JP2003085291A - Health control system, server, data measuring device and display device - Google Patents

Abstract

PROBLEM TO BE SOLVED: To allow a user to easily and safely carry health control data, and to confirm the health control data anywhere in a remote place. SOLUTION: A health data measuring device 100 measures and records a measured value indicating health conditions. A health data display device 300 displays health data indicating the health conditions. A semiconductor memory 200 is a removable storage medium for storing the health data. A server 400 on a remote place stores the health data indicating the health condition. A network 500 transmits the measured value and the health data. In a memory slot 130 and a memory slot 330, the semiconductor memory 200 is mounted and fixed. A data base 401 stores the measured value and health data transmitted through the network 500 to the server 400.

Description

Detailed Description of the Invention

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a health management system for managing health data, a data measuring device, a display device and a server, and more particularly to a health management system for inputting and confirming personal health data with security protection, The present invention relates to a data measuring device, a display device, and a server.

[0002]

2. Description of the Related Art In recent years, the introduction of electronic medical charts based on the premise of medical information disclosure has attracted attention, and there is a demand for a system for managing health data by individuals. In conventional health management, health data is individually measured by a dedicated device such as a thermometer, a heart rate monitor, and a weight scale having a single function.

On the other hand, with regard to devices that can be connected to a computer, consumer-use physical information measuring devices measure / record with a simple function. In addition, business equipment used in hospitals is connected to the network in the hospital,
It is managed by a dedicated computer. Therefore, it is difficult for the person to be measured to carry his or her physical information on a daily basis.

[0004]

Under such circumstances, in order for an individual to carry around physical information, it is necessary to enter the numerical value displayed on the measuring device on paper or the like by himself. Moreover, in order to perform a numerical analysis, it is necessary to input the data into the computer by yourself.

As described above, it has been difficult for the conventional health care method to simply perform a numerical analysis. In addition, it is difficult to carry personal information, which can be called personal information, easily and safely as digital data on a daily basis.

An object of the present invention is made in view of the above points, and it is an object of the present invention to provide a health management system, a data measuring device, a display device, and a server for easily performing a numerical analysis. To do.

Another object of the present invention is to provide a health management system, a data measuring device, a display device and a server which can use a storage medium which can be carried easily and safely.

Still another object of the present invention is to provide a health management system, a data measuring device, a display device and a server capable of displaying health data anywhere, such as when going out.

[0009]

In order to solve the above-mentioned problems, the present invention provides a health management system for managing data indicating a health condition, a measuring means for measuring a measurement value indicating a health condition, and a digital value for the measurement value. Conversion means to convert to
And a data measuring device having a storage means for storing a digital value in a removable storage medium, a slot for inserting the storage medium storing the measured value indicating the health condition, a reading means for reading the measured value from the storage medium, and the measured value A health management comprising: a display device having a display means for displaying the data, a server having a database storing measured values indicating a health condition, a data measuring device, a display device, and a communication means connecting the server. A system is provided.

According to the above structure, the health data is stored in a storage medium that can be carried easily and safely, or is stored by communication, so that the health data can be easily displayed anywhere.

[0011]

BEST MODE FOR CARRYING OUT THE INVENTION Embodiments of the present invention will be described below with reference to the drawings. FIG. 1 is a principle diagram of the health management system of the present invention.

The health management system includes a health data measuring device 100 for measuring and recording a measurement value indicating a health condition, and a health data displaying device 30 for displaying health data indicating a health condition.
0, a removable semiconductor memory 200 that stores the measured value as health data, a server 40 that stores and manages the measured value indicating the health condition as health data for each individual in a remote location
0, a network 500 that transmits health data or measured values in a file format. Here, the health data measuring device 100 has a memory slot 130 into which a storage medium is inserted and fixed. The health data display device 300 includes a memory slot 3 for inserting / fixing a storage medium.
Has 30. The server 400 has a database 401 that manages health data for each individual.

The health data measuring device 100 measures a measurement value indicating a health condition and stores the measurement value in the semiconductor memory 200 as health data. At the same time, the measured value is displayed on the screen and transmitted by communication. Health data measuring device 10
Reference numeral 0 indicates, for example, a weight scale, a body fat scale, a thermometer, a heart rate monitor, a blood pressure monitor, a pedometer (registered trademark), sports equipment, a sports record measuring instrument, etc., which will be described in detail later.

The memory slot 130 is used for the semiconductor memory 2
00 is inserted and stored. The memory slot 13
In 0, hot swapping is possible so that the semiconductor memory 200 can be inserted and removed while the power is on.

The semiconductor memory 200 is portable and has a storage function and an authentication function. here,
In the semiconductor memory 200, the health data measuring device 100 records measured values as personal health data. Further, the health data display device 300 reads and displays personal health data. The semiconductor memory 2
The storage function of 00 is a writable non-volatile storage medium, for example, a flash memory.

The health data display device 300 includes a semiconductor memory 2 in which measured values indicating a health condition are stored as health data.
00 is inserted into the memory slot 330, and health data is read from the inserted semiconductor memory 200. Alternatively, health data is downloaded from the server 400 via the network 500. Then, the health data is processed and calculated in a predetermined display format, and the display data as the result of the processing calculation is displayed on the screen. The health data display device 300 is, for example, a mobile terminal, a personal computer, a television, or the like, the details of which will be described later.

The memory slot 330 is used for the semiconductor memory 2
00 is inserted and stored. The memory slot 33
0 is hot-pluggable so that the semiconductor memory 200 can be plugged and unplugged while the power is on.

The server 400 is a health data measuring device 10.
0 and health data display device 300 and network 500
Connected via. Also, the health data measuring device 10
The measured value is received from 0 and managed as health data for each individual. Further, the health data is transmitted in response to the health data transmission request from the health data display device 300.

The database 401 stores measured values by the server 400, and centrally manages the measured values as health data for each individual. Further, according to an instruction from the server 400, the health data is retrieved from the condition designated by the health data display device 300 and delivered to the server 400.

The network 500 transmits health data or measured values based on a predetermined protocol within a network having communication paths. The protocol is, for example, HTTP (Hypertext Transfer Protocol).
l), FTP (File Transfer Protocol), or P
PP (Point-to-point Protocol). Further, the network 500 is, for example, the Internet or a public network, and uses a communication system which is safe in terms of security and is not spoofed, tampered with, or tapped.

FIG. 2 is an overall configuration diagram of the health management system of the present invention. Here, a specific example of the overall configuration of the health management system and the flow of the health management system centering on the semiconductor memory 200 and the network 500 will be described. Since this figure is an example, the health data display device is shown only for two examples in which the communication mode is wired and wireless, and the device configuration including other devices will be described later. The health data measuring device is also shown only for three examples, and the device configuration including other devices will be described later.

The health management system is a network 50.
0, the semiconductor memory 200 is mainly configured. First, in the case where the network 500 is mainly used, a weight scale 100a with a semiconductor memory, which is a health data measuring device 100, a thermometer 100c with a slot, a sports recording measuring instrument 100h with a slot, and a semiconductor memory, which is a health data display device 300. The portable terminal 300a with a slot, the personal computer 300c with a slot, and the server 400 are configured in a network environment in which a network 500 and a base station 600 are connected. Next, when the semiconductor memory 200 is mainly used, the health data measuring device 100 is a weight scale 100a with a semiconductor memory, a thermometer 100c with a slot, a sports record measuring device 100h with a slot, and a health data display device 300. The semiconductor memory 200 is inserted into either the portable terminal 300a with a slot for semiconductor memory or the personal computer 300c with a slot to record or display health data.

In these configurations, the network 50
0 has two forms of communication, wired and wireless, and the semiconductor memory 200 has two forms of insertion and non-insertion.

Therefore, the flow of the health management system is roughly classified as follows. (1) The health data measuring device 100 measures a measurement value indicating a health condition. (2) The semiconductor memory 200 using the measured values as health data.
Alternatively, it is stored in the server 400.

(3) With the health data display device 300,
Read from semiconductor memory 200 or server 40
Display health data downloaded from 0. (4) Health data is arbitrarily stored in the semiconductor memory 200 or the server 400.

There are two types of access to the server 400 in the above (2), (3) and (4): wired and wireless. Next, description will be given along this flow.

(1) a) Since the semiconductor memory 200 is inserted in the weight scale 100a with a slot, the measured values can be stored and managed in the semiconductor memory 200 as health data. On the other hand, since the server 400 is also connected via the network 500, the measured value can be transmitted. Therefore, the health data is stored and managed in the semiconductor memory 200 and the server 400. The semiconductor memory 20
In the case of 0, since information is centrally managed by using personal authentication, in this example, it is limited to one semiconductor memory 200. However, it is also possible to use a plurality of sheets depending on the purpose, such as dividing by purpose.

B) Sports record measuring instrument with slot 1
The semiconductor memory 200 is not inserted at 00h.
On the other hand, since the server 400 is connected via the network 500, the measured value can be transmitted.
Therefore, the health data is stored and managed only in the server 400.

C) The thermometer with slot 100c has
The semiconductor memory 200 is not inserted. On the other hand, the server 400 is also not connected and cannot transmit the measurement value. Therefore, it only measures the health condition.

(2) a) The semiconductor memory 200 includes a weight scale 1 with a slot.
00a stores the measured value as health data.

B) The server 400 includes a weight scale 100a with a slot and a sports record measuring instrument 100 with a slot.
The measurement value is transmitted by h. Also, in the server 400,
Store and manage the received measurement values as health data.

(3) a) The semiconductor memory 200 is inserted in the portable terminal 300a with a slot. The health data stored in the semiconductor memory 200 is read, the data is processed into a display format, and displayed as "health data individual display image" (illustrated). On the other hand, regarding the health data stored and managed in the server 400, the health data is requested to the server 400 via the base station 600 by wireless and the network 500 by wire. After that, the network 500 is wired from the server 400, and the base station 6 is wirelessly.
The received health data is received and displayed via 00. Details of the “health data individual display image” will be described with reference to FIGS. 8 to 11.

B) The semiconductor memory 200 is not inserted in the slotted personal computer 300c. On the other hand, since the server 400 is connected via the network 500, the measurement value can be received. Therefore, the slotted personal computer 300c makes a request for health data to the server 400 via the network 500 by wire. After that, the health data transmitted from the server 400 via the network 500 by wire is received and displayed.

(4) The health data read from the semiconductor memory 200 by the above (3) a) is sent to the server 400.
Base station 600 by wireless, network 50 by wired
It is transmitted via 0 and can be stored and managed.
Conversely, health data downloaded from the server 400 can also be recorded in the semiconductor memory 200.

The portable terminal 3 with a slot shown above
00a and scales with slot 100a are not limited to mobile phones and PHS (Personal Handy-phone Syste).
It is also possible to perform wireless communication using a frequency band such as m).

Next, other device configurations including the above devices will be described with reference to the drawings. FIG. 3 is a device configuration diagram of the health management system of the present invention. Devices corresponding to the health data measuring device 100 include a weight scale 100a with a slot for semiconductor memory, a body fat percentage meter 100b with a slot,
Thermometer with slot 100c, Heart rate with slot 10
0d, sphygmomanometer 100e with a slot, pedometer 100f with a slot, sports equipment 100g with a slot, sports record measuring instrument 100h with a slot, and other health equipment 100i with a slot. In addition, the measurement value measured by any one of these devices is used as personalized data for one semiconductor memory 200 inserted in the device.
Recorded in. On the other hand, the measured values individually measured by these devices are all stored and accumulated in the server 400 via the network 500 connected by wire communication or wireless communication, and are managed for each individual. Here, the illustrated solid line indicates that the semiconductor memory 200 is inserted, and the illustrated dotted line indicates that the semiconductor memory 200 is not inserted. That is, the semiconductor memory 200
Indicates that only one of all these health data measuring devices 100 is connected.

The device corresponding to the health data display device 300 is a portable terminal 300a with a slot for semiconductor memory,
Slotted TV 300b, slotted PC 3
00c and the other display device with slot 300d. In addition, the health data recorded in the semiconductor memory 200 is stored in one of the semiconductor memory 20 in any of those devices.
0 is inserted and displayed. On the other hand, the health data stored / accumulated in the server 400 is
Network 50 connected by wired or wireless communication
Downloaded via 0 and displayed. here,
The solid line shown in the figure indicates that the semiconductor memory 200 is inserted, and the dotted line shown in the figure indicates that the semiconductor memory 200 is not inserted. That is, the semiconductor memory 2
00 indicates that only one of all these health data display devices 300 is connected.

Although one semiconductor memory 200 is used in the above description, it corresponds to the number of memory slots 130 and memory slots 330. If there are a plurality of memory slots, a plurality of semiconductor memories 200 can be simultaneously used. Can also be used.

FIG. 4 is a hardware block diagram of the health data measuring apparatus of the present invention. Health data measuring device 100
Is a control unit 101 that controls the entire input device, a switch 102 that is manually switched at the start of measurement, a temperature measurement unit 103 that measures temperature, a timer 104 that measures time,
Input / output primary buffer memory 1 for temporarily storing input data
05, a main memory 106 for storing input / output data and operation data, an input / output secondary buffer memory 107 for temporarily storing input / output data, a semiconductor memory RW (Read / Write) control unit for controlling reading / writing with a semiconductor memory 1
08, a liquid crystal display unit 109 for displaying the measured value, a communication control device 110 for transmitting the measured value to the server 400, and a removable semiconductor memory 200 for recording the measured value. Here, the control unit 101 controls the control device 10
1a and arithmetic unit 101b. Temperature measuring unit 10
Reference numeral 3 denotes a temperature sensor 103a that detects a physical quantity of temperature, and an A / D (Anal) that digitally converts the detected temperature measurement value.
og to Digital) conversion circuit 103b, and an input / output control device 103c for controlling the input of measurement values. The semiconductor memory RW control unit 108 has a semiconductor memory RW control device 108a and a semiconductor memory authentication unit 108b. The liquid crystal display unit 109 includes the liquid crystal drive unit 10
9a and the display part 109b.

After being activated by the switch 102, the control device 101a receives input / output channels (Input / Out)
Put the temperature measurement value acquisition instruction to put Channel). After that, the arithmetic unit 101b is instructed to perform an arithmetic operation based on the measured value stored in the main memory 106 via the input / output primary buffer memory 105 and the current date and time acquired from the timer 104. The new measurement value for which calculation / time stamp addition has been completed by the calculation device 101b is again stored in the main memory 1
It is stored in 06. At the same time as it is stored, a screen display instruction is issued to an input / output channel (not shown), and the liquid crystal display unit 10
The measured value is displayed at 9. In addition, a semiconductor memory read / write instruction is issued to an input / output channel (not shown). Then, after the semiconductor memory ID and the personal data password recorded in the semiconductor memory 200 are acquired by an input / output channel (not shown), logical authentication is performed. After the access is permitted by the authentication, the semiconductor memory RW control unit 108 is instructed to write again to an input / output channel (not shown), and the measured value stored in the main memory 106 via the input / output secondary buffer memory 107 is used as health data. Output to. Further, the measured value is output to the communication control device 110, and the data is transmitted to the server 400. Here, in order to reduce the load on the control device 101a, input / output channels (not shown) are provided between the main memory 106 and the temperature measuring unit 103, between the main memory 106 and the semiconductor memory RW control unit 108, and in place of the control device 101a. Input / output between the main memory 106 and the liquid crystal display unit 109 is controlled. After the input / output ends, the input / output interrupt is executed to the control device 101a. When the cost is emphasized even if the time for measurement, reading, writing, or calculation of the health data measuring device 100 increases, the control device 1 does not use the input / output channel as shown by the dotted arrow.
01a is the temperature measuring unit 103 and the semiconductor memory RW control unit 1
It is also possible to directly input and output between 08 and the liquid crystal display unit 109.

The arithmetic unit 101b performs an arithmetic operation based on the measured value and the current date and time stored in the main memory 106 according to an instruction from the control unit 101a, and returns a new measured value as the arithmetic result to the main memory 106.

The switch 102 is manually switched to start or end the measurement process. The temperature sensor 103a detects a physical quantity of temperature and outputs analog data that is the detected physical quantity to the A / D conversion circuit 103b.

The A / D conversion circuit 103b converts the detected temperature measurement value, which is analog data, into digital data and outputs it to the input / output control device 103c. The input / output control device 103c receives the temperature measurement value of the digital data output from the A / D conversion circuit 103b and outputs it to the input / output primary buffer memory 105.

The timer 104 measures the current date and time and outputs it to the control device 101a. Input / output primary buffer memory 1
Reference numeral 05 temporarily stores the measured value which is the input data received from the input / output control device 103c.

The main memory 106 is a measurement value temporarily stored in the input / output primary buffer memory 105, and the control unit 1
The new measurement value calculated by 01 and the health data temporarily stored in the input / output secondary buffer memory 107 are stored.

The input / output secondary buffer memory 107 temporarily stores the health data which is the input / output measurement value with the semiconductor memory RW control unit 108. Semiconductor memory RW
The control device 108a performs read / write processing with the semiconductor memory 200.

The semiconductor memory authentication unit 108b receives the device authentication ID and the like in the semiconductor memory 200,
Perform physical authentication. If it is confirmed by authentication that the medium is a valid connection permission medium, a connection permission signal is output to the semiconductor memory RW control device 108a.

The liquid crystal drive unit 109a receives a measurement value stored in the main memory 106 or the input / output secondary buffer memory 107 according to an instruction from an input / output channel (not shown) or the control device 101a, and measures the digital value. The value is directly output to the display unit 109b.

The display unit 109b is the liquid crystal drive unit 10
The measured value, which is digital data received from 9a, is displayed on the liquid crystal screen. The communication control device 110 receives the measurement value from the control unit 101, and passes the server 4 via the network 500.
Data transmission to 00.

The semiconductor memory 200 is a removable storage medium, and health data is recorded by the semiconductor memory RW control device 108a. Further, in the figure, the semiconductor memory 200 is removable. Therefore, semiconductor memory 2
If 00 is not present, the device can also be operated by the communication control device 110.

FIG. 5 is a hardware block diagram of the health data display device of the present invention. Health data display device 300
Is a control unit 301 that controls the entire health data display device,
A main memory 302 that stores health data, an input / output buffer memory 303 that temporarily stores health data that is input data, a semiconductor memory RW control unit 304 that controls reading with a semiconductor memory, and a display control unit 305 that controls health data display. , Communication control device 30 for receiving health data
6 and a semiconductor memory 200 for storing health data. Here, the control unit 301 controls the control device 3
01a and arithmetic unit 301b. The semiconductor memory RW control unit 304 includes a semiconductor memory RW control device 304.
a, a semiconductor memory authentication unit 304b.
The display control unit 305 has a drawing control device 305a, a display memory 305b, and a display unit 305c.

The control device 301a issues a semiconductor memory read instruction to an input / output channel (not shown). afterwards,
The semiconductor memory 20 is provided by an input / output channel (not shown).
After the semiconductor memory ID and the personal data password recorded inside 0 are acquired and stored in the main memory 302, logical authentication is performed based on the acquired semiconductor memory ID and personal data password. After the access is permitted by the authentication, the read instruction is issued again to the input / output channel (not shown), and the input / output buffer memory 30
The health data read from the semiconductor memory RW control unit 304 via the memory 3 is stored in the main memory 302. Alternatively, the health data received by the communication control device 306 from the server 400 is stored in the main memory 302. On the other hand, a screen display instruction is issued to an input / output channel (not shown), and the health data stored in the main memory 302 is displayed on the display control unit 305. Here, an input / output channel (not shown) is provided between the main memory 302 and the semiconductor memory RW control unit 304 instead of the control device 301a and between the main memory 302 and the display control unit 305 in order to reduce the load on the control device 301a. Control I / O. After the input / output ends, the input / output interrupt is executed to the control device 301a. In addition, when importance is attached to cost even if the time for reading and calculating the health data display device 300 increases, the control device 301a controls the semiconductor memory RW control unit 3 without using the input / output channel as shown by the dotted arrow.
04, it is also possible to directly input and output to the display control unit 305.

The arithmetic unit 301b can analyze the health data in the main memory 302 acquired by the instruction of the control unit 301a from a variety of viewpoints such as a single display of health data, a plurality of data displays, a graph display and a chart display. Calculate and process as much as possible. After the arithmetic processing is completed, the display data as the arithmetic result is stored in the main memory 302 in an address area different from the health data.

The main memory 302 includes health data temporarily stored in the input / output buffer memory 303, display data calculated by the control unit 301, and health data received by the communication control device 306 from the server 400. And are stored.

The input / output buffer memory 303 temporarily stores health data, which is input data, with the semiconductor memory RW control unit 304. The semiconductor memory RW control device 304a performs a health data read process with the semiconductor memory 200.

The semiconductor memory authentication unit 304b receives the device authentication ID in the semiconductor memory 200 and performs physical authentication. If it is confirmed by authentication that the medium is a valid connection permission medium, a connection permission signal is output to the semiconductor memory RW control device 304a.

The drawing control device 305a receives display data stored in the main memory 302 according to an instruction from an input / output channel (not shown) or the control device 301a, and stores the display data in the display memory 305b. It also controls drawing of charts and graphs.

The display memory 305b is the main memory 3
The display data received from 02 is stored. Display unit 305c
Displays the digital display information in the display memory 305b on the liquid crystal screen. In addition, the screen is not liquid crystal but CR
For T (Cathode-ray Tube), display memory 305
A D / A (Digital to Analog) conversion circuit (not shown) is placed between b.

The communication control unit 306 is connected to the network 50.
The health data received from the server 400 via 0 is output to the control unit 301. The semiconductor memory 200 is a removable storage medium, and health data is read by the semiconductor memory RW control device 304a. Further, in the figure, the semiconductor memory 200 is removable. Therefore, when the semiconductor memory 200 is not provided, the device can be made to function by the communication control device 306.

FIG. 6 is a diagram showing the authentication principle of the semiconductor memory of the present invention, (a) shows the authentication principle of the health data measuring device, and (b) shows the authentication principle of the health data display device. In FIG. 6A, the semiconductor memory 200 has a device authentication ID 200a inside the memory, and the semiconductor memory authentication unit 108b has a device authentication unit 108b1. Here, between the device authentication ID 200a and the device authentication unit 108b1, the device authentication process is performed by an electric signal to physically authenticate the semiconductor memory 200 main body which is a physical medium.

In FIG. 6B, the semiconductor memory 200
Has a device authentication ID 200a inside the memory, and the semiconductor memory authentication unit 304b has a device authentication unit 304b1. Here, between the device authentication ID 200a and the device authentication unit 304b1, a device authentication process is performed by an electric signal to physically authenticate the semiconductor memory 200 main body which is a physical medium.

FIG. 7 is a diagram showing a data structure in the semiconductor memory of the present invention. The data structure in the semiconductor memory 200 has a hierarchical structure (tree structure). The first layer, which is the top of the layers, has the layer name “ROOT” and RO
The "semiconductor memory ID" and the second hierarchy are stored in the OT. The second layer is composed of "personal data", "health data", and "reference data". Here, the personal data has “password”, “name”, “date of birth”, and “other (addable)”. The health data includes “weight”, “body fat percentage”, “height”, “body temperature”, and “other (additional)”. Reference data are "Food and nutrition data", "Other (additional)"
have.

The user data logically inside the memory is authenticated by the semiconductor memory ID and password. FIG. 8 is a view showing a list of individual health data display examples of the health data display device of the present invention.

In this figure, the measured values measured by the health data measuring device 100 are tabulated for each date, and the date, weight, and body fat percentage are displayed in a list. FIG. 9 is a view showing an example of individual display of health data of the health data display device of the present invention in a double line graph.

In this figure, the measurement values measured by the health data measuring device 100 are totaled over a designated period (horizontal axis),
The weight and body fat percentage (vertical axis) are displayed as a line graph.

FIG. 10 is a line graph showing an example of individual display of health data of the health data display device of the present invention. In this figure, the measured values measured by the health data measuring device 100 are divided into hours (horizontal axis) on a designated day, and 2
It is displayed as a line graph for the heart rate for 4 hours (vertical axis).

FIG. 11 is a view showing a display example of individual health data of the health data display device of the present invention as a line / bar graph. In this figure, the measurement values measured by the health data measuring device 100 are totaled over a designated period (horizontal axis), and the weight and body fat percentage (vertical axis) are displayed as a line graph or a bar graph.

Next, the flow of processing will be specifically described. FIG. 12 is a flow chart for explaining the operation of the health data measuring device of the present invention. When the health data measurement process (switch 102 is turned on) is started, the process is performed according to the following flow.

[S10] The health data measuring device 100 performs an authentication process. For details on the authentication process,
This will be described with reference to FIGS. 13 and 14. [S11] With a scale, heart rate monitor, thermometer, etc.,
Measure the measured value.

[S12] If the user is authenticated in step S10, the process proceeds to step S15 to store the measured value. If the user is not authenticated, the process proceeds to step S13.
Access 0. Note that this selection can be arbitrarily made by the user using a selection button or the like in consideration of the case where data recording is not desired.

[S13] The server 400 is accessed via the network 500. [S14] If the access is permitted in step S13, the process proceeds to step S15 to store the measured value, and if the access is not permitted, the process proceeds to step S16 to display only the measured value.

[S15] The measured value is stored in the main memory 106 and the semiconductor memory 200 or in the main memory 106 and the server 400. [S16] The measured value stored in the main memory 106 is arithmetically processed, and the new measured value as the arithmetically processed result is displayed on the display unit 109b.

13 and 14 are flowcharts showing the flow of the authentication process. [S100] Wait until the semiconductor memory 200 is inserted into the hot-pluggable memory slot 130 of the health data measuring device 100.

[S101] If the semiconductor memory 200 is inserted, the process proceeds to step S103 to physically authenticate the physical medium body, and if the semiconductor memory 200 is not inserted, the process proceeds to step S102 to check the waiting time. I do.

[S102] If the insertion waiting time of the semiconductor memory 200 exceeds the specified time, step S10 is performed.
If the insertion waiting time does not exceed the specified time, the procedure returns to step S100 and the same processing is repeated.

[S103] Health data measuring device 100
Between the semiconductor memory 200 and the semiconductor memory 200 is physically authenticated. [S104] If the physical authentication is permitted, the process proceeds to step S105 to perform the logical authentication, and if the physical authentication is not permitted, the process proceeds to step S109 to perform the authentication disapproval process.

[S105] By using the "semiconductor memory ID" stored in the ROOT which is the first layer in the semiconductor memory 200 and the "password" stored in the personal data which is the second layer, the health data Perform logical authentication. By performing physical and logical authentication,
Doubly reinforced security for personal health data.

[S106] If the logical authentication is permitted, the process proceeds to step S107 and the semiconductor memory 200
If the logical authentication is not permitted, the process proceeds to step S109 to perform the authentication disapproval process.

[S107] Since the measured values are stored in the semiconductor memory 200, a field to be stored (Field:
(Defined as the smallest unit that stores data in each layer)
Check the data storage status.

[S108] If the data storage status is normally confirmed, the process proceeds to step S110 to perform the authentication permission process. If the confirmation is not normally performed,
The process advances to step S109 to perform authentication disapproval processing.

[S109] Since normal processing cannot be performed in each step of the authentication processing, the authentication is not permitted and the process returns to step S10 in FIG. [S110] Since the normal processing has been performed in each step of the authentication processing, the authentication is permitted and the processing returns to step S10 in FIG.

FIG. 15 is a flow chart for explaining the operation of the health data display device of the present invention. When the display process of health data is started, the process is performed according to the following flow. [S20] The health data display device 300 performs an authentication process. For details of the authentication process, refer to FIG.
It has been described with reference to FIG.

[S21] If the user is authenticated in step S20, the process proceeds to step S24 to read the health data. If not, the process proceeds to step S22 to access the server 400.

[S22] The server 400 is accessed via the network 500. [S23] If the access is permitted in step S22, the process proceeds to step S24 to read the health data, and if the access is not permitted, the display process is ended.

[S24] The health data stored in a predetermined storage field in the semiconductor memory 200 is read. Alternatively, the health data stored and managed by the server 400 is downloaded.

[S25] The health data read from the semiconductor memory 200 or the health data downloaded from the server 400 is stored in the main memory 302. [S26] Display processing is performed based on the health data stored in the main memory 302. The details of the display process will be described with reference to FIG.

FIG. 16 is a flowchart showing the flow of display processing. [S200] Select and confirm various display methods such as a list, a line graph, and a line / bar graph.

[S201] The presence or absence of reference data is confirmed. The reference data is database information given in advance, such as a food and nutrition table required for calorie calculation.

[S202] If reference data is required for the display method selected in step S200, the flow advances to step S203 to check the presence or absence of reference data. If not, step S204 Proceed to and process the health data.

[S203] To refer to the reference data, the reference data is read from the semiconductor memory 200.
[S204] Based on the health data stored in the main memory 302, or also referring to the reference data, a processing operation for performing various displays such as a list, a line graph, and a line / bar graph is performed, and a processing operation is performed. The result is stored in the main memory 302 as display data.

[S205] Since the screen is displayed, the characteristics of the health data display device are confirmed. The characteristics are, for example, differences between liquid crystal displays and CRTs. Here, in the case of a liquid crystal display, the display data which is digital data stored in the main memory 302 is used as it is. On the other hand, in the case of a CRT, the display data, which is digital data stored in the main memory 302, is converted into analog data, and the process proceeds to step S206.

[S206] The display data, which is digital data stored in the main memory 302, or the display data converted into analog data in step S205, is displayed on the screen.

[Effects of the Embodiments of the Invention] According to the health management system shown in the embodiments of the present invention, the following effects can be obtained.

(1) Collective management of health data and carrying, and protection of personal information By managing health data in the removable semiconductor memory 200, it is possible to carry health data at all times. Further, the copyright protection function of the semiconductor memory 200 allows safe management of health data so that it cannot be seen by a third party, and thus privacy of personal information called health data can be protected.

(2) Application to sports The athletic competition records and health data of athletes are recorded in the semiconductor memory 200, and the health data display device 300 of the present invention is used.
By displaying / analyzing with, it becomes possible to easily analyze the correlation between the physical condition and health data of the athlete and the competition record. As a result, general student athletes and the like can be taught how to improve athletic ability based on scientific data, and it becomes possible to practice sports efficiently.

Particularly, in a long-distance competition such as a marathon or a bicycle, a heart rate meter and a distance meter (GPS: Global Position
ing Systems etc.) makes it possible to practice with an optimal heart rate, improve the competition record, and practice safely.

(3) Application to diet By linking the calorie and nutrition data of the food taken during dieting with the health data, a healthy diet can be achieved without difficulty. By recording the calorie and nutrition data of the ingested food in the semiconductor memory 200 in advance, it becomes possible to easily browse and input with a simple GUI (Graphical User Interface).

Also, by linking with exercise equipment installed in a fitness club or the like, it is possible to suggest more effective exercise and to obtain more effective food from the health data by exercise and the data of ingested food entered by oneself. Ingestion can be suggested.

(4) Application to family planning At the time of family planning, by using a basal thermometer for health data input by a woman, the ovulation date can be confirmed accurately and a planned family planning can be performed. Since privacy issues are particularly important for such data, the health data protection function of the present invention is considered to be particularly effective.

(5) Application to nursing care for the elderly By collecting health data from a thermometer, a weight scale, a blood pressure monitor, a heart rate monitor, etc., the care data becomes more accurate and the care helper records the health data by himself / herself. It is released from the trouble. As a result, the care time of the care helper can be devoted to the care of an old man who needs care, which is beneficial to both the care helper and the old man who needs care.

In the above description, a health data measuring device such as a thermometer has been described.
Etc.) and other measuring instruments can be similarly applied.

[0102]

As described above, since the measured value indicating the health condition is measured and stored as the health data in the removable storage medium having the authentication function, the health condition is managed safely and surely. can do.

Since the removable storage medium storing the health data indicating the health condition is inserted to display the health data, the health data can be easily displayed. Furthermore, since a removable storage medium storing health data indicating the health condition is inserted or the health data is displayed on the health data display device via the communication means, the health data can be easily displayed at a remote location. Is displayed,
Recognizable and useful for health care.

[Brief description of drawings]

FIG. 1 is a principle diagram of a health management system of the present invention.

FIG. 2 is a diagram showing an overall configuration of a health management system of the present invention.

FIG. 3 is a diagram showing a device configuration of a health management system of the present invention.

FIG. 4 is a hardware block diagram of the health data measuring device of the present invention.

FIG. 5 is a hardware block diagram of the health data display device of the present invention.

FIG. 6 is a diagram showing an authentication principle of a semiconductor memory of the present invention.

FIG. 7 is a diagram showing a data configuration in a semiconductor memory of the present invention.

FIG. 8 is a diagram showing a list of display examples of the health data display device of the present invention.

FIG. 9 is a diagram showing a display example of a health data display device of the present invention with a double line graph.

FIG. 10 is a diagram showing a line graph of a display example of the health data display device of the present invention.

FIG. 11 is a diagram showing a line / bar graph of a display example of the health data display device of the present invention.

FIG. 12 is a flowchart illustrating an operation of the health data measuring device of the present invention.

FIG. 13 is a flowchart showing a flow of authentication processing.

14 is a flowchart following the flowchart of FIG. 13 showing the flow of the authentication process.

FIG. 15 is a flowchart illustrating an operation of the health data display device of the present invention.

FIG. 16 is a flowchart showing the flow of display processing.

[Explanation of symbols]

100: health data measuring device, 101: control unit, 10
1a ... Control device, 101b ... Arithmetic device, 102 ... Switch, 103 ... Temperature measuring unit, 103a ... Temperature sensor, 103b ... A / D conversion circuit, 103c ... Output control device, 104 ... Timer, 105 ... Input / output primary buffer memory, 106 ... Main memory, 107 ... Input / output 2
Next buffer memory, 108 ... Semiconductor memory RW control unit, 108a ... Semiconductor memory RW control device, 108b
..Semiconductor memory authentication unit, 108b1 ... Device authentication unit, 109 ... Liquid crystal display unit, 109a ... Liquid crystal drive unit, 109b ... Display unit, 110 ... Communication control device, 13
0 ... Memory slot, 200 ... Semiconductor memory, 200
a: Device authentication ID, 300: Health data display device, 3
01 ... Control unit, 301a ... Control device, 301b ... Arithmetic device, 302 ... Main memory, 303 ... Input / output buffer memory, 304 ... Semiconductor memory RW control unit, 30
4a ... Semiconductor memory RW control device, 304b ... Semiconductor memory authentication unit, 304b1 ... Device authentication unit,
305 ... Display control unit, 305a ... Drawing control device, 30
5b ... Display memory, 305c ... Display unit, 306 ...
Communication control device, 330 ... Memory slot, 400 ... Server, 401 ... Database, 500 ... Network, 600 ... Base station

Claims (13)

[Claims] 1. A health management system for managing data indicating a health condition, measuring means for measuring a measurement value indicating a health condition, conversion means for converting the measurement value into a digital value, and the digital value being removable. Storage means for storing in various storage media,
A data measuring device having: a slot into which the storage medium storing the measured value indicating a health condition is inserted; a reading unit that reads the measured value from the storage medium; and a display unit that displays the measured value. A display device having the same, a server having a database storing the measured value indicating a health condition, the data measuring device, a communication device connecting the display device and the server, and health. Management system. 2. The health management system according to claim 1, wherein the communication unit is the Internet. 3. A server for storing a measured value indicating a health condition, receiving means for receiving a measured value indicating a health condition from a data measuring device, a database for storing the measured value, and the measured value for each individual. A server comprising: management means for managing the health data; and transmitting means for transmitting the health data in response to a request from a display device. 4. A data measuring device having a health condition measuring function, measuring means for measuring a measured value indicating a health condition, converting means for converting the measured value into a digital value, and the digital value being removable. A storage device for storing in a storage medium, and a display device for displaying the digital value as displayable characters. 5. The data measuring device according to claim 4, wherein the data measuring device is a weight scale. 6. The data measuring device according to claim 4, wherein the data measuring device is a thermometer. 7. The data measuring device according to claim 4, wherein the data measuring device is a heart rate monitor. 8. The data measuring device according to claim 4, wherein the data measuring device is a body fat meter. 9. The data measuring device according to claim 4, wherein the storage medium has a security function of reading internal data by inputting a password therein. 10. A display device for displaying a measurement value indicating a health condition, a slot into which a storage medium storing a measurement value indicating a health condition is inserted, a reading unit for reading the measurement value from the storage medium, and the measurement. A display device comprising: a display unit that displays a value. 11. The display device according to claim 10, further comprising password input means for inputting a password. 12. The display device according to claim 10, wherein the measured values are displayed in a timetable table format. 13. The display device according to claim 10, wherein the measured value is displayed in a graph format.