose and at least one of Mercury, Venus, Earth, Mars, Jupiter, Saturn, Tenno, Neptune and the Moon, social conditions, days and environmental hormones. Environmental information includes meteorology, solar activity, geomagnetic activity, ionospheric activity, cosmic dose, which refers to at least one of pressure, precipitation, cloud volume, temperature, humidity, wind speed, sunshine time, number of lightning, snowfall, and season. Includes galactic cosmic dose, F10.7 index, black dot count, proton phenomenon, radiation belt electrons, ionospheric storms, Delinger phenomenon, sporadic E layer, and cumulative exposure to space weather that refers to at least one of the ages of the moon. In addition, the environmental factor may include group psychological state information indicating the psychological state of the group.
 感情推定モデルは、状態モデルのうち、ユーザの感情の推定に特化したモデルである。感情推定モデルは、過去に計測された環境要因の状態を示すデータ及び過去に計測されたユーザの感情状態のデータに基づくモデルであり、例えば、過去に計測された環境要因の状態を示すデータと、その計測が行われた場所及び時期に計測されたユーザの感情状態のデータとに基づいて、環境要因の感情状態とユーザの生体状態との関連性を統計的に解析することによって得られる。具体例としては、個体情報に含まれる項目の値及び環境情報等に含まれる項目の値を説明変数、健康情報の項目に含まれるもの、例えばユーザの感情状態の発生率を目的変数として実施された重回帰分析によって得られた重回帰式である。または、このような統計的な解析によって得られた結果に基づくテーブルであってもよい。また別の例としては、環境要因の状態を示すデータからユーザの感情状態の諸項目について推論するよう訓練された、ディープニューラルネットワークなどの機械学習の推論モデルであってもよい。ここで、機械学習は、深層学習を行う学習モデルでもよい。このような推論モデルは、例えば過去に計測によって得らえた気象、宇宙天気、及びシューマン共振の状態を示すデータを学習データとして用い、その計測が行われた場所及び時期に計測されたユーザの感情状態のデータを教師データとして用いる教師あり学習によって取得される。ここで、ユーザの感情状態とは、幸福度、喜怒哀楽、器質性精神疾患、作用物質による精神・行動障害、ならびに、統合失調症、気分障害および神経症性障害を含む内因性精神疾患を含む。 The emotion estimation model is a state model that specializes in estimating the user's emotions. The emotion estimation model is a model based on the data showing the state of the environmental factor measured in the past and the data of the emotional state of the user measured in the past, for example, the data showing the state of the environmental factor measured in the past. , It is obtained by statistically analyzing the relationship between the emotional state of environmental factors and the biological state of the user based on the data of the emotional state of the user measured at the place and time when the measurement was performed. As a specific example, the value of the item included in the individual information and the value of the item included in the environmental information etc. are used as explanatory variables, and the value of the item included in the item of health information, for example, the occurrence rate of the user's emotional state is used as the objective variable. It is a multiple regression equation obtained by multiple regression analysis. Alternatively, it may be a table based on the results obtained by such statistical analysis. Another example may be a machine learning inference model such as a deep neural network trained to infer various items of the user's emotional state from data indicating the state of environmental factors. Here, machine learning may be a learning model that performs deep learning. Such an inference model uses, for example, data indicating the state of weather, space weather, and Schumann resonance obtained by measurement in the past as learning data, and the user's emotion measured at the place and time when the measurement was performed. Obtained by supervised learning using state data as teacher data. Here, the user's emotional state includes happiness, emotions, organic psychiatric disorders, mental / behavioral disorders due to agents, and intrinsic psychiatric disorders including schizophrenia, mood disorders, and neurotic disorders. Including.
 具体的には、ユーザの感情状態とは、易怒性、安らぎ、楽しさ、親しみ、尊敬・尊さ、感謝、気持ちが良い、誇らしい、感動、喜び、悲しさ、寂しさ、不満、切なさ、苦しさ、不安、憂鬱、辛さ、好き、嫌悪、恥ずかしい、焦り、驚き、怒り、幸福感、恨み、恐れ(恐縮等の意味で)、恐怖、悔しさ、祝う気持ち、困惑、きまずさ、興奮、悩み、願望、失望、あわれみ、見下し、謝罪、ためらい、不快、怠さ、あきれ、心配、緊張、妬み、憎い、残念、情けない、穏やか、抑鬱・不安、怠慢、非活動的快、集中、敵意、活動的快、親和および驚愕という感情、ならびに、幸福度等を含む。 Specifically, the emotional state of the user is irritability, comfort, enjoyment, familiarity, respect / respect, gratitude, pleasantness, pride, impression, joy, sadness, loneliness, dissatisfaction, and sadness. , Suffering, anxiety, depression, pain, like, hatred, embarrassment, impatience, surprise, anger, happiness, resentment, fear (in the sense of excuse, etc.), fear, regret, celebrating feelings, embarrassment, awkwardness, Excitement, worries, aspirations, disappointment, mercy, disdain, apology, hesitation, discomfort, negligence, disappointment, worry, tension, jealousy, hate, regret, pity, calm, depression / anxiety, negligence, inactive pleasure, concentration, Includes feelings of hostility, active pleasure, affinity and startle, as well as happiness.
 健康影響モデルは、過去に計測された環境要因の状態を示すデータ及び過去に計測された人の健康状態のデータに基づくモデルであり、例えば、過去に計測された環境要因の状態を示すデータと、その計測が行われた場所及び時期に計測されたユーザの健康状態のデータとに基づいて、環境要因の状態とユーザの健康状態との関連性を統計的に解析することによって得られる。具体例としては、個体情報に含まれる項目の値及び環境情報等に含まれる項目の値を説明変数、健康情報の項目に含まれるもの、例えばある疾患の症状の発生率を目的変数として実施された重回帰分析によって得られた重回帰式である。または、このような統計的な解析によって得られた結果に基づくテーブルであってもよい。また別の例としては、環境要因の状態を示すデータからユーザの健康状態の諸項目について推論するよう訓練された、ディープニューラルネットワークなどの機械学習の推論モデルであってもよい。ここで、機械学習は、深層学習を行う学習モデルでもよい。このような推論モデルは、例えば過去に計測によって得らえた気象、宇宙天気、及びシューマン共振の状態を示すデータを学習データとして用い、その計測が行われた場所及び時期に計測されたユーザの健康状態のデータを教師データとして用いる教師あり学習によって取得される。 The health effect model is a model based on the data showing the state of environmental factors measured in the past and the data of the health condition of a person measured in the past, for example, the data showing the state of environmental factors measured in the past. , It is obtained by statistically analyzing the relationship between the state of environmental factors and the user's health state based on the data of the user's health state measured at the place and time when the measurement was performed. As a specific example, the value of the item included in the individual information and the value of the item included in the environmental information etc. are used as explanatory variables, and those included in the item of health information, for example, the incidence rate of the symptom of a certain disease is used as the objective variable. It is a multiple regression equation obtained by multiple regression analysis. Alternatively, it may be a table based on the results obtained by such statistical analysis. Another example may be a machine learning inference model such as a deep neural network trained to infer various items of the user's health condition from data indicating the state of environmental factors. Here, machine learning may be a learning model that performs deep learning. Such an inference model uses, for example, data indicating the state of weather, space weather, and Schumann resonance obtained by measurement in the past as learning data, and the user's health measured at the place and time when the measurement was performed. Obtained by supervised learning using state data as teacher data.
 さらに制御部18は、上記の状態モデルの判定の結果である生体状態に基づいて、当該ユーザの生体状態に関連する状態情報を取得し、取得した状態情報に基づいて予測されたユーザの行動または生体状態を出力する。状態情報の内容は、判定の結果そのもの、例えばユーザにある疾患の症状が発生する可能性であってもよいし、症状の増悪又は寛解等の変化の可能性であってもよい。また、このような判定の結果に応じた助言、手当方法若しくは注意喚起を内容とする情報であってもよい。このような内容の健康情報は、例えば発症又は症状の変化及びその可能性に応じたメッセージのリストが記憶部16に保持され、制御部18は、上記の判定の結果に応じてこのメッセージを取得してもよい。または、制御部18は、上記の判定の結果を、通信部14を介して外部のAI(Artificial Intelligence)サーバに送信し、判定の結果に応じた適切な助言等の情報をAIサーバから健康情報として取得してもよい。このAIサーバは、このような情報の提供のためにあらかじめ用意されるものである。取得した健康情報を、制御部18は、ユーザインタフェース12を介してユーザに提供する。なお、健康情報を示すデータの形式は、文字、図形等を含む視覚情報若しくは音声、又はこれらの組み合わせのいずれであってもよい。また、これらのデータの提示と共に、又はこれらに代えて音声ではない音(ビープ音等)、ランプの点灯、バイブレータの振動が用いられてもよい。 Further, the control unit 18 acquires state information related to the biological state of the user based on the biological state that is the result of the determination of the above state model, and the user's behavior or predicted based on the acquired state information. Output the biological state. The content of the state information may be the result of the determination itself, for example, the possibility that a symptom of a certain disease may occur in the user, or the possibility of a change such as exacerbation or remission of the symptom. In addition, the information may include advice, an allowance method, or a warning according to the result of such a determination. As for the health information having such contents, for example, a list of messages according to the onset or change of symptoms and the possibility thereof is held in the storage unit 16, and the control unit 18 acquires this message according to the result of the above determination. You may. Alternatively, the control unit 18 transmits the result of the above determination to an external AI (Artificial Intelligence) server via the communication unit 14, and provides information such as appropriate advice according to the determination result from the AI server to health information. May be obtained as. This AI server is prepared in advance for providing such information. The control unit 18 provides the acquired health information to the user via the user interface 12. The format of the data indicating the health information may be any of visual information including characters, figures and the like, voice, or a combination thereof. Further, along with or in place of the presentation of these data, non-voice sounds (beep sound, etc.), lamp lighting, and vibration of the vibrator may be used.
 このような制御部18は、図2Aの演算処理装置が、記憶装置に記憶されるプログラムを実行し、また必要に応じて記憶装置にアクセスしてデータを参照したり保存したりすることで実現される機能的な構成要素である。 Such a control unit 18 is realized by the arithmetic processing unit of FIG. 2A executing a program stored in the storage device and accessing the storage device as necessary to refer to and save the data. It is a functional component to be used.
 記憶部16はここまでの他の構成要素の説明ですでに述べたとおりであり、情報提供装置10で、個体情報及び環境情報の入力に対してユーザに提供する健康情報を出力するために用いられる健康影響モデル、状態モデルまたは感情推定モデル等のデータを保持する。また、状態モデル、感情推定モデルまたは健康影響モデルを用いたユーザの生体状態、ユーザの感情状態またはユーザの健康状態の判定及び健康情報の取得、及び取得した健康情報のユーザへの提示のために制御部18によって実行されるプログラム(アプリケーション)も記憶部16に保持される。その他、例えばこの判定の結果、又はユーザに提示された健康情報の履歴も記憶部16に保持されてもよい。 感情推定部18aは、上記の感情推定モデルの判定の結果である状態に基づいて、当該ユーザの感情状態に関連する健康情報を取得する。つまり、感情推定部18aは、環境情報に基づいて生成された説明変数を用いた感情推定モデルに基づいて、ユーザ(対象生体)の感情を表す指標である感情指標を、ユーザの感情を推定することが望まれる対象日時において特定する。ここで、感情指標とは、喜怒哀楽および喜怒哀楽それぞれの度合いを示す数値または単語である。 The storage unit 16 has already been described in the description of the other components so far, and is used by the information providing device 10 to output the health information provided to the user in response to the input of the individual information and the environmental information. Holds data such as health effects model, state model or emotion estimation model. In addition, for determining the user's biological state, the user's emotional state or the user's health state using a state model, an emotion estimation model or a health effect model, acquiring health information, and presenting the acquired health information to the user. A program (application) executed by the control unit 18 is also stored in the storage unit 16. In addition, for example, the result of this determination or the history of health information presented to the user may also be stored in the storage unit 16. The emotion estimation unit 18a acquires health information related to the emotional state of the user based on the state that is the result of the determination of the above emotion estimation model. That is, the emotion estimation unit 18a estimates the user's emotion by using the emotion index, which is an index representing the emotion of the user (target living body), based on the emotion estimation model using the explanatory variables generated based on the environmental information. Specify at the desired target date and time. Here, the emotional index is a numerical value or a word indicating the degree of emotions and emotions and emotions.
 また、感情推定部18aが出力する健康情報の内容は、感情指標である。また、このような特定された感情指標に応じた助言、手当方法若しくは注意喚起を内容とする情報であってもよい。このような内容の健康情報は、例えば心理状態の変化及びその可能性に応じたメッセージのリストが記憶部16に保持され、感情推定部18aは、上記の判定の結果に応じてこのメッセージを取得してもよい。または、感情推定部18aは、上記の判定の結果を、通信部14を介して外部のAIサーバに送信し、判定の結果に応じた適切な助言等の情報をAIサーバから健康情報として取得してもよい。このAIサーバは、このような情報の提供のためにあらかじめ用意されるものである。取得した健康情報を、感情推定部18aは、ユーザインタフェース12を介してユーザに提供する。なお、健康情報を示すデータの形式は、文字、図形等を含む視覚情報若しくは音声、又はこれらの組み合わせのいずれであってもよい。また、これらのデータの提示と共に、又はこれらに代えて音声ではない音(ビープ音等)、ランプの点灯、バイブレータの振動が用いられてもよい。 The content of the health information output by the emotion estimation unit 18a is an emotion index. In addition, the information may include advice, treatment methods, or alerts according to the specified emotional index. As for the health information having such contents, for example, a list of messages according to the change of the psychological state and the possibility thereof is held in the storage unit 16, and the emotion estimation unit 18a acquires this message according to the result of the above determination. You may. Alternatively, the emotion estimation unit 18a transmits the result of the above determination to an external AI server via the communication unit 14, and acquires information such as appropriate advice according to the result of the determination as health information from the AI server. You may. This AI server is prepared in advance for providing such information. The emotion estimation unit 18a provides the acquired health information to the user via the user interface 12. The format of the data indicating the health information may be any of visual information including characters, figures and the like, voice, or a combination thereof. Further, along with or in place of the presentation of these data, non-voice sounds (beep sound, etc.), lamp lighting, and vibration of the vibrator may be used.
 行動予測部18bは、感情推定部18aが特定した感情指標に基づいて、対象日時におけるユーザ(対象生体)の行動を予測して出力する。つまり、行動予測部18bは、ユーザの感情指標のデータに基づいて、生体の感情指標のデータと生体が行った行動を示すデータとの関連性を統計的に解析することによって得られたモデルを用いて、対象日時におけるユーザの行動を予測する。行動の内容は、例えば購買行動または危険行動等であってもよい。また、行動予測部18bは、このような予測の結果に応じた助言、手当方法若しくは注意喚起を内容とする情報を提示してもよい。行動予測部18bが出力する健康情報の内容は、予測された行動に関する情報である。予測された行動に関する情報は、例えば行動の変化及びその可能性に応じたメッセージのリストが記憶部16に保持され、行動予測部18bは、上記の予測の結果に応じてこのメッセージを取得してもよい。または、行動予測部18bは、上記の予測の結果を、通信部14を介して外部のAIサーバに送信し、判定の結果に応じた適切な助言等の情報をAIサーバから健康情報として取得してもよい。このAIサーバは、このような情報の提供のためにあらかじめ用意されるものである。 The behavior prediction unit 18b predicts and outputs the behavior of the user (target living body) at the target date and time based on the emotion index specified by the emotion estimation unit 18a. That is, the behavior prediction unit 18b statistically analyzes the relationship between the data of the emotion index of the living body and the data indicating the behavior performed by the living body based on the data of the user's emotion index, and obtains a model. It is used to predict the user's behavior at the target date and time. The content of the action may be, for example, a purchasing action or a dangerous action. In addition, the behavior prediction unit 18b may present information including advice, an allowance method, or a warning according to the result of such prediction. The content of the health information output by the behavior prediction unit 18b is information on the predicted behavior. As for the information about the predicted behavior, for example, a list of messages according to the change of the behavior and its possibility is held in the storage unit 16, and the behavior prediction unit 18b acquires this message according to the result of the above prediction. May be good. Alternatively, the behavior prediction unit 18b transmits the result of the above prediction to an external AI server via the communication unit 14, and acquires information such as appropriate advice according to the judgment result from the AI server as health information. You may. This AI server is prepared in advance for providing such information.
 取得した健康情報を、行動予測部18bは、ユーザインタフェース12を介してユーザに提供する。なお、行動情報を示すデータの形式は、文字、図形等を含む視覚情報若しくは音声、又はこれらの組み合わせのいずれであってもよい。また、これらのデータの提示と共に、又はこれらに代えて音声ではない音(ビープ音等)、ランプの点灯、バイブレータの振動が用いられてもよい。 The behavior prediction unit 18b provides the acquired health information to the user via the user interface 12. The format of the data indicating the behavior information may be any of visual information including characters, figures, etc., voice, or a combination thereof. Further, along with or in place of the presentation of these data, non-voice sounds (beep sound, etc.), lamp lighting, and vibration of the vibrator may be used.
 さらに健康判定部18cは、上記の状態モデルの判定の結果である生体状態に基づいて、当該ユーザの生体状態に関連する健康情報を取得し、取得した健康情報に基づいて判定されたユーザの生体状態を出力する。健康判定部18cが出力する健康情報の内容は、判定の結果そのもの、例えばユーザにある疾患の症状が発生する可能性であってもよいし、症状の増悪又は寛解等の変化の可能性であってもよい。また、健康情報の内容は、このような判定の結果に応じた助言、手当方法若しくは注意喚起を内容とする情報であってもよい。このような内容の健康情報は、例えば発症又は症状の変化及びその可能性に応じたメッセージのリストが記憶部16に保持され、健康判定部18cは、上記の判定の結果に応じてこのメッセージを取得してもよい。 Further, the health determination unit 18c acquires health information related to the biological state of the user based on the biological state that is the result of the determination of the above state model, and the living body of the user determined based on the acquired health information. Output the status. The content of the health information output by the health judgment unit 18c may be the judgment result itself, for example, the possibility that a symptom of a certain disease may occur in the user, or the possibility of a change such as exacerbation or remission of the symptom. You may. In addition, the content of the health information may be information containing advice, an allowance method, or a warning according to the result of such a determination. As for the health information having such contents, for example, a list of messages according to the onset or change of symptoms and the possibility thereof is held in the storage unit 16, and the health determination unit 18c sends this message according to the result of the above determination. You may get it.
 または、健康判定部18cは、上記の判定の結果を、通信部14を介して外部のAIサーバに送信し、判定の結果に応じた適切な助言等の情報をAIサーバから健康情報として取得してもよい。このAIサーバは、このような情報の提供のためにあらかじめ用意されるものである。取得した健康情報を、健康判定部18cは、ユーザインタフェース12を介してユーザに提供する。なお、健康情報を示すデータの形式は、文字、図形等を含む視覚情報若しくは音声、又はこれらの組み合わせのいずれであってもよい。また、これらのデータの提示と共に、又はこれらに代えて音声ではない音(ビープ音等)、ランプの点灯、バイブレータの振動が用いられてもよい。 Alternatively, the health determination unit 18c transmits the result of the above determination to an external AI server via the communication unit 14, and acquires information such as appropriate advice according to the determination result as health information from the AI server. You may. This AI server is prepared in advance for providing such information. The health determination unit 18c provides the acquired health information to the user via the user interface 12. The format of the data indicating the health information may be any of visual information including characters, figures and the like, voice, or a combination thereof. Further, along with or in place of the presentation of these data, non-voice sounds (beep sound, etc.), lamp lighting, and vibration of the vibrator may be used.
 このような記憶部16は、図2Aの記憶装置を用いて実現される機能的な構成要素である。 Such a storage unit 16 is a functional component realized by using the storage device of FIG. 2A.
 [動作]
 次に、上記の構成を有する情報提供装置10の動作について、手順例を用いて説明する。図5は、情報提供装置10の動作の手順例を示すフローチャートである。以下ではこのフローチャートに沿って、現在から近い将来についてのユーザの生体状態に関連する生体状態に関する情報を提供する情報提供装置10の動作の手順例を説明する。なお、図5を参照しての以下の説明では、上記の各構成要素の機能によって実行される各工程を情報提供装置10の動作の工程として説明する。
[motion]
Next, the operation of the information providing device 10 having the above configuration will be described with reference to a procedure example. FIG. 5 is a flowchart showing a procedure example of the operation of the information providing device 10. In the following, a procedure example of the operation of the information providing device 10 that provides information on the biological state related to the biological state of the user from the present to the near future will be described with reference to this flowchart. In the following description with reference to FIG. 5, each process executed by the function of each of the above components will be described as an operation process of the information providing device 10.
 (S10)情報提供装置10は、生体状態についての判定対象者であるユーザの個体情報を取得する。この個体情報に含まれる情報の例としては、読取装置を用いてリムーバブルメディアから読み取られた遺伝情報が挙げられる。また、計測機器20でのセンサ21を用いた計測の結果に基づく生体情報もこの個体情報に含まれ得る。 (S10) The information providing device 10 acquires individual information of a user who is a determination target person for a biological state. Examples of the information included in this individual information include genetic information read from removable media using a reading device. In addition, biological information based on the result of measurement using the sensor 21 in the measuring device 20 can also be included in this individual information.
 (S20)情報提供装置10は、現在の時刻情報及びユーザの位置情報を取得する。時刻情報は、例えば情報処理装置である情報提供装置10が備えるシステムクロックの値である。位置情報は、例えば情報提供装置10が備える測位システムの受信機から出力される。 (S20) The information providing device 10 acquires the current time information and the user's position information. The time information is, for example, a value of a system clock included in the information providing device 10 which is an information processing device. The position information is output from, for example, the receiver of the positioning system included in the information providing device 10.
 (S30)情報提供装置10は、ステップS20で取得した時刻情報及び位置情報をサーバ50に送信し、サーバ50から、この時刻情報及び位置情報に対応する環境情報の提供を受けて取得する。「時刻情報及び位置情報に対応する」とは、例えば、位置情報が示す位置をカバーするエリアについての環境情報であって、サーバ50で保持される最新のものである。また、情報提供装置10は、履歴又は予報である環境情報の提供を受けてもよい。そのような現在と異なる時期の環境情報は、過去の生体状態又は生体状態の今後の変調についての判定に有用である。 (S30) The information providing device 10 transmits the time information and the position information acquired in step S20 to the server 50, and receives and acquires the environment information corresponding to the time information and the position information from the server 50. “Corresponding to time information and position information” is, for example, environmental information about an area covering the position indicated by the position information, and is the latest information held by the server 50. Further, the information providing device 10 may be provided with environmental information which is a history or a forecast. Such environmental information at a time different from the present is useful for determining the past biological state or the future modulation of the biological state.
 (S40)情報提供装置10は、個体情報及び環境情報に対応する生体状態を、状態モデルを用いて判定する。ステップS40で実行される生体状態の判定については、図6のフローチャートに、より詳細な例を示す。図6は、図5に例示する情報提供装置10の動作の手順における、生体状態の判定の手順例を示すフローチャートである。この例では、状態モデルとして重回帰式を用いて生体状態のある項目、例えばある症状の今後の変化(増悪、改善、寛解、又はほぼ変化なし等)について判定が行われる。 (S40) The information providing device 10 determines the biological state corresponding to the individual information and the environmental information by using the state model. A more detailed example of the determination of the biological state executed in step S40 is shown in the flowchart of FIG. FIG. 6 is a flowchart showing an example of a procedure for determining a biological state in the procedure for operating the information providing device 10 illustrated in FIG. In this example, multiple regression equations are used as a state model to determine certain items of the biological state, such as future changes in a symptom (exacerbation, improvement, amelioration, or almost no change, etc.).
 (S41)制御部18は、状態モデルとしての重回帰式を取得する。 (S41) The control unit 18 acquires a multiple regression equation as a state model.
 (S42)制御部18は、ステップS10で取得した個体情報、並びにステップS30で取得した環境情報の各項目の値を、ステップS41で取得した重回帰式に説明変数の値として代入し、演算する。 (S42) The control unit 18 substitutes the values of each item of the individual information acquired in step S10 and the environmental information acquired in step S30 into the multiple regression equation acquired in step S41 as the value of the explanatory variable and calculates. ..
 (S43)ステップS42での演算の結果として得られた目的変数の値が、所定の閾値を超えるか否か判定する。目的変数の値が、所定の閾値以下の場合(S43でNo)、制御部18は手順をステップS44へ進める。目的変数の値が、所定の閾値を超える場合(S43でYes)、制御部18は手順をステップS45へ進める。 (S43) It is determined whether or not the value of the objective variable obtained as a result of the calculation in step S42 exceeds a predetermined threshold value. When the value of the objective variable is equal to or less than a predetermined threshold value (No in S43), the control unit 18 advances the procedure to step S44. When the value of the objective variable exceeds a predetermined threshold value (Yes in S43), the control unit 18 advances the procedure to step S45.
 (S44)制御部18は、この例における症状は改善または寛解するとの判定結果を取得して生体状態の判定を終える。 (S44) The control unit 18 obtains a determination result that the symptom in this example is improved or ameliorated, and finishes the determination of the biological condition.
 (S45)制御部18は、この例における状態は増悪するとの判定結果を取得して生体状態の判定を終える。 (S45) The control unit 18 acquires a determination result that the state in this example is exacerbated, and finishes the determination of the biological state.
 なお、上記の生体状態の判定の手順例は、説明を簡単にするため単純化したものである。実際には、例えば健康情報の複数の項目について判定がなされてもよい。また、例えば気象情報としての気象予報に示される気象の将来的な変化に応じて判定を重ねて、症状の今後の時系列変化についての判定結果が取得されてもよい。 The above example of the procedure for determining the biological condition is simplified for the sake of simplicity. In practice, for example, a determination may be made for a plurality of items of health information. Further, for example, the determination result regarding the future time-series change of the symptom may be acquired by repeating the determination according to the future change of the weather shown in the weather forecast as the meteorological information.
 図5を再び参照して健康情報の提供の動作の説明に戻る。ここで、健康情報とは、生体状態に関する情報である。 Refer to FIG. 5 again to return to the explanation of the operation of providing health information. Here, the health information is information on the biological state.
 (S50)情報提供装置10は、ステップS40で判定した生体状態に関連する生体状態に関する情報を取得して、ユーザにこの健康情報を提示する。図7は、情報提供装置10による、健康情報の提示例を示す模式図である。 (S50) The information providing device 10 acquires information on the biological state related to the biological state determined in step S40, and presents this health information to the user. FIG. 7 is a schematic diagram showing an example of presentation of health information by the information providing device 10.
 図7では、情報提供装置10が、図2Bに示したスマートフォンで実現されている場合を例にこの提示例を示す。この提示例では、スマートフォンのロック画面において、天気予報のアプリケーションによる天気予報の下に健康情報が表示されている。この例における健康情報は、ユーザのこの先の鬱行動に関する生体状態に関連する情報であり、その一部である文字及び図形が表示されている。この健康情報が情報提供装置10で取得されてロック画面に表示可能になった時には、音、振動又はランプの点灯による通知がなされていてもよい。 FIG. 7 shows an example of this presentation by taking the case where the information providing device 10 is realized by the smartphone shown in FIG. 2B as an example. In this presentation example, health information is displayed under the weather forecast by the weather forecast application on the lock screen of the smartphone. The health information in this example is information related to the biological state related to the user's future depressive behavior, and characters and figures that are a part thereof are displayed. When this health information is acquired by the information providing device 10 and can be displayed on the lock screen, a notification may be given by sound, vibration, or lighting of a lamp.
 図8もまた、情報提供装置10による、健康情報の提示例を示す模式図である。例えば図7で示されるロック画面で、健康情報のセクション内にある「詳細」の表示をユーザが選択した場合に、スマートフォンのディスプレイ(ユーザインタフェース12に相当)にこのように表示される。または、このスマートフォンにインストールされている、情報提供装置10を実現させるためのアプリケーションを起動した場合に、健康情報がこのようにディスプレイに表示されてもよい。図8に示す例では、図7で提示されている、鬱行動に関する生体状態に関連する健康情報の詳細が表示されている。この健康情報には、「生体状態」の項目下に、ユーザの生体状態である鬱行動の現在(6月25日18時過ぎ)から半日程度の変化が含まれている。制御部18が行った鬱行動の判定の結果は、気分を反映する人の表情を模した図形を用いて提示されている。また、その下には、健康情報としての、この生体状態の判定の結果に対応した解説文が提示されている。例えば、気分が沈んでいて、また、その気分がいつまで続くのかという思いでさらに暗鬱になっていたユーザに、この健康情報を見せて気分が今後好転すると知らせることで、当該ユーザの暗鬱さを軽減させられる可能性がある。 FIG. 8 is also a schematic diagram showing an example of presentation of health information by the information providing device 10. For example, on the lock screen shown in FIG. 7, when the user selects the display of "details" in the section of health information, the display (corresponding to the user interface 12) of the smartphone is displayed in this way. Alternatively, the health information may be displayed on the display in this way when the application for realizing the information providing device 10 installed in the smartphone is started. In the example shown in FIG. 8, the details of the health information related to the biological state related to the depressive behavior presented in FIG. 7 are displayed. This health information includes a change of about half a day from the current state of depression (after 18:00 on June 25), which is the user's biological state, under the item of "biological state". The result of the determination of the depressive behavior performed by the control unit 18 is presented using a figure imitating a person's facial expression that reflects the mood. In addition, below that, a commentary corresponding to the result of the determination of the biological state as health information is presented. For example, to reduce the depression of a user who is depressed and who is more depressed because of how long the mood will last, by showing this health information and letting the user know that his / her mood will improve in the future. There is a possibility of being forced to do so.
 上記はユーザに提示される健康情報の概念の理解を促すために示す一例である。他の例として、ある発作の起こる可能性についての見通しが健康情報として示されてもよい。この先の発症の可能性が高いことを示す健康情報の提示を受けたユーザは、例えば発症時に用いる薬を用意しておいたり、発作の起きやすくなる状況を避ける準備をしたりすることができる。 The above is an example shown to promote understanding of the concept of health information presented to the user. As another example, prospects for the likelihood of a seizure may be provided as health information. A user who is presented with health information indicating that there is a high possibility of future onset can prepare, for example, a drug to be used at the time of onset or prepare to avoid a situation in which a seizure is likely to occur.
 図7又は図8に示される健康情報の提示は、例えば、情報提供装置10にインストールされている、生体状態を判定し、この生体状態に関連する健康情報を提示するためのアプリケーションと、情報処理装置を実現する情報提供装置10のOS(Operating System)との協働によって行われる。 The presentation of the health information shown in FIG. 7 or FIG. 8 includes, for example, an application installed in the information providing device 10 for determining a biological state and presenting health information related to the biological state, and information processing. This is done in collaboration with the OS (Operating System) of the information providing device 10 that realizes the device.
 次に、感情推定部18aの動作について説明する。図9は、図5に例示する情報提供装置10の動作の手順における、感情状態の推定の手順例を示すフローチャートである。 Next, the operation of the emotion estimation unit 18a will be described. FIG. 9 is a flowchart showing an example of a procedure for estimating an emotional state in the procedure for operating the information providing device 10 illustrated in FIG.
 (S40)情報提供装置10は、個体情報及び環境情報に対応する感情を、状態モデルのうちの感情推定モデルを用いて判定する。 (S40) The information providing device 10 determines the emotion corresponding to the individual information and the environmental information by using the emotion estimation model among the state models.
 (S61)感情推定部18aは、感情推定モデルとしての重回帰式を取得する。 (S61) The emotion estimation unit 18a acquires a multiple regression equation as an emotion estimation model.
 (S62)感情推定部18aは、ステップS10で取得した個体情報、並びにステップS30で取得した環境情報の各項目の値を、ステップS61で取得した重回帰式に説明変数の値として代入し、演算する。感情推定部18aは、対象日時より以前の所定時間分の環境情報に基づいて、対象日時におけるユーザ(対象生体)の感情を表す感情指標を特定する。ここで、対象日時とは、その日時におけるユーザの感情を、推定する日時である。 (S62) The emotion estimation unit 18a substitutes the values of each item of the individual information acquired in step S10 and the environmental information acquired in step S30 into the multiple regression equation acquired in step S61 as the values of the explanatory variables, and performs an operation. To do. The emotion estimation unit 18a identifies an emotion index representing the emotion of the user (target living body) at the target date and time based on the environmental information for a predetermined time before the target date and time. Here, the target date and time is a date and time for estimating the user's emotion at that date and time.
 (S63)ステップS62での演算の結果として得られた目的変数の値が、所定の閾値を超えるか否か判定する。目的変数の値が、所定の閾値以下の場合(S63でNo)、感情推定部18aは手順をステップS64へ進める。目的変数の値が、所定の閾値を超える場合(S63でYes)、感情推定部18aは手順をステップS65へ進める。 (S63) It is determined whether or not the value of the objective variable obtained as a result of the calculation in step S62 exceeds a predetermined threshold value. When the value of the objective variable is equal to or less than a predetermined threshold value (No in S63), the emotion estimation unit 18a advances the procedure to step S64. When the value of the objective variable exceeds a predetermined threshold value (Yes in S63), the emotion estimation unit 18a advances the procedure to step S65.
 (S64)感情推定部18aは、この例における感情状態は改善するとの判定結果を取得して状態の判定を終える。 (S64) The emotion estimation unit 18a acquires a determination result that the emotional state in this example is improved, and finishes the determination of the state.
 (S65)感情推定部18aは、この例における感情状態は増悪するとの判定結果を取得して状態の判定を終える。 (S65) The emotion estimation unit 18a acquires a determination result that the emotional state in this example is exacerbated, and finishes the determination of the state.
 なお、上記の状態の判定の手順例は、説明を簡単にするため単純化したものである。実際には、例えば健康情報の複数の項目について判定がなされてもよい。また、例えば気象情報としての気象予報に示される気象の将来的な変化に応じて判定を重ねて、症状の今後の時系列変化についての判定結果が取得されてもよい。 Note that the above example of the procedure for determining the state is simplified for the sake of simplicity. In practice, for example, a determination may be made for a plurality of items of health information. Further, for example, the determination result regarding the future time-series change of the symptom may be acquired by repeating the determination according to the future change of the weather shown in the weather forecast as the meteorological information.
 次に、行動予測部18bの動作について説明する。図10は、図5に例示する情報提供装置10の動作の手順における、行動の予測の手順例を示すフローチャートである。 Next, the operation of the behavior prediction unit 18b will be described. FIG. 10 is a flowchart showing an example of an action prediction procedure in the operation procedure of the information providing device 10 illustrated in FIG.
 (S40)情報提供装置10は、感情推定部18aにより推定されたユーザの感情を表す感情指標に対応する行動を、状態モデルのうちの行動予測モデルを用いて判定する。 (S40) The information providing device 10 determines the behavior corresponding to the emotion index representing the user's emotion estimated by the emotion estimation unit 18a using the behavior prediction model among the state models.
 (S71)行動予測部18bは、行動予測モデルとしての重回帰式を取得する。 (S71) The behavior prediction unit 18b acquires a multiple regression equation as a behavior prediction model.
 (S72)行動予測部18bは、ステップS10で取得した個体情報、並びにステップS30で取得した環境情報の各項目の値を、ステップS71で取得した重回帰式に説明変数の値として代入し、演算する。 (S72) The behavior prediction unit 18b substitutes the values of each item of the individual information acquired in step S10 and the environmental information acquired in step S30 into the multiple regression equation acquired in step S71 as the values of the explanatory variables, and performs an operation. To do.
 (S73)ステップS72での演算の結果として得られた値が、所定の閾値を超えるか否か判定する。ステップS72での演算の結果として得られた値が、所定の閾値以下の場合(S73でNo)、行動予測部18bは手順をステップS74へ進める。目的変数の値が、所定の閾値を超える場合(S73でYes)、行動予測部18bは手順をステップS75へ進める。 (S73) It is determined whether or not the value obtained as a result of the calculation in step S72 exceeds a predetermined threshold value. When the value obtained as a result of the calculation in step S72 is equal to or less than a predetermined threshold value (No in S73), the action prediction unit 18b advances the procedure to step S74. When the value of the objective variable exceeds a predetermined threshold value (Yes in S73), the behavior prediction unit 18b advances the procedure to step S75.
 (S74)行動予測部18bは、この例における行動は改善するとの判定結果を取得して状態の判定を終える。 (S74) The behavior prediction unit 18b acquires the determination result that the behavior in this example is improved, and finishes the determination of the state.
 (S75)行動予測部18bは、この例における行動は悪化するとの判定結果を取得して状態の判定を終える。 (S75) The behavior prediction unit 18b acquires the determination result that the behavior in this example deteriorates and finishes the determination of the state.
 ここで、行動が改善する、または、行動が悪化する、とは、あらかじめ定められた行動毎の指数が改善する、または、悪化することを示してもよい。例えば、行動予測部18bは、購買を行うという行動に対して、購買の頻度が多い状態を、購買という行動を表す指数が高い状態とし、購買の頻度が低い状態を、購買という行動を表す指数が低い状態とすることにより、購買という行動が改善する、とは、購買の頻度が高い状態を示す。 Here, "behavior improves or behavior worsens" may mean that a predetermined index for each behavior improves or worsens. For example, the behavior prediction unit 18b sets a state in which the frequency of purchase is high as a state in which the index representing the behavior of purchasing is high, and a state in which the frequency of purchase is low as an index representing the behavior of purchasing. The fact that the behavior of purchasing is improved by setting the value to a low level indicates a state in which the frequency of purchasing is high.
 なお、上記の状態の判定の手順例は、説明を簡単にするため単純化したものである。実際には、例えば健康情報の複数の項目について判定がなされてもよい。また、例えば気象情報としての気象予報に示される気象の将来的な変化に応じて判定を重ねて、症状の今後の時系列変化についての判定結果が取得されてもよい。 Note that the above example of the procedure for determining the state is simplified for the sake of simplicity. In practice, for example, a determination may be made for a plurality of items of health information. Further, for example, the determination result regarding the future time-series change of the symptom may be acquired by repeating the determination according to the future change of the weather shown in the weather forecast as the meteorological information.
 続いて、健康判定部18cの動作を説明する。図11は、図5に例示する情報提供装置10の動作の手順における、健康状態の判定の手順例を示すフローチャートである。 Next, the operation of the health determination unit 18c will be described. FIG. 11 is a flowchart showing an example of a procedure for determining a health condition in the procedure for operating the information providing device 10 illustrated in FIG.
 (S40)情報提供装置10は、環境情報に対応する健康状態を、状態モデルのうちの健康影響モデルを用いて判定する。 (S40) The information providing device 10 determines the health state corresponding to the environmental information by using the health effect model among the state models.
 (S81)健康判定部18cは、健康影響モデルとしての重回帰式を取得する。 (S81) The health determination unit 18c acquires a multiple regression equation as a health effect model.
 (S82)健康判定部18cは、ステップS10で取得した個体情報、並びにステップS30で取得した環境情報の各項目の値を、ステップS81で取得した重回帰式に説明変数の値として代入し、演算する。 (S82) The health determination unit 18c substitutes the values of each item of the individual information acquired in step S10 and the environmental information acquired in step S30 into the multiple regression equation acquired in step S81 as the values of the explanatory variables, and performs an operation. To do.
 (S83)ステップS82での演算の結果として得られた目的変数の値が、所定の閾値を超えるか否か判定する。目的変数の値が、所定の閾値以下の場合(S83でNo)、健康判定部18cは手順をステップS84へ進める。目的変数の値が、所定の閾値を超える場合(S83でYes)、健康判定部18cは手順をステップS85へ進める。 (S83) It is determined whether or not the value of the objective variable obtained as a result of the calculation in step S82 exceeds a predetermined threshold value. When the value of the objective variable is equal to or less than a predetermined threshold value (No in S83), the health determination unit 18c advances the procedure to step S84. When the value of the objective variable exceeds a predetermined threshold value (Yes in S83), the health determination unit 18c advances the procedure to step S85.
 (S84)健康判定部18cは、この例における症状は改善または寛解するとの判定結果を取得して状態の判定を終える。 (S84) The health judgment unit 18c obtains a judgment result that the symptom in this example is improved or ameliorated, and finishes the judgment of the state.
 (S85)健康判定部18cは、この例における症状は増悪するとの判定結果を取得して状態の判定を終える。 (S85) The health judgment unit 18c acquires the judgment result that the symptom in this example is exacerbated and finishes the judgment of the state.
 なお、上記の状態の判定の手順例は、説明を簡単にするため単純化したものである。実際には、例えば健康情報の複数の項目について判定がなされてもよい。また、例えば気象情報としての気象予報に示される気象の将来的な変化に応じて判定を重ねて、症状の今後の時系列変化についての判定結果が取得されてもよい。 Note that the above example of the procedure for determining the state is simplified for the sake of simplicity. In practice, for example, a determination may be made for a plurality of items of health information. Further, for example, the determination result regarding the future time-series change of the symptom may be acquired by repeating the determination according to the future change of the weather shown in the weather forecast as the meteorological information.
 (環境要因と健康状態との関連性)
 ここで、上記のように構成される情報提供装置10が提供する健康情報の実効性の根拠となる、環境要因と健康状態との関連性について実例を用いて説明する。図12は、各種の環境要因を説明変数、男性の自殺の件数を目的変数として本発明者らが行った重回帰分析の結果を示す表である。
(Relationship between environmental factors and health status)
Here, the relationship between environmental factors and the health condition, which is the basis of the effectiveness of the health information provided by the information providing device 10 configured as described above, will be described with reference to actual examples. FIG. 12 is a table showing the results of multiple regression analysis performed by the present inventors with various environmental factors as explanatory variables and the number of male suicides as objective variables.
 回帰係数は、各説明変数の所定値(変数によって異なる)が増すごとに自殺件数に与えた影響の大きさを示す。負の値の場合は、変数の所定値が増すごとに自殺件数が減ることを示す。P値は各環境要因の回帰係数の有意確率であり、5%を下回るもの、つまり統計学的に有意な関連性が見られると判断し得るものには値に下線を付している。 The regression coefficient indicates the magnitude of the effect on the number of suicides as the predetermined value of each explanatory variable (depending on the variable) increases. A negative value indicates that the number of suicides decreases as the predetermined value of the variable increases. The P value is the significance probability of the regression coefficient of each environmental factor, and the value is underlined if it is less than 5%, that is, if it can be judged that a statistically significant relevance is observed.
 この表によれば、環境要因のうち、気圧、気温、F10.7 index、銀河宇宙線量、Hedonometer、及び雲量は、男性の自殺件数と統計学的に有意な関連性が見られる。なお、失業率は上記で述べたような気象又は宇宙天気の環境要因ではないが、自殺と統計学的に有意な関連性が見られるとの推測に基づきこの分析において説明変数に加えた。このように、本発明に係る情報提供装置に入力される情報として、気象又は宇宙天気に係る環境要因以外のものであっても、生体状態の判定の精度向上、又は判定し得る健康状態の種類の拡大に貢献し得るものは除外されず、また、さらに環境要因として扱うものに含めてもよい。 According to this table, among the environmental factors, atmospheric pressure, temperature, F10.7 index, galactic cosmic dose, Hedonometer, and cloud cover are statistically significantly related to the number of male suicides. Although the unemployment rate is not an environmental factor of meteorological or space weather as mentioned above, it was added to the explanatory variables in this analysis based on the speculation that there is a statistically significant association with suicide. As described above, even if the information input to the information providing device according to the present invention is other than environmental factors related to weather or space weather, the accuracy of determination of the biological condition is improved, or the type of health condition that can be determined. Those that can contribute to the expansion of the above are not excluded, and may be included in those that are treated as environmental factors.
 このような分析の結果に基づけば、情報提供装置10による、男性の自殺が発生する可能性という健康情報の判定には、例えば気圧、気温、F10.7 index、銀河宇宙線量、Hedonometer、雲量及び失業率の回帰係数を含む重回帰式が健康影響モデルとして利用可能である。 Based on the results of such analysis, the information providing device 10 can determine, for example, atmospheric pressure, temperature, F10.7 index, galaxy cosmic dose, Hedonometer, cloud cover, and the determination of health information that a man may commit suicide. A multiple regression equation that includes the regression coefficient of the unemployment rate can be used as a health effect model.
 もうひとつ例を挙げる。図13は、各種の環境要因を説明変数、男性の交通事故による死亡数を目的変数として本発明者らが行った重回帰分析の結果を示す表である。値の読み方は上記の自殺の例と同様である。 Here is another example. FIG. 13 is a table showing the results of multiple regression analysis performed by the present inventors with various environmental factors as explanatory variables and the number of deaths due to male traffic accidents as objective variables. The reading of the value is similar to the suicide example above.
 この表によれば、環境要因のうち、銀河宇宙線量及びHedonometerは、男性の交通事故発生件数と統計学的に有意な関連性が見られる。 According to this table, among the environmental factors, galactic cosmic dose and Hedomometer are statistically significantly related to the number of male traffic accidents.
 このような分析の結果に基づけば、情報提供装置10による、男性の交通事故が発生する可能性という健康情報の判定には、例えば銀河宇宙線量及びHedonometerの回帰係数を含む重回帰式が健康影響モデルとして利用可能である。 Based on the results of such analysis, the information providing device 10 uses a multiple regression equation including, for example, the galactic cosmic dose and the regression coefficient of Hedomometer to determine the health information that a male traffic accident may occur. It can be used as a model.
 (変形例及び補足)
 以上、一つ又は複数の態様に係る情報提供装置について、実施の形態に基づいて説明したが、本発明は上記実施の形態に限定されるものではない。本発明の趣旨を逸脱しない限り、当業者が思いつく各種変形を本実施の形態に施したものや、異なる実施の形態における構成要素を組み合わせて構築される形態も、一つまたは複数の態様の範囲内に含まれてもよい。以下、そのような変形例を例示する。また、実施の形態の中では触れなかった事項についての補足も以下に挙げる。
(Modification example and supplement)
Although the information providing device according to one or more aspects has been described above based on the embodiment, the present invention is not limited to the above embodiment. As long as the gist of the present invention is not deviated, various modifications that can be considered by those skilled in the art are applied to the present embodiment, and a form constructed by combining components in different embodiments is also within the scope of one or more embodiments. May be included within. Hereinafter, such a modified example will be illustrated. In addition, supplementary information on matters not mentioned in the embodiment is also given below.
 (1)上記実施の形態では、センサ21は情報提供装置10と別体の計測機器20の構成要素として説明されているが、センサ21は、情報提供装置10の一構成要素であってもよい。例えば情報提供装置10が活動量計で実現される場合、この活動量計が備えるセンサが上記のセンサ21に相当する。 (1) In the above embodiment, the sensor 21 is described as a component of the measuring device 20 that is separate from the information providing device 10, but the sensor 21 may be a component of the information providing device 10. .. For example, when the information providing device 10 is realized by an activity meter, the sensor included in the activity meter corresponds to the sensor 21 described above.
 (2)個体情報及び環境情報の上記実施の形態における情報提供装置10への入力経路は例でありこれに限定されない。例えば環境情報は、通信ネットワーク経由ではなく、ユーザインタフェース12を用いて入力されてもよい。また、情報提供装置10は、情報提供装置10に接続されるセンサを用いての計測の結果に基づく環境情報を取得してもよい。 (2) The input route of the individual information and the environmental information to the information providing device 10 in the above embodiment is an example and is not limited to this. For example, the environment information may be input using the user interface 12 instead of via the communication network. Further, the information providing device 10 may acquire environmental information based on the measurement result using the sensor connected to the information providing device 10.
 (3)個体情報に含まれるものとして上記実施の形態の説明で挙げたものすべてが情報提供装置10で常に必須というわけではなく、上記実施の形態の説明で挙げたものに限定もされない。所望の健康状態の項目についての判定に用いられる個体情報は、その項目との関連性が認められるか否か、又はコスト、法規等に照らして適切に利用が可能であるかに応じて取捨選択が適宜可能である。 (3) Not all of the information included in the description of the above embodiment is always essential for the information providing device 10, and the information is not limited to the ones mentioned in the description of the above embodiment. The individual information used to determine the desired health condition item is selected according to whether or not it is relevant to the item, or whether it can be used appropriately in light of costs, regulations, etc. Is possible as appropriate.
 また例えば、個体情報のうち、生体情報又は遺伝情報のいずれか一方と、環境情報とを用いて健康状態の判定が行われてもよいし、個体情報を用いずに環境情報に含まれる、環境要因を示す指標のみから健康状態の判定が行われてもよい。 Further, for example, the health condition may be determined using either one of the biological information or the genetic information of the individual information and the environmental information, or the environment included in the environmental information without using the individual information. The health condition may be determined only from the index indicating the factor.
 また、上記実施の形態の説明で挙げたものを用いて導出される他の指標値が個体情報として情報提供装置10に入力されてもよい。また、そのような他の指標値の導出が情報提供装置10で行われてもよい。例えば、心電図波形から連続する心拍を分析することによって得られる心拍変動が挙げられる。 Further, another index value derived by using the one given in the description of the above embodiment may be input to the information providing device 10 as individual information. Further, the information providing device 10 may derive such other index values. For example, heart rate variability obtained by analyzing continuous heartbeats from an electrocardiogram waveform.
 (4)環境情報に含まれるものとして上記実施の形態の説明で挙げたものすべてが情報提供装置10で常に必須というわけではなく、また、上記実施の形態の説明で挙げたものに限定もされない。所望の生体状態の項目についての判定に用いられる気象情報、宇宙天気情報又はシューマン共振の情報は、その項目と関連性が認められるか否か、又はコスト、法規等に照らして適切に利用が可能であるかに応じて取捨選択が適宜可能である。また、上記実施の形態の説明で挙げたものを用いて導出される他の指標値が環境情報として情報提供装置10に入力されてもよい。また、そのような他の指標値の導出が情報提供装置10で行われてもよい。上記実施の形態の説明で挙げたもの以外の例として、例えば大気中物質が環境要因として用いられてもよい。ここでいう大気中物質の例としては、二酸化硫黄(SO)、一酸化炭素(CO)、オゾン(O)、粒子状物質(いわゆるPM(particulate matter)10、PM2.5等)、窒素酸化物(NOx)、一酸化窒素(NO)、二酸化窒素(NO)、全炭化水素(THC:Total Hydrocarbons)、非メタン炭化水素(NMHC:Non-Methane Hydrocarbons)、メタン(CH)が挙げられる。図15は、本発明者らが得たデータに基づく、時期と場所が互いに対応する大気中物質の濃度と女性の自殺企図の発生件数(月平均)との線形回帰分析の結果を示す表である。この結果によれば、大気中の一酸化炭素濃度と女性の自殺企図の発生との間で他の大気中物質よりも強い、有意な関連性が見られた。この関連性は、大気中の一酸化炭素の、自殺又は自殺企図の発生の可能性の判定材料としての利用可能性を示唆する。なお、宇宙天気情報には、F10.7インデックス、太陽活動、地磁気活動、プロトン現象、放射線帯電子、電離圏嵐、デリンジャー現象およびスポラディックE層等が含まれてもよい。また、環境要因には、ダイオキシン類、DDT、DDE、殺虫剤、ポリ塩化ビフェニール(PCB)、ジエチルスチルベストロール(DES)、ビスフェノールA、ノニルフェノール、スズ、鉛、カドミウム、ベンツピレン、植物エストロゲン、フラン類、水銀等が含まれてもよい。 (4) Not all of the information included in the description of the embodiment is always essential for the information providing device 10, and the information is not limited to the information included in the description of the embodiment. .. The weather information, space weather information, or Schumann resonance information used to determine the desired biological condition item can be used appropriately in light of whether or not it is related to the item, or in light of costs, regulations, etc. It is possible to select as appropriate depending on whether or not it is. Further, another index value derived by using the one described in the description of the above embodiment may be input to the information providing device 10 as environmental information. Further, the information providing device 10 may derive such other index values. As an example other than those mentioned in the description of the above-described embodiment, for example, an atmospheric substance may be used as an environmental factor. Examples of atmospheric substances referred to here are sulfur dioxide (SO 2 ), carbon monoxide (CO), ozone (O 3 ), particulate matter (so-called PM (particulate matter) 10, PM2.5, etc.), nitrogen. Oxides (NOx), nitrogen monoxide (NO), nitrogen dioxide (NO 2 ), total hydrocarbons (THC: Total Hydrocarbons), non-methane hydrocarbons (NMHC: Non-Methane Hydrocarbons), methane (CH 4 ). Be done. FIG. 15 is a table showing the results of a linear regression analysis of the concentrations of atmospheric substances whose time and place correspond to each other and the number of female suicide attempts (monthly average) based on the data obtained by the present inventors. is there. The results show a stronger and significant association between atmospheric carbon monoxide levels and the occurrence of female suicide attempts than other atmospheric substances. This association suggests the availability of carbon monoxide in the atmosphere as a measure of the likelihood of suicide or attempted suicide. The space weather information may include the F10.7 index, solar activity, geomagnetic activity, proton phenomenon, radiation belt electrons, ionospheric storm, Delinger phenomenon, sporadic E layer, and the like. Environmental factors include dioxins, DDT, DDE, pesticides, polychlorinated biphenyls (PCBs), diethylstilbestrol (DES), bisphenol A, nonylphenol, tin, lead, cadmium, benzpyrene, phytoestrogens, furans. , Mercury and the like may be included.
 (5)上記実施の形態の説明では、情報提供装置10は時刻情報を取得してサーバ50に送信しているが、これに限定されない。例えば、情報提供システム1ではサーバ50から提供される環境情報の時期的範囲が固定されている場合(例:最新のもののみ)場合、時刻情報は必須ではない。 (5) In the description of the above embodiment, the information providing device 10 acquires the time information and transmits it to the server 50, but the present invention is not limited to this. For example, in the information providing system 1, when the time range of the environmental information provided from the server 50 is fixed (example: only the latest information), the time information is not essential.
 (6)図3に示す例では、環境情報は凡そ連続的な観測値であるが、これに限定されない。例えば観測値を所定の基準に照らして決定するレベルの情報であってもよい。具体例としては、非特許文献18で示されるような、レベルを示す離散値の情報であってもよい。 (6) In the example shown in Fig. 3, the environmental information is approximately continuous observation values, but is not limited to this. For example, it may be information at a level that determines the observed value in light of a predetermined standard. As a specific example, it may be discrete value information indicating a level as shown in Non-Patent Document 18.
 (7)上記実施の形態の説明で挙げた生体状態のデータは一部の例であり、その他の生体の健康状態又は生死に関わる事象についての利用可能な環境要因との関連性を示す統計データも用いることができる。例えば、上記でデータを示した自殺又は故意の自傷による死亡数、交通事故による死亡数、不慮の損傷その他の外因による死亡数、加害に基づく傷害又は死亡による死亡数、各種の疾患による死亡数のデータを用いることができる。図14は、そのような統計データの例であり、示す時期と場所とが対応する環境要因の実績データと死因の実績データとを用いて本発明者らが得た、両者間の統計学的に有意な関連性の有無を示す表である。各死因の左の列は男性、右の列は女性についての結果を示す。表中のプラス符号は正の有意な関連性、マイナス符号は負の有意な関連性があったことを示す。また、N.S.は有意な関連性がなかったことを示す。このように、何らかの環境要因と有意な関連性が見られる死因には、事故・事件のみならず、感染症、代謝異常、循環器疾患等の各種の疾患も含まれる。 (7) The biological condition data given in the description of the above embodiment is a partial example, and statistical data showing the relationship with available environmental factors for other biological health conditions or life-threatening events. Can also be used. For example, the number of deaths due to suicide or intentional self-injury, the number of deaths due to traffic accidents, the number of deaths due to accidental injury or other external causes, the number of deaths due to injury or death due to harm, the number of deaths due to various diseases, as shown in the above data. Data can be used. FIG. 14 is an example of such statistical data, which is statistically obtained by the present inventors using the actual data of environmental factors and the actual data of causes of death corresponding to the time and place shown. It is a table showing the presence or absence of a significant association with. The left column for each cause of death shows the results for men and the right column for women. A plus sign in the table indicates a positive and significant association, and a minus sign indicates a negative and significant association. In addition, N. S. Indicates that there was no significant association. As described above, the causes of death that are significantly related to some environmental factors include not only accidents / incidents but also various diseases such as infectious diseases, metabolic disorders, and cardiovascular diseases.
 このような統計データの利用例として、各死因、例えば自殺による死亡数を目的変数、環境情報の各項目を説明変数として取得した重回帰式を用いることで、環境情報に基づいて、近い将来に起こり得る自殺の発生件数を生体状態の判定結果として取得することができる。この判定結果が示す発生件数が大きい場合、例えば自殺しがちな状態にある人の家族又は関わりのある医療関係者に、注意を促す内容の健康情報が提供されてもよい。また、交通事故による死亡数が目的変数の場合には、その判定結果が示す数が大きいときに、生活で自動車を運転する人、諸交通機関の関係者、警察等の交通安全関係者等に注意を促す内容の健康情報が提供されてもよい。各種の疾患による死亡数を目的変数とする場合には、その患者又はその予備群の関係者に注意を促す内容の健康情報が提供されてもよい。 As an example of using such statistical data, by using a multiple regression equation obtained by using each cause of death, for example, the number of deaths due to suicide as an objective variable and each item of environmental information as an explanatory variable, in the near future based on the environmental information. The number of possible suicides can be obtained as a result of determining the biological condition. When the number of occurrences indicated by this determination result is large, for example, health information that calls attention to the family members of people who are prone to suicide or related medical personnel may be provided. In addition, when the number of deaths due to a traffic accident is the objective variable, when the number indicated by the judgment result is large, it can be used by people who drive cars in daily life, people involved in various transportation systems, people involved in traffic safety such as police, etc. Health information that calls attention may be provided. When the number of deaths due to various diseases is used as the objective variable, health information may be provided to call attention to the patient or the persons concerned in the reserve group.
 なお、上記には別例として死亡数ばかりを挙げたが、他の各種の疾患の発症、治癒、増悪、改善又は寛解の環境要因との関連性を示す統計データも、生体状態のデータとして利用して健康影響モデルを生成することができる。 In addition, although only the number of deaths is mentioned above as another example, statistical data showing the relationship with environmental factors of onset, cure, exacerbation, improvement or remission of various other diseases is also used as biological condition data. Can generate a health effect model.
 (8)上記実施の形態の説明では、個体情報に含まれる情報として生体情報及び遺伝情報を挙げたがこれに限定されない。例えば個人のエピジェネティックな情報が利用されてもよい。 (8) In the description of the above embodiment, biological information and genetic information are mentioned as information included in the individual information, but the present invention is not limited to this. For example, personal epigenetic information may be used.
 (9)上記実施の形態の説明でも簡単に触れたが、環境情報に示されるものには、観測場所でのと、その状態が生体状態の判定の対象である生体に影響を及ぼす場所に到達するまでに時間差がある場合がある。例えば太陽活動に起こった変化の影響が地球に到達するのは、人工衛星で計測された時点からさらに数分~数日間を要する。このようなものについては、状態モデルの生成、及び生体状態の判定に用いられるデータは、生体情報の取得のために行われた計測との時間差を考慮に入れた上での対応するデータが用いられる。 (9) As briefly mentioned in the explanation of the above embodiment, what is shown in the environmental information reaches the place where the observation place and the place where the state affects the living body which is the object of the determination of the biological state. There may be a time lag before doing so. For example, it will take several minutes to several days for the effects of changes in solar activity to reach the earth from the time measured by artificial satellites. For such data, the data used to generate the state model and determine the biological state is the corresponding data after taking into account the time difference from the measurement performed for the acquisition of biological information. Be done.
 (10)上記実施の形態では、環境情報が示す環境要因の状態が生体の心身にもたらす影響を受けた生体の生体状態を判定するためのツールとして状態モデルが用いられている。一方で環境情報が生体である人間の心身にもたらす影響は、そのような影響を受けた人間の行動の表れとして経済活動にも影響があるといわれ、景気循環と太陽黒点の周期との関連を主張する説もある(非特許文献19参照)。そこで、状態モデルに替えて環境情報が示す環境要因の状態と経済影響モデルとを用いることで、現在又は将来の経済動向を判定し、この経済動向に関連する経済情報が取得されてもよい。経済影響モデルは、過去に計測された環境要因の状態を示すデータと、当該環境要因の状態の計測が実行された場所及び時期に対応する場所及び時期に観測された経済動向のデータとを用意して、上記の状態モデルと同様に、重回帰式等の統計モデル又は機械学習の推論モデルとして取得される。また、ここでの経済動向のデータとは、例えば株価、為替、物価等の市況に関する数値の他、雇用(失業率)、所得、倒産等に関する数値、特定の分野、地域若しくは規模の事業の業績、特定の商材の販売数又は売上である。このような経済影響モデルを用いて判定された経済動向に関連する経済情報は、例えば政策若しくは事業方針の決定、又は広告の投入など販売促進施策の実行タイミングの決定等に用いることができる。これにより、景気の向上若しくは悪化の抑制、利益若しくは投資の費用対効果の向上、又は損失の回避等の効果をもたらし得る。 (10) In the above embodiment, a state model is used as a tool for determining the biological state of a living body that is affected by the state of environmental factors indicated by environmental information on the mind and body of the living body. On the other hand, the effects of environmental information on the mind and body of human beings, which are living organisms, are said to affect economic activities as a manifestation of such affected human behavior, and the relationship between the business cycle and the cycle of sunspots is linked. There is also a theory to argue (see Non-Patent Document 19). Therefore, by using the state of environmental factors indicated by the environmental information and the economic impact model instead of the state model, the current or future economic trend may be determined and the economic information related to this economic trend may be acquired. The economic impact model prepares data showing the state of environmental factors measured in the past and data of economic trends observed at the place and time corresponding to the place and time when the measurement of the state of the environmental factor was performed. Then, like the above state model, it is acquired as a statistical model such as a multiple regression equation or an inference model for machine learning. In addition, the economic trend data here includes, for example, figures related to market conditions such as stock prices, exchange rates, and prices, figures related to employment (unemployment rate), income, bankruptcy, etc., and business performance in specific fields, regions, or scales. , The number of sales or sales of a specific product. Economic information related to economic trends determined using such an economic impact model can be used, for example, to determine a policy or business policy, or to determine the execution timing of sales promotion measures such as the introduction of advertisements. This can bring about effects such as improvement or suppression of economic deterioration, improvement of cost-effectiveness of profit or investment, or avoidance of loss.
 また、上記実施の形態において、環境情報が示す環境要因の状態が生体の心身にもたらす影響を受けた生体状態を判定する生体は、ヒトに限らない。例えば、環境情報が示す環境要因の状態が生体の心身にもたらす影響を受けた生体状態を判定する生体は、カメムシであってもよい。図16は、カメムシ発生数と環境要因との関係を示した表である。図16に示されるように、カメムシ発生数は、銀河宇宙線量およびKp_10と統計学的に有意な相関関係を持つ。具体的には、カメムシ発生数は、銀河宇宙線量との相関係数は、0.64714であり、Kp_10との相関係数は、-0.66155である。なお、ここで、Kp_10はK指数であり、地磁気擾乱を表す指数である。実施の形態に係る情報提供装置、情報提供方法およびプログラムは、この相関関係を状態モデルに反映してもよい。そして、実施の形態に係る情報提供装置、情報提供方法およびプログラムは、カメムシ発生数と環境要因との相関関係等を反映させた状態モデルを用いて、カメムシ発生数を予測し、予測した結果を出力してもよい。これにより、実施の形態に係る情報提供装置、情報提供方法およびプログラムは、農業生産現場における農薬散布量を低減させることができる可能性がある。なお、ここでは、カメムシ発生数を予測するものとしたが、予測する対象の生体は、カメムシに限らない。環境要因との相関関係を用いた予測の対象となる生体は、他の害虫でもよい。ここで、予測に利用する環境要因は、例えば、銀河宇宙線量およびKp_10の他に、F10.7インデックス、太陽活動、地磁気活動、プロトン現象、放射線帯電子、電離圏嵐、デリンジャー現象、スポラディックE層、気圧、降水量、気温、湿度、風速、日照時間、雲量および月齢等を含んでもよい。また、実施の形態に係る情報提供装置、情報提供方法およびプログラムは、予測された害虫の発生数ではなく、害虫の発生数から推定される農薬散布量等を出力してもよい。また、実施の形態の状態モデルは、銀河宇宙線量またはK指数等の宇宙天気を含む環境要因から、害虫発生数を予測し、予測した結果をもとに、農作物の望ましい収穫時期等を推測して出力してもよい。 Further, in the above embodiment, the living body for determining the biological state in which the state of the environmental factor indicated by the environmental information has an influence on the mind and body of the living body is not limited to humans. For example, the living body for determining the biological state in which the state of the environmental factor indicated by the environmental information affects the mind and body of the living body may be a stink bug. FIG. 16 is a table showing the relationship between the number of stink bugs and environmental factors. As shown in FIG. 16, the number of stink bugs has a statistically significant correlation with galactic cosmic dose and Kp_10. Specifically, the number of stink bugs has a correlation coefficient of 0.64714 with the galactic cosmic dose and a correlation coefficient of -0.66155 with Kp_10. Here, Kp_10 is a K-index, which is an index representing geomagnetic disturbance. The information providing device, the information providing method, and the program according to the embodiment may reflect this correlation in the state model. Then, the information providing device, the information providing method, and the program according to the embodiment predict the number of stink bugs using a state model that reflects the correlation between the number of stink bugs and environmental factors, and obtain the predicted result. It may be output. Thereby, the information providing device, the information providing method and the program according to the embodiment may be able to reduce the amount of pesticide sprayed at the agricultural production site. Although the number of stink bugs is predicted here, the living body to be predicted is not limited to stink bugs. The living body to be predicted using the correlation with environmental factors may be other pests. Here, the environmental factors used for prediction include, for example, galaxy cosmic dose and Kp_10, F10.7 index, solar activity, geomagnetic activity, proton phenomenon, radiation belt electron, ionospheric storm, Delinger phenomenon, sporadic E. It may include layers, pressure, precipitation, temperature, humidity, wind speed, sunshine duration, cloud cover, age and the like. In addition, the information providing device, the information providing method, and the program according to the embodiment may output the amount of pesticide sprayed estimated from the number of pests generated, not the predicted number of pests generated. In addition, the state model of the embodiment predicts the number of pests generated from environmental factors including space weather such as galaxy cosmic dose or K index, and estimates the desired harvest time of agricultural products based on the predicted results. May be output.
 (11)ここまでに説明した本発明では、環境要因の状態と生体の健康又は経済動向の変化との関連性を過去の実績から見出し、この関連性を利用して現在又は将来における生体の健康又は経済動向の判定がなされているが、本発明の適用は環境要因との関連性が見出せるものであれば他の対象にも広げ得る。例えば流行歌の歌詞、ブログ又はSNS(Social Networking Service)の投稿等の、その時期の大衆の心情が表れ得る言語表現に含まれる。 (11) In the present invention described so far, the relationship between the state of environmental factors and changes in biological health or economic trends is found from past achievements, and the relationship is used to utilize the current or future biological health. Alternatively, although economic trends have been determined, the application of the present invention can be extended to other subjects as long as it can be found to be related to environmental factors. For example, it is included in linguistic expressions that can express the feelings of the general public at that time, such as lyrics of popular songs, blogs, and posts on SNS (Social Networking Service).
 Twitterに含まれる語彙の頻度と重み付けから幸福度(hedonometer)を測る手法が提案されている(非特許文献20参照)。この幸福度と環境要因との変化との関連性が過去の実績から見出されれば、本発明を適用することができる。Hedonometer値が、男性の「故意の自傷及び自殺」を予測する環境要因の一つである。図17は、本発明者らが得た、示す時期と場所とが対応するhedonometerの実績データと環境要因の実績データとを用いた重回帰分析の結果を示す表である。これらは互いに全く異種の現象に関するデータであり、両者間には統計学的に有意に強い関連性が見られないという結果が通常は予想される。しかしながら、環境要因のうち銀河宇宙線量、F10.7 index、シューマン共振強度、各月は、統計学的に有意な関連性が見られた。このような関連性は、銀銀河宇宙線量、F10.7 index、シューマン共振強度、各月の、hedonometerの推定材料としての利用可能性を示唆する。さらに、各月と幸福度は、一貫して統計学的に有意な相関が見られたことから、何らかの周期性が見られることが示唆された。また、これにより取得された現在又は将来の幸福度の判定の結果は、上述の健康状態の判定又は経済動向の判定の結果と組み合わせて用いられてもよい。これにより、より適切な健康情報又は経済動向情報の取得が可能になる。また、環境要因に、シューマン共振の代わりに雷数が含まれてもよい。 A method for measuring happiness (hedonometer) from the frequency and weighting of vocabulary contained in Twitter has been proposed (see Non-Patent Document 20). The present invention can be applied if the relationship between the degree of happiness and the change in environmental factors is found from past achievements. The Hedonometer value is one of the environmental factors that predicts "intentional self-harm and suicide" in men. FIG. 17 is a table showing the results of multiple regression analysis obtained by the present inventors using the actual data of the hedonometer corresponding to the indicated time and place and the actual data of environmental factors. These are data on phenomena that are completely different from each other, and it is usually expected that there is no statistically significant association between the two. However, among the environmental factors, galactic cosmic dose, F10.7 index, Schumann resonance intensity, and each month were statistically significantly related. Such associations suggest the availability of galaxy cosmic dose, F10.7 index, Schumann resonance intensity, and monthly hedonometer. Furthermore, there was a consistent and statistically significant correlation between each month and happiness, suggesting that there was some periodicity. In addition, the result of the current or future happiness determination obtained thereby may be used in combination with the result of the above-mentioned determination of health condition or determination of economic trend. This makes it possible to obtain more appropriate health information or economic trend information. Also, environmental factors may include the number of lightning strikes instead of the Schumann resonance.
 図18は、環境要因から関連性を用いて幸福度を算出する過程を示した概略図である。例えば、感情推定部18aは、図14に示された環境要因同士および環境要因と幸福度との重回帰分析の結果や相関係数を利用して、幸福度を算出する。具体的には、感情推定部18aは、K指数、シューマン共振強度およびF10.7 Indexの幸福度との重回帰分析の結果や相関係数を用いて、幸福度を算出する。K指数およびシューマン共振強度は、それぞれBulk Speedおよび銀河宇宙線量と相関関係を持つため、幸福度は、Bulk Speedおよび銀河宇宙線量から、間接的に求められてもよい。ここで、挙げられた環境要因は、幸福度の算出にすべて使用されなくてもよく、感情推定部18aは、Bulk SpeedからK指数を算出して、幸福度を算出するルート、銀河宇宙線量からシューマン共振を算出して、幸福度を算出するルート、または、F10.7 Indexから幸福度を算出するルートのいずれかを用いて幸福度を算出してもよい。 FIG. 18 is a schematic diagram showing the process of calculating happiness from environmental factors using relevance. For example, the emotion estimation unit 18a calculates the happiness level by using the results of the multiple regression analysis of the environmental factors shown in FIG. 14 and the environmental factors and the happiness level and the correlation coefficient. Specifically, the emotion estimation unit 18a calculates the happiness level by using the result of the multiple regression analysis with the K index, the Schumann resonance intensity, and the happiness level of F10.7 Index and the correlation coefficient. Since the K-index and the Schumann resonance intensity correlate with the Bulk Speed and the galactic cosmic dose, respectively, the happiness may be obtained indirectly from the Bulk Speed and the galactic cosmic dose. Here, all of the environmental factors listed here do not have to be used in the calculation of happiness, and the emotion estimation unit 18a calculates the K index from Bulk Speed, and the route for calculating happiness, from the galactic cosmic dose. The happiness may be calculated using either the route of calculating the Schumann resonance and calculating the happiness, or the route of calculating the happiness from F10.7 Index.
 なお、感情推定部18aは、銀河宇宙線量から直接幸福度を算出してもよい。また、感情推定部18aは、Bulk Speedおよび銀河宇宙線量の間の相関係数、または、銀河宇宙線量およびF10.7 Indexの間の相関係数を、幸福度の算出に利用してもよい。 The emotion estimation unit 18a may directly calculate the happiness level from the galactic cosmic dose. In addition, the emotion estimation unit 18a may use the correlation coefficient between Bulk Speed and the galactic cosmic dose, or the correlation coefficient between the galactic cosmic dose and F10.7 Index, to calculate the degree of happiness.
 図19は、環境要因から重回帰分析の結果や相関を用いて算出された幸福度から、ユーザの行動を予測する過程を示した概略図である。環境要因から幸福度が算出される過程は、図14で説明された内容と同様であるため、説明を省略する。行動予測部18bは、幸福度との重回帰分析の結果や相関係数に基づいて、ユーザの行動を予測する。行動の予測結果は、例えば、男性の「故意の自傷及び自殺」による死亡数といった指標で表されてもよい。また、行動予測部18bは、Bulk Speed、銀河宇宙線量、および、F10.7 Indexといった、ユーザの行動と統計学的に有意な関連性を持つ環境要因から直接、ユーザの行動を予測してもよい。 FIG. 19 is a schematic diagram showing the process of predicting the user's behavior from the happiness calculated by using the result of multiple regression analysis and the correlation from environmental factors. Since the process of calculating happiness from environmental factors is the same as that described in FIG. 14, the description will be omitted. The behavior prediction unit 18b predicts the user's behavior based on the result of multiple regression analysis with happiness and the correlation coefficient. The predicted behavioral result may be expressed as an index such as the number of deaths due to "intentional self-harm and suicide" of a man. In addition, even if the behavior prediction unit 18b predicts the user's behavior directly from environmental factors such as Bulk Speed, Galactic Space Dose, and F10.7 Index, which are statistically significantly related to the user's behavior. Good.
 ここで、予測の対象となるユーザの行動は、例えば、故意の自傷及び自殺による死亡数、交通事故による死亡数、不慮の損傷にその他の外因による死亡数、不慮または故意であると決定されない事件による死亡数、加害に基づく障害及び死亡による死亡数、および、各疾患による死亡数といった指標で合わされる行動を含む。また、予測の対象となるユーザの行動は、購買行動等を含んでもよいし、株式市場の値動きなど、1人のユーザに限定された行動ではないものでもよい。 Here, the behavior of the user to be predicted is not determined to be, for example, the number of deaths due to intentional self-injury and suicide, the number of deaths due to a traffic accident, the number of deaths due to accidental damage or other external causes, accidental or intentional. Includes actions combined by indicators such as the number of deaths from incidents, the number of deaths from injury and death due to perpetration, and the number of deaths from each disease. Further, the behavior of the user to be predicted may include purchasing behavior and the like, and may not be limited to one user such as price movement of the stock market.
 なお、図18および図19で示された予測の過程は一例であり、必ずしも図18及び図19で示されたルートおよび数値がこのまま用いられなくてもよい。また、Hedonometerの値は、集団の心理状態と関係性があると考えられ、Hedonometerの値は、環境要因の一つである集団の心理状態の推定の根拠となりうる。 Note that the prediction process shown in FIGS. 18 and 19 is an example, and the routes and numerical values shown in FIGS. 18 and 19 do not necessarily have to be used as they are. In addition, the value of Hedonometer is considered to be related to the psychological state of the group, and the value of Hedomometer can be the basis for estimating the psychological state of the group, which is one of the environmental factors.
 図20は、時間を考慮した自殺と環境要因との因果関係を示す表である。図20では、時間を考慮した縦断的研究において、コントロール群を置き、因果関係を主張できる、ケースクロスオーバーデザインを用いた解析の結果が示されている。台湾の医療保険データを用いて、自殺企図のタイプと性別を分けて行われた解析によると、女性の暴力的自殺および非暴力的自殺は、プロトンフラックスと統計学的に有意な関連性が見られる。このことから、宇宙天気の一つであるプロトンフラックスが女性の自殺企図に影響を与える因果関係が示唆される。さらに、女性の非暴力的な自殺と気温が統計学的に有意な関連性が見られることから、気象と宇宙天気との、組み合わせの有効性が示された。よって、本実施の形態にかかる情報提供装置等による状態の推定および予測は、実証的に裏付けられうる。 FIG. 20 is a table showing the causal relationship between suicide and environmental factors in consideration of time. FIG. 20 shows the results of an analysis using a case crossover design in which a control group can be placed and a causal relationship can be asserted in a longitudinal study considering time. Violent and non-violent suicides in women are statistically significantly associated with proton flux, according to an analysis performed by type and gender of suicide attempts using Taiwanese health insurance data. Be done. This suggests a causal relationship in which proton flux, which is one of the space weather conditions, affects women's suicide attempts. In addition, a statistically significant association between female nonviolent suicide and temperature demonstrated the effectiveness of the combination of meteorological and space weather. Therefore, the estimation and prediction of the state by the information providing device or the like according to the present embodiment can be empirically supported.
 また、大規模な地震の発生前にはその震央地周辺で、気象又は宇宙天気に変化が現れたとする報告が数多く存在する。その中でも宇宙天気に関係する電離層や大気中における電磁気学的現象に関しては、地震との統計的関連性が示されている(例えば非特許文献21、22参照)。したがって、地震と環境要因の変化との関連性が過去の実績から見出されれば、本発明を適用することができる。さらに、地震と、地震発生前の精神疾患や行動との間にも関連性を見出した報告がされている。したがって、これにより取得された現在又は将来の地震発生の判定の結果は、上述の健康状態や、幸福度、経済動向の判定の結果と組み合わせて用いることで、より適切な健康情報や経済動向情報、地震発生予測情報の取得が可能になる。 In addition, there are many reports that changes in weather or space weather appeared around the epicenter before the occurrence of a large-scale earthquake. Among them, the ionosphere related to space weather and the electromagnetic phenomenon in the atmosphere have been shown to be statistically related to earthquakes (see, for example, Non-Patent Documents 21 and 22). Therefore, the present invention can be applied if the relationship between the earthquake and the change of environmental factors is found from the past results. Furthermore, it has been reported that an association was found between the earthquake and mental illness and behavior before the occurrence of the earthquake. Therefore, the results of the current or future earthquake occurrence determination obtained in this way can be used in combination with the above-mentioned results of the determination of health condition, happiness, and economic trends to provide more appropriate health information and economic trend information. , It becomes possible to acquire earthquake occurrence prediction information.
 また、生体の健康状態の判定に用い得る情報のさらなる例としては、環境DNA及び環境RNA(以下、少なくとも一方を指して環境遺伝子ともいう)から得られる情報が挙げ得る。生体を取り巻く環境で採取される環境遺伝子からは、例えば生体の個体数、地理的分布、及び集団としてのエピジェネティックな情報等が取得される。このような情報を示す環境遺伝子のデータと生体の健康状態のデータとにさらに基づくよう生成した健康影響モデルを用いて、判定の対象である生体を取り巻く環境遺伝子から得らえる情報(本願における環境遺伝子情報の例)に対応する健康状態を導出することで、当該対象の生体の健康状態の判定が行われてもよい。エピジェネティックな情報の例として、生体の疾患の発生、凶暴性等の気質的変化の傾向に関するものが挙げられる。疾患の発生については、例えばワクチン等又は特効薬の準備計画、人の疾患であれば、医療保険制度での対応への利用可能性がある。また、やや極端な例ではあるが、人の凶暴性の昂進が捉えられた場合には、凶悪な犯罪の抑止策の立案実施等への利用可能性がある。なお、このような情報は、生体の健康のみならず、上述のような経済動向の判定にも用い得る可能性がある。例えば購買行動の発現と関連性の高い変化がエピジェネティックな情報として取得されるケースが考えられる。 Further, as a further example of information that can be used for determining the health condition of a living body, information obtained from environmental DNA and environmental RNA (hereinafter, also referred to as an environmental gene by referring to at least one of them) can be mentioned. From the environmental genes collected in the environment surrounding the living body, for example, the number of individuals of the living body, the geographical distribution, epigenetic information as a group, and the like are acquired. Information obtained from the environmental genes surrounding the living body to be determined (environment in the present application) using a health effect model generated based on the data of the environmental genes showing such information and the data of the health condition of the living body. By deriving the health state corresponding to (example of genetic information), the health state of the living body of the target may be determined. Examples of epigenetic information include those relating to the occurrence of biological diseases and the tendency of temperamental changes such as violence. Regarding the outbreak of illness, for example, there is a possibility that it can be used for preparation plans for vaccines and silver bullets, and for human illnesses, the medical insurance system. In addition, although it is a rather extreme example, if a person's violent rise is caught, it may be used for planning and implementing deterrent measures for violent crimes. It should be noted that such information may be used not only for the health of living organisms but also for the determination of economic trends as described above. For example, there may be a case where changes that are highly related to the manifestation of purchasing behavior are acquired as epigenetic information.
 また、上述したhedonometerのような、生体の集団の心理状態の情報も生体の状態の判定に用い得る情報の例に含まれる。このような生体の集団の心理状態の情報のデータと生体の健康状態のデータとにさらに基づくよう生成した状態モデルを用いて、判定の対象である生体を含む集団の心理状態の情報(本願における集団心理状態情報の例)に対応する健康状態を導出することで、当該対象の生体の健康状態の判定が行われてもよい。 In addition, information on the psychological state of a group of living organisms, such as the above-mentioned hedonometer, is also included in the example of information that can be used for determining the state of living organisms. Information on the psychological state of the group including the living body to be determined (in the present application) using a state model generated based on the data of the psychological state of the living body and the data of the health state of the living body. By deriving the health state corresponding to the group psychological state information), the health state of the living body of the target may be determined.
 (12)上述の状態モデルは、単一のモデルであることに限定されない。例えば、環境要因の状態を示すデータ及び生体の状態を示すデータに基づく状態モデルと、環境遺伝子のデータ及び生体の状態を示すデータに基づく状態モデルとは個別の状態モデルであってもよい。ユーザには、それぞれの状態モデルを用いて行われた判定の結果の個々に基づく情報が提示されてもよいし、両方の結果にさらに基づいて導出される情報が提示されてもよい。また、実施の形態における情報提供装置、情報提供方法およびプログラムは、ユーザから、状態モデルが予測した日時である対象日時におけるユーザの状態に関するフィードバックを取得してもよい。具体的には、状態モデルは、ユーザから、対象日時における感情(喜怒哀楽、抑鬱、不安、怠慢、非活動的快、集中、敵意、活動的快、親和または驚愕等を含む)、または、疾患の憎悪若しくは発症に関する情報を取得する。実施の形態における情報提供装置、情報提供方法およびプログラムは、上記の状態に関する情報を、ユーザから専用のアプリケーションを通じて取得したり、ユーザのSNSを分析することで取得したりしてもよい。ユーザのSNSは、統計解析またはディープラーニング等の機械学習等で分析されてもよい。そして、実施の形態における情報提供装置、情報提供方法およびプログラムは、取得したユーザからのフィードバックに基づいて、状態モデルを学習によって、最適化してもよい。最適化は、逐次的に行われてもよく、フィードバックが取得される毎に、その都度行われてもよい。これにより、実施の形態における情報提供装置、情報提供方法およびプログラムは、ユーザの状態を個人レベルで、精度良く予測することができる。 (12) The above-mentioned state model is not limited to a single model. For example, the state model based on the data showing the state of the environmental factor and the data showing the state of the living body and the state model based on the data of the environmental gene and the data showing the state of the living body may be individual state models. The user may be presented with individually based information on the results of determinations made using the respective state models, or may be presented with information further derived based on both results. In addition, the information providing device, the information providing method, and the program in the embodiment may obtain feedback from the user regarding the user's state at the target date and time, which is the date and time predicted by the state model. Specifically, the state model can be sent from the user to emotions (including emotions, depression, anxiety, negligence, inactive pleasure, concentration, hostility, active pleasure, affinity or startle, etc.) at the target date and time. Get information about the aggravation or onset of the disease. The information providing device, the information providing method, and the program in the embodiment may acquire information on the above state from the user through a dedicated application or by analyzing the user's SNS. The user's SNS may be analyzed by statistical analysis, machine learning such as deep learning, or the like. Then, the information providing device, the information providing method, and the program in the embodiment may optimize the state model by learning based on the acquired feedback from the user. The optimization may be performed sequentially, or each time feedback is obtained. Thereby, the information providing device, the information providing method, and the program in the embodiment can accurately predict the state of the user at the individual level.
 また、本開示の実施の形態における情報提供装置は、状態モデルを用いて、個人(または集団)の感情指標を用いて、周期性を同定した上で個人(または集団)の心理状態または行動を予測してもよい。例えば、本開示の実施の形態における情報提供装置は、過去のデータまたは予測された心理状態または行動に基づいて、個人(または集団)の周期性を同定する。そして、本開示の実施の形態における情報提供装置は、同定された周期性に基づいて、個人(または集団)の心理状態または行動を予測する。 In addition, the information providing device according to the embodiment of the present disclosure uses a state model to identify the periodicity of an individual (or group) emotional index, and then determines the psychological state or behavior of the individual (or group). You may predict. For example, the information providing device in the embodiments of the present disclosure identifies the periodicity of an individual (or group) based on historical data or predicted psychological states or behaviors. The information providing device in the embodiment of the present disclosure then predicts the psychological state or behavior of an individual (or group) based on the identified periodicity.
 (13)上述の情報提示装置の構成要素は、例えば、それぞれがプロセッサ及びメモリを備え、互いに通信可能な複数台のコンピュータが協調して動作し、上述の各情報処理装置と同様の機能を提供する情報提供システムの構成要素として実現されてもよい。この場合、これらの構成要素は、例えば、これらのコンピュータが備えるプロセッサの一部又は全部が、これらのコンピュータが備えるメモリの一部又は全部に記憶される1個又は複数個のプログラムを実行することで実現される。 (13) The components of the above-mentioned information presenting device include, for example, a plurality of computers each having a processor and a memory and capable of communicating with each other, operating in cooperation with each other, and providing the same functions as each of the above-mentioned information processing devices. It may be realized as a component of the information processing system. In this case, these components are such that, for example, some or all of the processors provided by these computers execute one or more programs stored in some or all of the memory provided by these computers. It is realized by.
 (14)本発明の一態様は、上述の情報提示装置又は情報提示システムだけではなく、情報提示装置に含まれる特徴的な構成要素の機能による処理をステップとする情報提示方法であってもよい。この情報提示方法は、例えば、図5のフローチャートを用いて上述した情報提示方法である。また、本発明の一態様は、このような情報提示方法に含まれる特徴的な各ステップを情報処理装置が備えるプロセッサに実行させるコンピュータプログラムであってもよい。また、本発明の一態様は、そのようなコンピュータプログラムが記録された、コンピュータ読み取り可能な非一時的な記録媒体であってもよい。 (14) One aspect of the present invention may be not only the above-mentioned information presenting device or information presenting system, but also an information presenting method in which processing by a function of a characteristic component included in the information presenting device is a step. .. This information presentation method is, for example, the information presentation method described above using the flowchart of FIG. Further, one aspect of the present invention may be a computer program that causes a processor included in the information processing apparatus to execute each characteristic step included in such an information presentation method. Further, one aspect of the present invention may be a computer-readable non-temporary recording medium on which such a computer program is recorded.
 (15)上記実施の形態の説明において、健康状態の判定対象であるユーザが形態又は装着する情報提供装置10が備える機能的構成要素として実現される例を挙げた制御部18及び記憶部16の一方又は両方は、情報提供装置10と通信可能な外部の装置に備えられてもよい。例えば情報提供装置10と通信ネットワークを介して通信可能な、クラウドサービスを提供するサーバにおいて実現されてもよい。例えばクラウドサービスを提供するサーバに制御部18及び記憶部16があるとする。この場合、センサ21を用いた計測結果に基づく生体情報は、随時、又は健康状態の判定対象であるユーザの操作によって当該サーバに送信され、個体情報として記憶部16で保持される。そして、当該サーバでは、制御部18によってこの生体情報を含む個体情報とその他の必要な情報とを用いて健康状態の判定が実行され、さらに判定結果に対応する健康情報が取得される。この健康情報は、当該ユーザのみならず、広義のユーザ、つまり当該ユーザの家族又は主治医等の情報提供装置10である情報処理装置に送信されて提供されてもよい。または、これらのユーザは健康情報のデータの場所の通知を受け、情報提供装置10を通じてその場所にアクセスして健康情報の提供を受けてもよい。つまりは、ユーザは健康情報のインターネット上のURL(Uniform Resource Locator)の通知を受け、情報提供装置10にインストールされている専用のアプリケーション又は汎用のウェブブラウザを用いて当該URLにアクセスし、健康情報の提供を受けてもよい。これもまた、本発明者らが考える情報提供システムの実現形態のひとつである。 (15) In the description of the above embodiment, the control unit 18 and the storage unit 16 have an example realized as a functional component of the information providing device 10 formed or worn by the user who is the target of determining the health state. One or both may be provided in an external device capable of communicating with the information providing device 10. For example, it may be realized in a server that provides a cloud service that can communicate with the information providing device 10 via a communication network. For example, suppose that a server that provides a cloud service has a control unit 18 and a storage unit 16. In this case, the biological information based on the measurement result using the sensor 21 is transmitted to the server at any time or by the operation of the user who is the target of determining the health state, and is stored in the storage unit 16 as individual information. Then, in the server, the control unit 18 executes the determination of the health state using the individual information including the biological information and other necessary information, and further acquires the health information corresponding to the determination result. This health information may be transmitted and provided not only to the user but also to a user in a broad sense, that is, an information processing device which is an information providing device 10 such as the user's family or an attending physician. Alternatively, these users may be notified of the location of the health information data and may access the location through the information providing device 10 to receive the health information. That is, the user receives the notification of the URL (Uniform Resource Locator) of the health information on the Internet, accesses the URL using the dedicated application or general-purpose web browser installed in the information providing device 10, and performs the health information. May be provided. This is also one of the realization forms of the information providing system considered by the present inventors.
 (16)本発明に係る情報提示装置等が市場においてとり得る形は、図7及び図8に例示するような健康情報の提供手段に限定されない。例えば、占いサービスの提供手段のように、よりカジュアルな形をとってもよい。ただし、占いを名乗るものではあっても、統計学に裏打ちされる因果関係や相関関係等を利用するものであるため、従来のものに比べてより信ぴょう性の高いものとなり得る。具体例としては、自分若しくは周囲の人々の気分及び体調、又はさらにこれらに基づく人間関係、好ましくない状況を好転させるような持ち物(ラッキーアイテム)又は行動に関するアドバイスを提示する占いサービスの提供手段としての展開が考え得る。また一方では、治験を重ね、薬事承認を得た上での医療機器としての形もとり得る。例えば、患者に見られた症状の波と環境要因等との関連性に基づく疾病の診断ツール、又は発症のコントロール等のための機器としての展開が考え得る。また、医療機関又は研究機関においては、治験又は臨床試験の被験者登録の効率化のために、環境要因の予測等に基づいて推定する各種疾病の患者発生の時期及び場所の情報を得るツールとして本発明に係る情報提示装置が利用され得る。 (16) The form that the information presenting device or the like according to the present invention can take in the market is not limited to the means for providing health information as illustrated in FIGS. 7 and 8. For example, it may take a more casual form, such as a means of providing a fortune-telling service. However, even if it claims to be fortune-telling, it can be more credible than the conventional one because it uses causal relationships and correlations backed by statistics. As a specific example, as a means of providing a fortune-telling service that presents advice on the mood and physical condition of oneself or those around him, or personal relationships based on these, belongings (lucky items) or actions that may improve unfavorable situations. Deployment is possible. On the other hand, it can also be used as a medical device after repeated clinical trials and obtaining regulatory approval. For example, it can be considered to be developed as a diagnostic tool for diseases based on the relationship between the wave of symptoms seen in a patient and environmental factors, or as a device for controlling the onset of the disease. In addition, in medical institutions or research institutes, in order to improve the efficiency of subject registration in clinical trials or clinical trials, this tool is used as a tool to obtain information on the time and place of occurrence of patients with various diseases estimated based on prediction of environmental factors. The information presentation device according to the invention can be used.
 本発明に係る技術は、健康管理の対象者の現在又は将来の心身の状態に気象などの環境要因が与える影響を加味した対処を可能にする情報を提供する技術として利用可能である。 The technique according to the present invention can be used as a technique for providing information that enables coping with the influence of environmental factors such as weather on the current or future mental and physical condition of a person subject to health management.
 1  情報提供システム
 10 情報提供装置
 12 ユーザインタフェース
 14 通信部
 16 記憶部
 17 環境情報取得部
 18 制御部
 18a 感情推定部
 18b 行動予測部
 18c 健康判定部
 20 計測機器
 21 センサ
 50 サーバ
1 Information providing system 10 Information providing device 12 User interface 14 Communication unit 16 Storage unit 17 Environmental information acquisition unit 18 Control unit 18a Emotion estimation unit 18b Behavior prediction unit 18c Health judgment unit 20 Measuring equipment 21 Sensor 50 Server

Claims (30)

  1.  所与の日時及び場所における対象生体の生体状態に影響し得る環境要因の状態を示す環境情報を取得する環境情報取得部と、
     過去に計測された前記環境要因の状態を示すデータと、当該環境要因の状態の計測が実行された場所及び時期に対応する場所及び時期に計測された生体の生体状態を示すデータとに基づく状態モデルを保持する記憶部と、
     前記環境情報に基づいて、前記状態モデルを用いて、前記環境情報に対応する前記対象生体の前記生体状態を特定し、特定した前記生体状態に基づく、前記所与の日時における前記対象生体の前記生体状態に関連する情報を取得して出力する制御部と、を備える、
     情報提供装置。
    An environmental information acquisition unit that acquires environmental information indicating the state of environmental factors that can affect the biological state of the target living body at a given date and time and place.
    A state based on data indicating the state of the environmental factor measured in the past and data indicating the biological state of the living body measured at the place and time corresponding to the place and time when the measurement of the state of the environmental factor was executed. A storage unit that holds the model and
    Based on the environmental information, the state model is used to identify the biological state of the target living body corresponding to the environmental information, and the target living body at the given date and time based on the specified biological state. It is equipped with a control unit that acquires and outputs information related to the biological state.
    Information providing device.
  2.  前記制御部は、
     前記環境情報に基づいて推定された環境要因を用いた感情推定モデルに基づいて、前記対象生体の感情を表す指標である感情指標であって、前記対象生体の感情を推定することが望まれる対象日時における感情指標を特定する感情推定部と、
     前記感情推定部が特定した前記感情指標に基づいて、前記対象日時における前記対象生体の行動を予測して出力する行動予測部と、を備える
     請求項1に記載の情報提供装置。
    The control unit
    An emotion index that is an index representing the emotion of the target organism based on an emotion estimation model using environmental factors estimated based on the environmental information, and it is desired to estimate the emotion of the target organism. An emotion estimation unit that identifies emotion indicators at the date and time, and
    The information providing device according to claim 1, further comprising a behavior prediction unit that predicts and outputs the behavior of the target living body at the target date and time based on the emotion index specified by the emotion estimation unit.
  3.  前記制御部は、
     前記環境情報に基づいて生成された環境要因を用いた健康影響モデルを用いて前記環境情報に対応する健康状態を判定し、判定した前記健康状態に基づく、前記所与の日時における前記対象生体の健康状態に関連する健康情報を取得して出力する健康判定部と、を備える、
     請求項1または2に記載の情報提供装置。
    The control unit
    A health condition corresponding to the environmental information is determined using a health effect model using environmental factors generated based on the environmental information, and the target living body at the given date and time based on the determined health condition. It is equipped with a health judgment unit that acquires and outputs health information related to the health condition.
    The information providing device according to claim 1 or 2.
  4.  前記環境要因は、
     気圧、降水量、雲量、気温、湿度、風速、日照時間、雷数、降雪量及び季節の少なくともひとつを指す気象と、太陽活動、地磁気活動、電離圏活動、宇宙線量、銀河宇宙線量、F10.7インデックス、黒点数、プロトン現象、バルクスピード、プロトンフラックス、放射線帯電子、電離圏嵐、デリンジャー現象、スポラディックE層、および月齢の少なくともひとつを指す宇宙天気とを含み、
     前記生体状態は、傷病又は傷病を原因とする死亡に関する生体状態であり、
     前記生体状態に関連する情報は、症状、感情、易怒性、機嫌、幸福感、集中力、注意力、衝動性、活動性、躁行動、鬱行動、犯罪行為、交通事故、休息行動、通勤・通学行動、通院行動、購買行動、外食行動、迷惑行為、飲酒行為、睡眠、及び、外出行動の少なくともひとつを示す、
     請求項1から3のいずれか一項に記載の情報提供装置。
    The environmental factors are
    Meteorology, which refers to at least one of pressure, precipitation, cloud cover, temperature, humidity, wind speed, sunshine time, number of thunder, snowfall, and season, and solar activity, geomagnetic activity, ionospheric activity, cosmic dose, galactic cosmic dose, F10. Includes 7 indexes, black spots, proton phenomenon, bulk speed, proton flux, radiation belt electrons, ionosphere storms, Delinger phenomenon, Sporadic E layer, and space weather pointing to at least one of the ages of the moon.
    The biological state is a biological state relating to injury or illness or death caused by injury or illness.
    Information related to the biological condition includes symptoms, emotions, irritability, mood, happiness, concentration, attention, impulsivity, activity, maneuvering behavior, depression behavior, criminal behavior, traffic accidents, resting behavior, and commuting.・ Indicates at least one of school behavior, hospital behavior, purchasing behavior, eating out behavior, annoying behavior, drinking behavior, sleeping, and going out behavior.
    The information providing device according to any one of claims 1 to 3.
  5.  前記環境要因は、集団の心理状態を示す集団心理状態情報を含む
     請求項1から4のいずれか一項に記載の情報提供装置。
    The information providing device according to any one of claims 1 to 4, wherein the environmental factor includes group psychological state information indicating a group psychological state.
  6.  前記環境要因は、シューマン共振の強度を含む
     請求項1から5のいずれか一項に記載の情報提供装置。
    The information providing device according to any one of claims 1 to 5, wherein the environmental factor includes the intensity of Schumann resonance.
  7.  前記環境要因は、気圧、降水量、雲量、気温、湿度、風速、日照時間、雷数、降雪量及び季節のうちの一つと、太陽活動、地磁気活動、宇宙線量、銀河宇宙線量、F10.7インデックス、黒点数、プロトン現象、バルクスピード、プロトンフラックス、および、月齢のうちの一つを指す宇宙天気と、集団心理状態情報と、SO2、CO、O3、NOx、NO、NO2、CH4、およびPM10のうちの少なくとも一つと、を含む、
     請求項1から6のいずれか一項に記載の情報提供装置。
    The environmental factors include atmospheric pressure, precipitation, cloud cover, temperature, humidity, wind speed, sunshine duration, lightning count, snowfall, and one of the seasons, as well as solar activity, geomagnetic activity, cosmic dose, galactic cosmic dose, and F10.7. Space weather, which indicates one of the index, number of black dots, proton phenomenon, bulk speed, proton flux, and age, group psychological state information, SO2, CO, O3, NOx, NO, NO2, CH4, and PM10. Including, with at least one of
    The information providing device according to any one of claims 1 to 6.
  8.  前記環境要因は、前記気圧、前記降水量、前記雲量、前記気温、前記湿度、前記風速、前記日照時間、前記雷数、前記降雪量及び前記季節の少なくともひとつを指す前記気象と、前記太陽活動、前記地磁気活動、前記電離圏活動、前記宇宙線量、前記銀河宇宙線量、前記F10.7インデックス、前記黒点数、前記プロトン現象、前記放射線帯電子、前記電離圏嵐、前記デリンジャー現象、前記スポラディックE層、および前記月齢の少なくともひとつを指す前記宇宙天気の累積曝露量を含む、
     請求項1から7のいずれか一項に記載の情報提供装置。
    The environmental factors include the meteorology, which refers to at least one of the pressure, the precipitation, the cloud, the temperature, the humidity, the wind speed, the sunshine time, the number of thunders, the snowfall, and the season, and the solar activity. , The geomagnetic activity, the ionospheric activity, the cosmic dose, the galaxy cosmic dose, the F10.7 index, the number of black spots, the proton phenomenon, the radiation belt electrons, the ionospheric storm, the Delinger phenomenon, the sporadic. Includes layer E, and cumulative exposure to the space weather, which refers to at least one of the ages.
    The information providing device according to any one of claims 1 to 7.
  9.  前記健康影響モデルは、前記過去に計測された環境要因の状態を示すデータと前記生体の健康状態のデータとに基づいて、前記環境要因の状態と前記生体の健康状態との関連性を統計的に解析することによって得られたモデルである
     請求項1から8のいずれか一項に記載の情報提供装置。
    The health effect model statistically establishes a relationship between the state of the environmental factor and the health state of the living body based on the data indicating the state of the environmental factor measured in the past and the data of the health state of the living body. The information providing device according to any one of claims 1 to 8, which is a model obtained by analyzing the data.
  10.  前記健康影響モデルは、前記過去に計測された環境要因の状態を示すデータを学習データとして用い、前記生体の健康状態のデータを教師データとして用いる機械学習によって得られた推論モデルである
     請求項1から9のいずれか一項に記載の情報提供装置。
    The health effect model is an inference model obtained by machine learning using the data indicating the state of environmental factors measured in the past as learning data and the data of the health state of the living body as teacher data. The information providing device according to any one of 1 to 9.
  11.  前記健康影響モデルは、さらに前記生体の集団の心理状態を示すデータと前記生体の健康状態のデータとに基づき、
     前記健康判定部は、さらに前記対象生体を含む集団の心理状態を示す集団心理状態情報を取得し、
     前記健康判定部が前記健康影響モデルを用いて判定する前記健康状態は、前記集団心理状態情報が示す心理状態にさらに対応する
     請求項1から10のいずれか一項に記載の情報提供装置。
    The health effect model is further based on data showing the psychological state of the living body group and data on the health state of the living body.
    The health determination unit further acquires group psychological state information indicating the psychological state of the group including the target living body, and obtains group psychological state information.
    The information providing device according to any one of claims 1 to 10, wherein the health state determined by the health determination unit using the health effect model further corresponds to the psychological state indicated by the group psychological state information.
  12.  前記健康影響モデルは、さらに前記生体を取り巻く環境で採取された環境遺伝子のデータと前記生体の健康状態のデータとに基づき、
     前記健康判定部は、さらに前記対象生体を取り巻く環境で採取された環境遺伝子から得られる情報である環境遺伝子情報を取得し、
     前記健康判定部が前記健康影響モデルを用いて判定する前記健康状態は、前記環境遺伝子情報が示す環境遺伝子情報にさらに対応する
     請求項1から11のいずれか一項に記載の情報提供装置。
    The health effect model is further based on data on environmental genes collected in the environment surrounding the living body and data on the health condition of the living body.
    The health determination unit further acquires environmental gene information, which is information obtained from environmental genes collected in the environment surrounding the target living body, and obtains environmental gene information.
    The information providing device according to any one of claims 1 to 11, wherein the health state determined by the health determination unit using the health effect model further corresponds to the environmental gene information indicated by the environmental gene information.
  13.  前記健康影響モデルは、さらに前記生体の個体情報のデータに基づき、
     前記健康判定部は、さらに前記対象生体の個体情報を取得し、
     前記健康判定部が前記健康影響モデルを用いて判定する前記健康状態は、前記対象生体の個体情報にさらに対応する
     請求項1から12のいずれか一項に記載の情報提供装置。
    The health effect model is further based on the data of the individual information of the living body.
    The health determination unit further acquires individual information of the target organism, and obtains individual information.
    The information providing device according to any one of claims 1 to 12, wherein the health state determined by the health determination unit using the health effect model further corresponds to individual information of the target living body.
  14.  前記健康影響モデルは、前記過去に計測された環境要因の状態を示すデータと前記生体の健康状態のデータとに基づいて、所定の日時における前記対象生体の前記健康状態を予測する、
     請求項1~13のいずれか一項に記載の情報提供装置。
    The health effect model predicts the health state of the target living body at a predetermined date and time based on the data indicating the state of environmental factors measured in the past and the data of the health state of the living body.
    The information providing device according to any one of claims 1 to 13.
  15.  前記健康影響モデルは、前記過去に計測された環境要因の状態を示すデータと前記生体の健康状態のデータとに基づいて、所定の日時における前記対象生体の前記健康状態の悪化または疾患の発症を予測する、
     請求項14に記載の情報提供装置。
    The health effect model determines the deterioration of the health condition or the onset of a disease of the target organism at a predetermined date and time based on the data indicating the state of environmental factors measured in the past and the data of the health condition of the living body. Predict,
    The information providing device according to claim 14.
  16.  前記感情推定モデルは、前記過去に計測された環境要因の状態を示すデータと前記生体の感情指標のデータとに基づいて、前記環境要因の状態と前記生体の感情指標との関連性を統計的に解析することによって得られたモデルである、
     請求項1から15のいずれか一項に記載の情報提供装置。
    The emotion estimation model statistically determines the relationship between the state of the environmental factor and the emotion index of the living body based on the data indicating the state of the environmental factor measured in the past and the data of the emotion index of the living body. It is a model obtained by analyzing the
    The information providing device according to any one of claims 1 to 15.
  17.  前記感情推定モデルは、前記過去に計測された環境要因の状態を示すデータを学習データとして用い、前記生体の感情のデータを教師データとして用いる機械学習によって得られた推論モデルである、
     請求項1から16のいずれか一項に記載の情報提供装置。
    The emotion estimation model is an inference model obtained by machine learning using data indicating the state of environmental factors measured in the past as training data and using the emotion data of the living body as teacher data.
    The information providing device according to any one of claims 1 to 16.
  18.  前記機械学習は深層学習である、
     請求項17に記載の情報提供装置。
    The machine learning is deep learning,
    The information providing device according to claim 17.
  19.  前記感情推定部は、前記対象日時より以前の所定時間分の前記環境情報に基づいて、前記対象日時における前記対象生体の感情を表す前記感情指標を特定する、
     請求項1から18のいずれか一項に記載の情報提供装置。
    The emotion estimation unit identifies the emotion index representing the emotion of the target living body at the target date and time based on the environmental information for a predetermined time before the target date and time.
    The information providing device according to any one of claims 1 to 18.
  20.  前記感情推定部は、前記過去に計測された環境要因の状態を示すデータと前記生体の感情指標のデータとに基づいて、所定の日時における前記対象生体の感情を表す前記感情指標を予測する、
     請求項1~19のいずれか1項に記載の情報提供装置。
    The emotion estimation unit predicts the emotion index representing the emotion of the target living body at a predetermined date and time based on the data indicating the state of the environmental factor measured in the past and the data of the emotion index of the living body.
    The information providing device according to any one of claims 1 to 19.
  21.  前記行動予測部は、前記対象生体の感情指標のデータに基づいて、前記生体の感情指標のデータと前記生体が行った行動を示すデータとの関連性を統計的に解析することによって得られたモデルを用いて、前記対象日時における前記対象生体の行動を予測する、
     請求項1から20のいずれか一項に記載の情報提供装置。
    The behavior prediction unit was obtained by statistically analyzing the relationship between the data of the emotion index of the living body and the data indicating the behavior performed by the living body based on the data of the emotion index of the target living body. Using a model, predict the behavior of the target organism at the target date and time.
    The information providing device according to any one of claims 1 to 20.
  22.  前記感情推定部は、前記過去に計測された環境要因の状態を示すデータと前記生体の感情指標のデータとに基づいて、1または複数の前記対象生体の感情指標の変化の周期性を同定し、前記周期性に基づいて、1または複数の前記対象生体の感情指標を特定または予測する、
     請求項1から21のいずれか一項に記載の情報提供装置。
    The emotion estimation unit identifies the periodicity of change in the emotion index of one or more of the target organisms based on the data indicating the state of the environmental factors measured in the past and the data of the emotion index of the living body. , Identifying or predicting one or more emotional indicators of the subject body based on the periodicity.
    The information providing device according to any one of claims 1 to 21.
  23.  前記行動予測部は、前記生体の感情指標のデータとに基づいて、1または複数の前記対象生体の行動の変化の周期性を同定し、前記周期性に基づいて、1または複数の前記対象生体の行動を特定または予測する、
     請求項1から22のいずれか一項に記載の情報提供装置。
    The behavior prediction unit identifies the periodicity of the behavioral change of the target organism based on the data of the emotion index of the organism, and based on the periodicity, the behavior prediction unit identifies the periodicity of the behavior of the target organism, and based on the periodicity, the behavior prediction unit one or more of the target organisms. Identify or predict the behavior of
    The information providing device according to any one of claims 1 to 22.
  24.  前記個体情報は、生体情報、遺伝情報、エピジェネティック情報及び誕生時期の少なくともひとつを含む
     請求項13に記載の情報提供装置。
    The information providing device according to claim 13, wherein the individual information includes at least one of biological information, genetic information, epigenetic information, and birth time.
  25.  さらに第一センサを備え、
     前記情報取得部は、前記第一センサを用いた計測の結果に基づいて取得された前記生体情報を前記個体情報として取得する
     請求項13に記載の情報提供装置。
    In addition, it has a first sensor
    The information providing device according to claim 13, wherein the information acquisition unit acquires the biological information acquired based on the result of measurement using the first sensor as the individual information.
  26.  さらに第二センサを備え、
     前記環境情報取得部は、前記第二センサを用いた計測の結果に基づく前記環境情報を取得する
     請求項1から25のいずれか一項に記載の情報提供装置。
    Also equipped with a second sensor
    The information providing device according to any one of claims 1 to 25, wherein the environmental information acquisition unit acquires the environmental information based on the result of measurement using the second sensor.
  27.  さらに通信部を備え、
     前記環境情報取得部は、前記通信部が外部から受信するデータに基づいて前記環境情報を取得する
     請求項1から26のいずれか一項に記載の情報提供装置。
    In addition, it has a communication unit
    The information providing device according to any one of claims 1 to 26, wherein the environmental information acquisition unit acquires the environmental information based on data received from the outside by the communication unit.
  28.  前記記憶部は、前記過去に計測された環境要因の状態を示すデータと、当該環境要因の状態の計測が実行された場所及び時期に対応する場所及び時期に観測された経済動向のデータとに基づく経済影響モデルとをさらに保持し、
     前記情報取得部はさらに、前記経済影響モデルを用いて、前記環境情報に対応する経済動向を判定し、判定した前記経済動向に基づく、現在又は将来における経済動向に関連する経済情報を取得して出力する
     請求項1から27のいずれか一項に記載の情報提供装置。
    The storage unit is composed of data indicating the state of the environmental factor measured in the past and data of economic trends observed at the place and time corresponding to the place and time when the measurement of the state of the environmental factor was executed. Further retain the economic impact model based on
    The information acquisition unit further determines the economic trend corresponding to the environmental information by using the economic impact model, and acquires economic information related to the current or future economic trend based on the determined economic trend. The information providing device according to any one of claims 1 to 27 to be output.
  29.  所与の日時及び場所における対象生体の生体状態に影響し得る環境要因の状態を示す環境情報を取得する環境情報取得ステップと、
     過去に計測された前記環境要因の状態を示すデータと、当該環境要因の状態の計測が実行された場所及び時期に対応する場所及び時期に計測された生体の生体状態を示すデータとに基づく状態モデルを保持する記憶ステップと、
     前記環境情報に基づいて、前記状態モデルを用いて、前記環境情報に対応する前記対象生体の前記生体状態を特定し、特定した前記生体状態に基づく、前記所与の日時における前記対象生体の前記生体状態に関連する情報を取得して出力する制御ステップと、を含む、
     情報提供方法。
    An environmental information acquisition step for acquiring environmental information indicating the state of environmental factors that may affect the biological state of the target living body at a given date and time and place.
    A state based on data indicating the state of the environmental factor measured in the past and data indicating the biological state of the living body measured at the place and time corresponding to the place and time when the measurement of the state of the environmental factor was performed. The storage step that holds the model and
    Based on the environmental information, the state model is used to identify the biological state of the target living body corresponding to the environmental information, and the target living body at the given date and time based on the specified biological state. Including control steps to acquire and output information related to the biological state,
    Information provision method.
  30.  プロセッサを備える情報処理装置において、前記プロセッサによって実行されることで前記プロセッサに、
     所与の日時及び場所における対象生体の健康状態に影響し得る環境要因の状態を示す環境情報を取得させ、
     過去に計測された前記環境要因の状態を示すデータと、当該環境要因の状態の計測が実行された場所及び時期に対応する場所及び時期に計測された生体の健康状態を示すデータとに基づく健康影響モデルを用いて前記環境情報に対応する健康状態を判定させ、
     判定した前記健康状態に基づく、前記所与の日時における前記対象生体の健康状態に関連する健康情報を取得させ、
     前記環境情報に基づいて推定された環境要因を用いた感情推定モデルに基づいて、前記対象生体の感情を表す指標である感情指標を、前記対象生体の感情を推定することが望まれる対象日時において特定させ、
     前記感情推定部が特定した前記感情指標に基づいて、前記対象日時における前記対象生体の行動を予測した結果を出力させる
     プログラム。
    In an information processing device including a processor, the processor is executed by the processor.
    Acquire environmental information indicating the state of environmental factors that can affect the health condition of the target organism at a given date and time and place.
    Health based on data showing the state of the environmental factor measured in the past and data showing the health state of the living body measured at the place and time corresponding to the place and time when the measurement of the state of the environmental factor was performed. Using the impact model, the health condition corresponding to the environmental information is determined, and
    Based on the determined health condition, the health information related to the health condition of the target living body at the given date and time is acquired.
    Based on an emotion estimation model using environmental factors estimated based on the environmental information, an emotion index, which is an index representing the emotion of the target organism, is used at a target date and time when it is desired to estimate the emotion of the target organism. Let me identify
    A program that outputs a result of predicting the behavior of the target living body at the target date and time based on the emotion index specified by the emotion estimation unit.
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