KR20070020343A - Elecronic blood pressure monitor, blood pressure measurement data processing apparatus and method, program and recording medium - Google Patents

Abstract

In the electronic blood pressure monitor 1, the data storage part 30 stores the data of the blood pressure obtained by measuring blood pressure in the memory 12 in association with the conditions at the time of blood pressure measurement. Then, the average value calculation unit 23 calculates average blood pressure data based on the blood pressure data group measured after waking up in the memory 12 and average blood pressure data based on the blood pressure data group measured before bedtime. The display control unit 25 displays the correlation between the calculated average blood pressure data on the display unit 4 in a predetermined display mode.

Electronic sphygmomanometer

Description

ELECTRONIC BLOOD PRESSURE MONITOR, BLOOD PRESSURE MEASUREMENT DATA PROCESSING APPARATUS AND METHOD, PROGRAM AND RECORDING MEDIUM}

BRIEF DESCRIPTION OF THE DRAWINGS The functional block diagram of the electronic blood pressure monitor which concerns on this embodiment.

2 is a general view of the electronic blood pressure monitor according to the present embodiment.

3A and 3B show an example of storing measurement data of the electronic blood pressure monitor according to the present embodiment.

4 is a flowchart showing an example of a measurement procedure of the electronic blood pressure monitor according to the present embodiment.

5 is a flowchart showing another example of a measurement procedure of the electronic blood pressure monitor according to the present embodiment.

6 is a flowchart illustrating still another example of a measurement procedure of the electronic blood pressure monitor according to the present embodiment.

7 is a diagram illustrating a display example of a measurement result according to the present embodiment.

8 is a diagram illustrating a display example of a measurement result according to the present embodiment.

9 is a diagram illustrating a display example of a measurement result according to the present embodiment.

10 is a diagram illustrating a display example of a measurement result according to the present embodiment.

11A to 11D are diagrams showing display examples of measurement results according to the present embodiment.

12 is a diagram illustrating a display example of a measurement result according to the present embodiment.

13A to 13D are views showing display examples of measurement results according to the present embodiment.

14 is a diagram illustrating a display example of a measurement result according to the present embodiment.

15 is a diagram illustrating a display example of a measurement result according to the present embodiment.

16 is a diagram illustrating a display example of a measurement result according to the present embodiment.

17 is a diagram illustrating a display example of a measurement result according to the present embodiment.

18 is a diagram illustrating a display example of a measurement result according to the present embodiment.

19 is a diagram illustrating a display example of a measurement result according to the present embodiment.

20 is a diagram illustrating a display example of a measurement result according to the present embodiment.

21 is a diagram illustrating a display example of a measurement result according to the present embodiment.

22 is a diagram showing a display example of a measurement result according to the present embodiment.

23 is a diagram showing a display example of a measurement result according to the present embodiment.

24A to 24E are diagrams showing display examples of measurement results according to the present embodiment.

25 is a diagram illustrating a display example of a measurement result according to the present embodiment.

FIG. 26 is a diagram showing a display example of a measurement result according to the present embodiment; FIG.

27 is a diagram illustrating a display example of a measurement result according to the present embodiment.

FIG. 28 is a diagram showing a display example of a measurement result according to the present embodiment; FIG.

29 is a diagram illustrating a display example of a measurement result according to the present embodiment.

30A to 30E are diagrams showing display examples of measurement results according to the present embodiment.

31 is a diagram showing a display example of a measurement result according to the present embodiment.

32 is a diagram illustrating a display example of a measurement result according to the present embodiment.

33 is a diagram illustrating a display example of a measurement result according to the present embodiment.

34 is a diagram showing a display example of a measurement result according to the present embodiment.

35A and 35B show display examples of the measurement results according to the present embodiment.

36A to 36C are diagrams showing display examples of measurement results according to the present embodiment.

Technical field

The present invention relates to an electronic blood pressure monitor and a blood pressure measurement data processing apparatus and method, and more particularly, to an electronic blood pressure monitor and a blood pressure measurement data processing apparatus and method with improved display function of blood pressure measurement results.

Description of the related technology

At present, devices for measuring blood pressure at home are rapidly spreading. These home blood pressure monitors have a function of notifying the user with a buzzer or an indicator when one measurement value exceeds a certain value, or a function of recording and displaying a measurement value having a different measured time.

Blood pressure is one of the indicators for analyzing circulatory diseases, and risk analysis based on blood pressure is effective for preventing cardiovascular diseases such as stroke, heart failure, and myocardial infarction. In particular, early hypertension in which blood pressure rises early in the morning is associated with heart disease and stroke. In addition, among the early hypertension, a symptom of a sudden increase in blood pressure between 1 hour and 1 and a half hours after a wake-up called a morning surge has been found to have a causal relationship with stroke. Therefore, understanding the correlation between time (lifestyle) and blood pressure changes is useful for analyzing the risk of cardiovascular disease.

Based on this background, the measured blood pressure values are stored in the memory in association with the measurement time information and the measurement conditions. For example, a blood pressure monitor is provided which calculates an average value of blood pressure values measured at specific time periods such as a morning time zone and an evening time zone, and calculates and displays a risk value based on the result of the calculation (Japanese Patent Laid-Open No. 2004-261452). See the Gazette publication.

Moreover, the function which displays a risk with a home blood pressure monitor is as follows. When it is determined that the blood pressure measurement value exceeds the reference value, the numerical display by the segment LCD (Liquid Crystal Display) is displayed flickering, or an indicator (a display by the segment LCD, lighting or blinking of the LED (Ligh Emitting Diode)) separately prepared is displayed. (See Japanese Patent Application Laid-Open No. 2000-175873 and Japanese Patent Application Laid-Open No. 2004-121632).

In the invention disclosed in Japanese Patent Application Laid-Open No. 2004-261452, for example, the average value and the difference value of both the blood pressure value in the morning and the blood pressure value in the night are displayed in two dimensions, and the judgment value is displayed on both the average value and the difference value. To be prepared. However, no method of appropriately displaying the calculated risk is disclosed.

In addition, in the inventions described in Japanese Patent Application Laid-Open Nos. 2000-175873 and 2004-121632, the determination of the measured value is made every time, and the average value is determined for a plurality of times, but for the prevention of the risk of cardiovascular disease. No hypertension test is made.

Summary of the Invention

An object of the present invention is to provide an electronic sphygmomanometer, blood pressure measurement data processing, which can clearly display the correlation of blood pressure measured under different measurement conditions, or the correlation with the reference blood pressure with respect to the blood pressure measured under some kind of measurement conditions. It is to provide an apparatus and method.

In order to achieve the above object, the electronic sphygmomanometer according to an aspect of the present invention is stored in a storage unit or a memory in association with the data of blood pressure obtained by measuring blood pressure and the type of measurement condition at the time of blood pressure measurement. Then, the blood pressure data group measured under a predetermined type of measurement condition and the blood pressure data group measured under a different type of measurement condition from the predetermined type are read out from the storage unit or the memory. The representative blood pressure data of one of the blood pressure data groups among the read blood pressure data groups is displayed on the display unit, and the mutual relationship between the read blood pressure data groups is displayed on the display unit in a predetermined display mode. This correlation includes the relationship between the high and low blood pressures represented by the representative blood pressure data of each of the blood pressure data groups.

Thus, the correlation of blood pressure measured under different measurement conditions can be displayed. Further, information on whether one blood pressure is higher or lower than that of the other of the blood pressures indicated by the two representative blood pressure data can also be provided.

The electronic sphygmomanometer according to another aspect of the present invention stores the blood pressure data obtained by measuring blood pressure in a storage unit or a memory in association with the type of measurement condition at the time of blood pressure measurement. Then, one of the blood pressure data group measured under a predetermined type of measurement condition and the blood pressure data group measured under a different type of measurement condition from the predetermined type is read out from the storage unit or the memory. The representative blood pressure data of the read one blood pressure data group is displayed on the display unit, and the correlation between the read one blood pressure data group and the reference blood pressure data is displayed on the display unit in a predetermined display mode. This correlation includes the relationship between the blood pressure indicated by the representative blood pressure data of the read blood pressure data group and the blood pressures indicated by the reference blood pressure data.

The electronic sphygmomanometer according to another aspect of the present invention stores the blood pressure data obtained by measuring blood pressure in a storage unit or a memory in association with the type of measurement conditions at the time of blood pressure measurement. Then, both the blood pressure data group measured under a predetermined type of measurement condition and the blood pressure data group measured under a different type of measurement condition from the predetermined type are read out from the storage unit or the memory. Then, the representative blood pressure data of one blood pressure data group of both read blood pressure data groups is displayed on the display unit. In addition, the display unit displays the correlation between the other blood pressure data group being read and the reference blood pressure data in a predetermined display mode. This correlation includes the relationship between the blood pressure indicated by the representative blood pressure data of the other blood pressure data group and the blood pressure indicated by the reference blood pressure data.

The electronic sphygmomanometer according to another aspect of the present invention stores the blood pressure data obtained by measuring blood pressure in a storage unit or a memory in association with the type of measurement condition at the time of blood pressure measurement. Then, both the blood pressure data group measured under a predetermined type of measurement condition and the blood pressure data group measured under a different type of measurement condition from the predetermined type are read out from the storage unit or the memory. Then, the representative blood pressure data of one blood pressure data group of both read blood pressure data groups is displayed on the display unit. In addition, with respect to each of the read blood pressure data groups, the mutual relations of the reference blood pressure data are individually displayed on the display section in a predetermined display mode. This correlation includes the relationship between the blood pressure indicated by the representative blood pressure data of the read blood pressure data group and the blood pressures indicated by the reference blood pressure data.

Therefore, the correlation between the blood pressure data group measured under a certain kind of measurement condition and the reference blood pressure data can be displayed. Further, the information on whether the blood pressure of the representative blood pressure data of the blood pressure data group measured under what kind of measurement conditions is higher or lower than the reference blood pressure can be provided.

In the electronic sphygmomanometer according to another aspect of the present invention, the blood pressure data measured by the blood pressure measuring unit is stored in the storage unit in association with the type of the measurement condition at the time of blood pressure measurement. The blood pressure data group measured under a certain kind of measurement condition and the blood pressure data group measured under a kind of measurement condition different from the predetermined kind are read from the storage unit, and the blood pressure data representing each of the read blood pressure data groups is simultaneously displayed. Display on the display. Therefore, the correlation of blood pressure measured under different measurement conditions can be confirmed.

Preferably, the suggestion of the relationship between the blood pressures is performed by displaying the difference between blood pressures with a bar-shaped indicator. Therefore, together with the high and low relationship between the two blood pressures, it is possible to provide information of the difference between them.

Preferably, depending on the relationship between the high and low, the display color of the blood pressure data is changed, the blood pressure data is flashed and displayed, or a predetermined pattern or pictogram (hereinafter referred to as an icon) is displayed or not displayed ( Presence or absence of an icon), and further control whether or not the background light is turned on, or the light emission color is changed or flashed.

Therefore, among the blood pressures of the blood pressure data of both the high and low relations, information on whether one blood pressure is higher or lower than that of the other can be easily provided with a simple display. As a result, the display unit may have a simple function and can suppress the cost for the electronic blood pressure monitor.

Preferably, the control unit has a reference comparison unit for comparing the blood pressure data of the representative of the blood pressure data group measured under a predetermined kind of measurement conditions with the reference blood pressure data for blood pressure evaluation. Therefore, the comparison result by the reference comparison unit can be used for high and low relationship.

Preferably, the relationship of elevation is informed by vibration or sound generation. Therefore, not only the visual information by the display but also the vibrating or auditory information can be presented.

Preferably, another kind of measurement condition shows the measurement of night and the measurement of morning. Or the measurement within a predetermined period after wake up and the measurement within a predetermined period before going to bed are shown.

Therefore, the user can assist in judging premature hypertension by displaying the relationship between the morning and the night blood pressure or the relationship between the blood pressure after waking up and the blood pressure before going to bed.

Preferably, the other kind of measurement condition refers to a measurement when a predetermined type of measurement condition is placed between one day or more.

According to the present invention, the correlation of blood pressure measured under different measurement conditions can be displayed.

These and other objects, features, aspects and advantages of the present invention will become apparent from the following detailed description of the invention which is understood in connection with the accompanying drawings.

Description of Preferred Embodiments

EMBODIMENT OF THE INVENTION Hereinafter, embodiment of this invention is described in detail with reference to drawings. In the following description, the same components and components are given the same reference numerals. Their names and functions are the same. Therefore, detailed descriptions of them are not repeated.

(Configuration)

The functional configuration of the electronic blood pressure monitor according to the present embodiment is shown in FIG. 1, and an overview is shown in FIG. 2.

Referring to FIG. 2, the electronic blood pressure monitor 1 according to the present embodiment includes a cuff 5, a blood pressure monitor body 2, and a cuff 5 mounted on a blood pressure measurement site of a subject to pressurize by air pressure. An air pipe 3 to be connected is provided.

The blood pressure monitor main body 2 includes a display unit 4 provided so that the subject can check the display contents, a power switch 41 provided so that the subject can operate from the outside, a measurement switch 42, a recording call switch 43, and a weather signal. A button 44, a sleep button 45, and a risk button 46 are provided. In the drawings, 'switch' may be abbreviated as 'SW'.

The power switch 41 is operated to turn on / off the power supply of the blood pressure monitor main body 2. The measurement switch 42 is operated to indicate the start of blood pressure measurement. The write call switch 43 is operated to read the temporarily stored measurement result and display it on the display section 4. The wake-up button 44 is operated when the blood pressure measurement is performed within 2 hours after waking up, for example, after waking up, and the sleep button 45 is performed when the blood pressure measurement is performed before bedtime, for example within 2 hours before bedtime. If it is manipulated. Each of the wake-up button 44 and the sleep button 45 is printed with the characters 'after weather' and 'before bedtime', respectively. The risk button 46 is operated to instruct the calculation of the risk value based on the stored blood pressure measurement result.

Referring to FIG. 1, the electronic blood pressure monitor 1 measures the change in the pulse pressure of the site under measurement detected through the air bag 21 and the air bag 21 built in the cuff 5. Adjusting the pressure (air pressure) level in the pressure sensor 14 for outputting as a ripple signal, the amplifying circuit 15 for amplifying a voltage signal representing the pressure output from the pressure sensor 14, and the air bag 21 Pump 16 and valve 18, pump drive circuit 17 for driving pump 16, valve drive circuit 19 for adjusting opening and closing of valve 18, display portion 4, memory 12 ), An operation unit 40, a timer 13 for outputting time data by operating the time signal, a power supply unit 29, a sound output unit 47, a vibration unit 48, and a CPU controlling these parts (Central Processing Unit) 20.

The CPU 20 stores therein memory, a riskless processor 22, a display controller 25, a calculator 28 that calculates blood pressure and pulse rate, and blood pressure measurement data. The data storage part 30 which has the function to store in 12 is included. The CPU 20 has a processing function of blood pressure measurement data. The display control unit 25 controls the display of the display unit 4. The functions of the risk processing unit 22, the display control unit 25, the calculation unit 28, and the data storage unit 30 are, in the present embodiment, a predetermined program is read from the memory 12 by the CPU 20. It is realized by execution. In addition, some or all of the functions of these programs may be configured by hardware such as a circuit.

The air bag 21, the pressure sensor 14, the pump 16 and the valve 18 are connected via the air pipe 3, respectively. Here, the power supply for driving is supplied to each part by the power supply part 29, but the power supply part 29 consists of a battery or a commercial power supply. The calculating part 28 calculates a blood pressure value, a pulse rate, etc. based on the pulse signal input from the amplifier circuit 15. FIG.

The operation unit 40 has a power switch 41, a measurement switch 42, a recording call switch 43, a wake-up button 44, a sleep button 45 and a risk button 46 shown in FIG.

The memory 12 stores various data including measurement result data and various programs.

In the above-described configuration, in the blood pressure measurement, the calculation unit 28 converts the pulse signal (pressure signal) output from the amplifying circuit 15 into digital data, and then applies a predetermined algorithm to the data to obtain the highest value. The blood pressure is calculated while calculating the blood pressure (contractor blood pressure) and the minimum blood pressure (extension blood pressure). Since the order of such calculation can apply the well-known order conventionally provided, the detailed description is abbreviate | omitted here.

The electronic blood pressure monitor 1 has an external I / F (Interface) 37 for connecting an external device by communication. The external I / F 37 connects the external computer 31 via the communication line 36. The computer 31 may be a computer of a subject or a doctor's computer. The communication line 36 is wired or wireless. The CPU 20 transmits the measurement data stored in the memory 12 to the computer 31 via the external I / F 37. The computer 31 includes a CPU 32, a memory 33, a display 34, and an I / F section 35 for connecting a communication line. The CPU 32 stores the blood pressure measurement data (contents of the memory 12) received from the electronic blood pressure monitor 1 in the memory 33 in the same manner as the memory 12. The CPU 32 processes the blood pressure measurement data stored in the memory 33 similarly to the CPU 20.

As shown in FIG. 1 and FIG. 2, in the electronic blood pressure monitor 1 according to the present embodiment, each of the wake-up button 44 and the sleep button 45 is divided into blood pressure measurement time zones according to the rhythm of life (before bedtime). After the weather conditions, the measurement conditions are allocated in advance. The result of the blood pressure measurement is stored in a predetermined area of the memory 12 in association with the measurement conditions assigned to the buttons (one of the weather button 44 and the sleep button 45) operated at the time of measuring the blood pressure. Examples of storage in the memory 12 of blood pressure measurement results in this case are shown in FIGS. 3A and 3B.

In Fig. 3A, the memory 12 has areas 26 and 27 in advance, corresponding to the respective measurement conditions. The blood pressure measurement result is recorded in the region (one of the regions 36 and 27) corresponding to the measurement condition of the operated button, that is, the division (measure before bedtime and after waking) of the measurement time zone. It is stored in units. The record R includes data T indicating the measurement time input from the timer 13, highest blood pressure data SBP indicating the highest blood pressure, lowest blood pressure data DBP indicating the lowest blood pressure, and pulse rate data indicating the pulse rate ( Pls). These four data may be corresponded every time a measurement is made, and may be stored in each area | region, It is not limited to the storage format which used record R. FIG.

In addition, the measurement time data T is input by the CPU 20 to the data of the measurement time (time of measurement start or end) indicated by the timer 13, and the measurement time data T (year, month and day). Hour, minute, and day of the week) and store in the record (R). Therefore, based on the measurement time data T, it is determined whether the condition before measurement (night) or after waking up (morning) is related to the measurement result data, and based on the determination result, the measurement result data is stored in memory. You may store in the area | region corresponding to the conditions with which (12) was determined. The determination based on the measurement time data T can be applied by replacing the operation of the wake-up button 44 and the sleep button 45. Alternatively, the present invention can be applied when the wake-up button 44 and the sleep button 45 are not provided. Here, for the sake of simplicity, it is assumed that the measurement data is stored in the region of the memory 12 according to the measurement conditions according to the operation of the wake-up button 44 and the sleep button 45 as shown in FIG. 3A.

The method of associating the measurement conditions with the measurement results in the memory 12 is not limited to the method shown in FIG. 3A. For example, it may be the same as in FIG. 3B. In Fig. 3B, a record Ri (i = 1, 2, 3, ..., m), which is obtained by pairing measurement results such as blood pressure values and information of measurement conditions, is generated each time blood pressure measurement is performed and generated. The recorded record Ri is stored in the memory 12. In the record Ri, any one of the measurement time data Ti, the highest blood pressure data SBPi, the lowest blood pressure data DBPi, the pulse rate data PLSi, and the measurement condition data C1 and C2 are stored. Each of the measurement condition data C1 and C2 indicates the measurement condition information indicated by the wake-up button 44 or the sleep button 45 operated in the blood pressure measurement, that is, the measurement time zone (before bedtime or after wake-up).

(Calculation of Risk Values)

In the present embodiment, the cardiovascular risk is calculated based on the measured blood pressure value stored in the memory 12. Specifically, the CPU 20 calculates the risk value based on a program of calculating the risk value of the cardiovascular vessel previously stored in the memory 12. The processing by the program corresponds to the function of the risk processing unit 22 of the CPU 20. The risk processing unit 22 includes an average value calculating unit 23 and a risk value calculation / determination unit 24.

The average value calculation unit 23 first reads the blood pressure values stored in the memory 12 and calculates an average of the blood pressure values for each of the regions 26 and 27 of FIG. 3A for calculating the risk value. That is, for example, an average value is calculated as a representative value of each group of blood pressure data composed of a plurality of blood pressure data measured under the same kind of measurement conditions. It is assumed here that m records R are stored in the areas 26 and 27, respectively. Calculation of the average blood pressure value is performed using the following formula. If m = 1, the representative value of the blood pressure data group corresponds to the measurement data indicated by one record (m = 1) included in the group.

Post-wake measurement SBP mean = (Post-measurement peak blood pressure data (SBP1) + Post-measurement peak blood pressure data (SBP2) +… + Post-measurement peak blood pressure data (SBPm)) / m (where m = 1, 2, 3,…).

Post-wake measurement DBP mean = (measurement of post-memory lowest blood pressure data (DBP1) + post-memory measurement lowest blood pressure data (DBP2) +… + measurement of post-memory low blood pressure data (DBPm)) / m (where m = 1, 2, 3,…).

Pre-Sleep SBP Mean = (Pre-Blood High Blood Pressure Data (SBP1) + Pre-Blood Blood Pressure Data (SBP2) +… + Pre-Blood Blood Pressure Data (SBPm)) / m (where m = 1, 2, 3,…).

DBP mean before bedtime = (Best blood pressure data before bedtime (DBP1) + Best bedtime blood pressure data (DBP2) +… + Best bedtime blood pressure data (DBPm)) / m (where m = 1, 2, 3,…).

Post Wake Measurement PLS Mean = (Post Wake Pulse Rate Data (PLS1) + Post Wake Pulse Rate Data (PLS2) +… + Post Wake Pulse Rate Data (PLSm)) / m (where m = 1, 2, 3,...) ).

PLS measurement before bed average = (pulse rate data before sleep (PLS1) + pulse rate data before sleep (PLS2) + ... + pulse rate data before sleep (PLSm)) / m (where m = 1, 2, 3,... ).

Based on the calculation result based on these formulas, the risk value calculation / decision unit 24 determines the risk value. Specifically, when it is determined that the post-wake-up measurement SBP average> 135 mmHg or the post-wake-up measurement DBP average> 85 mmHg is established, it is determined as "early hypertension". In addition, the standard value of a risk determination is based on, for example, the standard of the American Blood Pressure Consolidation Committee or the high blood pressure standard of the family blood pressure of the Japanese Association of Hypertension, and the standard of the highest blood pressure SBP is 135 mmHg and the lowest blood pressure DBP. The reference is 85 mm Hg. These reference values are stored in the internal memory (not shown) of the CPU 20 in advance.

In addition, the risk value calculation / determination part 24 is a mean value (henceforth ME mean) of the blood pressure value measured in the time zone before bedtime and the time zone immediately after waking-up according to the following formula, for both calculation of a risk value, The difference (hereinafter, referred to as ME difference) is calculated.

ME difference = post-weather SBP mean-pre-bedtime SBP mean

ME mean = (mean SBP average + post-bed SBP average) / 2

The risk value calculation / decision unit 24 determines the risk value using these equations. For example, when it is determined that ME difference> 20 mmHg and ME mean> 135 mmHg hold, it is determined as "adult hypertension". Moreover, as shown in Unexamined-Japanese-Patent No. 2004-261452, when it is ME difference> 20 mmHg, it determines with "early hypertension". The reference values for these determinations are stored in the internal memory (not shown) of the CPU 20 in advance.

Since the value of the blood pressure is disturbed by various factors, it is preferable to repeat the blood pressure measurement in these time periods over a plurality of days, and then obtain an average value for each time period, and then measure the ME average value or the ME difference. After the acquisition, the risk is judged. This improves the accuracy of risk estimation.

(Measure order)

The blood pressure measurement operation using the electronic blood pressure monitor 1 of the present embodiment will be described. 4 through 6 are stored in the memory 12 as a program in advance, and are read and executed by the CPU 20. The blood pressure measuring operation according to the flowchart of FIG. 4 will be described.

First, the measurement subject wraps the cuff 5 around the measurement site and operates the power switch 41 of the electronic blood pressure monitor 1, and an operation signal is given to the CPU 20. The CPU 20 controls the power supply unit 29 based on the given operation signal, and starts supplying power to each part (step ST (hereinafter simply referred to as ST) 1). Next, the CPU 20 controls each part so that the output of the pressure sensor 14 indicates 0 mmHg as the initialization process of the electronic blood pressure monitor 1, and exhausts the air in the air bag 21. (ST2)

Next, the measurement person operates one of the buttons according to the measurement conditions, that is, the wake-up button 44 and the sleep button 45, to input the measurement conditions (S5). Different operation signals are given to the CPU 20 from the operation unit 40 for each of the operated buttons. The CPU 20 determines which button is operated based on the given operation signal, and temporarily stores data of measurement conditions corresponding to the button indicated by the determination result in an internal memory not shown.

Subsequently, since the measurement switch 42 is operated by the subject, the operation signal by the operation is given to the CPU 20. The CPU 20 detects that the start of blood pressure measurement is instructed based on the input operation signal (ST4). Then, the subsequent blood pressure measurement is started. In addition, at the time of operation of the measurement switch 42, the CPU 20 inputs the current time from the timer 13 and temporarily stores the input time in the internal memory (not shown) as the measurement time data T. .

The determination of the measurement conditions based on the operation of the wake-up button 44 and the sleep button 45 is performed as follows, for example. That is, the memory 12 stores in advance the data of the operation signal indicating that the switch has been operated and the data of the instruction content indicated by the operation signal for each switch provided in the operation unit 40 in advance. Therefore, the CPU 20 can search for the corresponding data in the memory 12 on the basis of the operation signal given from the operation unit 40, and read the data of the corresponding instruction content in response to the operation signal. By interpreting the data of the read instruction content, it is possible to determine that the measurement condition is indicated and the indicated measurement condition (a distinction between the measurement before going to bed and the measurement after waking up).

According to the operation of the measurement start switch 42 described above, the CPU 20 controls each part and pressurizes it to about 40 mm Hg of the blood pressure of the subject (ST5), and gradually increases the pressure in the air bag 21. The pressure is reduced (ST6). In addition, suppose the highest blood pressure of a subject is previously input by the subject. In this pressure reduction process, the pressure in the air bag 21 is detected by the pressure sensor 14. The calculating unit 28 of the CPU 20 calculates the blood pressure (highest blood pressure and the lowest blood pressure) value and the pulse rate based on the detected pressure and temporarily stores it in the internal memory of the CPU 20 (ST7). At this time, the display control unit 25 displays the calculated blood pressure value and pulse rate on the display unit 4 (ST8). The processing of pressurization and decompression for blood pressure measurement is the same as that of the conventional electronic blood pressure monitor. In addition, although blood pressure measurement is performed in a decompression process, you may perform in a pressurization process here.

When the calculation and display of the blood pressure and pulse described above are completed, the data storage unit 30 of the CPU 20 stores the memory based on the data (data stored in the internal memory) of the measurement conditions indicated by the button operated in ST3. (12) is searched and the area | region corresponding to a measurement condition is specified. Then, a new record R containing the measurement results (blood pressure value data SBP and DBP and pulse rate data PLS) and measurement time data T temporarily stored in the internal memory of the CPU 20 is generated. The generated record R is registered (stored) in a specific area of the memory 12 (ST9). As a result, the blood pressure measurement data is stored in the memory 12 in association with the measurement conditions. This completes the series of blood pressure measurement.

In the procedure of FIG. 4, the input processing ST3 of the measurement condition is executed at the start of blood pressure measurement, but when the measurement result data is stored in the memory 12 as shown in FIG. 5 (ST9), the input of the measurement condition (ST8a) is performed. ) May be performed. The other processing of FIG. 5 is the same as that of FIG.

At the end of blood pressure measurement, the measurement result is temporarily stored in the internal memory of the CPU 20. Therefore, after the measurement is finished, the subject can read the measurement result data from the internal memory by operating the operation unit 40 and display the read data on the display unit 4. The person to be measured may input (indicate) the measurement conditions by operating the weather button 44 or the sleep button 45 after confirming the measurement result displayed in this way.

In the processing of FIG. 4 and FIG. 5, all the measurement result data is stored in the memory 12. However, the measurement result data may be selectively stored in the memory 12 by input of measurement conditions.

In the case where the risk value is calculated and displayed following the blood pressure measurement process of FIG. 5, the procedure of FIG. 6 is executed. In the procedure of FIG. 6, after the processes of ST1 to ST9 in FIG. 5 are similarly executed, the risk processing unit 22 of the CPU 20 performs as many data as the data of each region of the memory 12 can calculate the risk value. For example, it is determined whether at least one or more are recorded (ST10). If it is determined that it is not recorded (NO in ST10), the series of processing ends. In the case where it is determined that the data of each area is recorded as many as the risk value can be calculated (YES in ST10), the measurement result data is read from the memory 12, and the average value calculating section 23 based on the read data. The average value is calculated according to the above-described formula, and the risk value is calculated and determined by the risk value calculation / decision unit 24 (ST13). And a calculation result or a determination result is displayed on the display part 4 by the display control part 25 (ST15). Then, a series of processes are complete | finished.

In FIG. 6, although the process of calculating and displaying a risk value is performed continuously from blood pressure measurement, it is not limited to such a continuous process. In other words, the calculation and display of the risk value may be started as the subject operates the risk button 46 of the operation unit 40.

In addition, the process of ST13 and ST15 of FIG. 6 may be performed by the computer 31. FIG. That is, the CPU 20 reads the measurement data stored in the memory 12 of the electronic blood pressure monitor 1 as shown in FIG. 3A or 3B, and transmits it to the computer 31 via the communication line 36. The CPU 32 of the computer 31 receives these measurement data, stores it in the memory 33, and executes the processes shown in ST13 and ST15 based on the stored measurement data. The result may be displayed on the display 34 having a function corresponding to the display unit 4.

In this case, the CPU 32 includes a risk processing unit 22 including an average value calculation unit 23 and a risk value calculation / determination unit 24, and an average value calculation unit having a function corresponding to the display control unit 25 ( It is assumed that it has a risk processing part 22A and a display control part 25A including 23A) and the risk value calculation / determination 24A. Specifically, it is assumed that a program corresponding to the risk processing unit 22A including the average value calculation unit 23A and the risk value calculation / determination unit 24A, and the display control unit 25A is executed. In these cases, since the computer 31 is responsible for risk calculation, determination and display, and the electronic blood pressure monitor 1 is responsible for blood pressure measurement, the load can be distributed between the two.

In addition, by communicating with the remote doctor's computer 31, the doctor can sit down, obtain blood pressure data of the subject from the remote location, and contribute usefully to diagnosis and treatment.

In addition, the supply of the measurement data to the computer 31 is not limited to via the communication line 36, but may be performed using various recording media such as a magnetic / optical disk.

The processing function described above is realized by a program. In that case, this program is stored in a computer-readable recording medium. In the present embodiment, as the recording medium, a memory necessary for processing in the electronic blood pressure monitor 1 or the computer 31 shown in FIG. 1, for example, the memory 12 and the memory 33 itself. May be a program recording medium. Or the CD-ROMs 39 and 39A which can be attached or detached to a device may be sufficient. In that case, the electronic blood pressure monitor 1 and the computer 31 are provided with I / Fs 38 and 38A as program reading devices such as a compact disk-read only memory (CD-ROM) device as an external storage device. CD-ROMs 39 and 39A serving as recording media are inserted therein. In either case, the program stored in the recording medium is accessed and executed by the CPU 20 or the CPU 32.

Here, the above-described program medium is a recording medium which is separated from the electronic blood pressure monitor 1 or the computer 31, and is a magnetic disk such as a flexible disk or a CD-ROM / Magnetic Optical Disk (MD) / MD (Mini Disk). Or a recording medium such as a disk system of an optical disk such as a DVD (Digital Versatile Disk) or a card system such as an IC card (including a memory card) / optical card.

In addition, in this embodiment, the communication line 36 can also be various communication networks including the Internet. In that case, a program may be downloaded to the electronic blood pressure monitor 1 and the memories 12 and 33 of the computer 31 via the communication line 36.

(Display example of risk value)

Various display examples of the risk value in the display part 4 by the display control part 25 of ST15, or various display examples of the risk value in the display 34 by the display control part 25A are shown below. In addition, in the display example of each figure, "SBP" shows the highest blood pressure, "DBP" shows the lowest blood pressure, and "PLS" shows the pulse rate.

(Display example 1)

In FIG. 7, the display unit 4 includes display areas 51 and 52 for simultaneously arranging and simultaneously displaying measurement data after waking up and measurement data before going to bed. In the display area 51, post-wake-up measurement SBP average data 61, post-wake-up measurement DBP average data 62, and post-wake-up measurement PLS average data 63 obtained by the above-described formula in the average value calculation unit 23 are included. Are displayed respectively. In the display area 52 arranged in each of these, the pre-bedtime measurement SBP average data 71, the pre-bedtime measurement DBP average data 72 and the pre-bedtime measurement PLS obtained by the average value calculating unit 23 according to the above-described formula. Each of the average data 73 is displayed. Therefore, the measurement data of the display areas 51 and 52 are displayed in a state related to each other.

The risk value calculation / determination 24 compares the data displayed in the display areas 51 and 52. On the basis of the comparison result, the display control unit 25 may change the display color of the high blood pressure data so as to be a predetermined color different from that of the low side, such that the high and low relationship is displayed in a predetermined mode. good. For example, the values of the post-wake measurement SBP average data 61 and the pre-bedtime measurement SBP average data 71 are compared to display all data in the display area of the data showing the higher blood pressure in a predetermined color. Also good. 8 is a display example of color change when the post-wake-up measurement SBP average data 61 is high. The display mode is not limited to the color change display, but may be changed to the flashing display.

Alternatively, the post-wake-up measurement SBP average data 61 may be compared with the pre-bedtime measurement SBP average data 71, and only the data showing the higher blood pressure among the two may be displayed flickering. Alternatively, the post-wake measurement DBP average data 62 may be compared with the pre-bedtime measurement DBP average data 72, and only the data of the one showing the higher blood pressure may be color-changed and displayed. Alternatively, the post-wakeup measurement SBP average data 61 and the pre-bedtime measurement SBP average data 71 are compared, and the data showing the higher blood pressure among them, the post-wakeup DBP average data 62 and the pre-bedtime DBP average By comparing the data 72, both of the data on the side showing the higher blood pressure may be displayed in color change.

In addition, the risk value calculation / determination part 24 compares the value which the blood pressure data of the display area 51 and 52 shows with the reference value (135 mmHg, 85 mmHg) of risk determination. Based on the comparison result, the display control unit 25 may display whether it is higher or lower than the reference value. For example, in the display areas 51 and 52, all data of a region including a blood pressure higher than the reference value may be displayed flickering. Alternatively, the blood pressure data higher than the reference value (only the highest blood pressure, only the lowest blood pressure, or both) may be displayed in color change.

In addition, the display mode may be as follows. That is, the display control part 25 sets the backlight provided previously in the background of the data of the blood pressure (highest blood pressure, lowest blood pressure, and both blood pressure) of the side determined to be high based on the comparison result mentioned above, and the blood pressure of the side determined to be low. Change the data to be different from the backlight. For example, only the backlight of the high blood pressure data is turned on or flashes. Alternatively, the light emission color of the backlight of the blood pressure data of the side determined to be high and the blood pressure data of the side determined to be low is different, the light emission color and the flashing are different, or the flashing cycle is different.

In FIG. 9, in the display unit 4, a representative value (post-measurement measurement SBP average data 61, calculated after meteorological measurement) calculated for the blood pressure data group read from one of the regions 27 of the regions 26 and 27. Only post-wake measurement data consisting of DBP average data 62 and post-wake measurement PLS average data 63 are displayed.

And the risk value calculation / determination part 24 compares the value which the representative blood pressure data displayed on the display part 4 displayed with the reference value (135 mmHg, 85 mmHg) of risk determination as shown in FIG. Based on this comparison result, the display control unit 25 displays on the display unit 4 whether it is higher or lower than the reference value. For example, if the blood pressure data higher than the reference value is displayed, the backlight of the display unit 4 may be changed to notify that the blood pressure is higher than the reference value. Alternatively, only the backlight of blood pressure data higher than the reference value (only the highest blood pressure, only the lowest blood pressure, or both) may be changed to be different from the backlight of other data. As an aspect of a change of a backlight, it turns off, it lights, or flashes, for example. Alternatively, the emission color is changed. Or by using light emission color and blinking. Or changing the blink cycle. The same applies to the case where the average value calculation unit 23 reads data from the area 26 among the areas 26 and 27.

In the display aspect of FIG. 9, what kind of measurement condition data is displayed may be instructed by the user using the operation unit 40. Or it may be predetermined.

(Display example 2)

In FIG. 10, the display unit 4 includes display regions 51 and 53. In the display area 51, for example, post-wake-up measurement SBP average data 61, post-wake-up measurement DBP average data 62, and post-wake-up measurement PLS average data 63 are displayed. In the display area 53, the average data displayed in the display area 51 and the comparison result by the risk value calculation / decision unit 24 of the reference value (135 mmHg, 85 mmHg) of risk determination, or the measurement before going to bed The result of comparison with the average value of the data may be displayed. In the display area 53, blocks 81 to 84 for displaying the comparison result are displayed. Examples of the display of blocks 81 to 84 in the display area 53 are shown in Figs. 11A to 11D.

In the case of the display of FIG. 10, the average value calculation part 23 reads out measurement data from each of the area | regions 26 and 27 for every different kind of measurement conditions, and calculates an average respectively according to the above-mentioned formula. The display control unit 25 selects average data of any one kind of measurement conditions and displays it on the display area 51. Here, although average data about the area | region 27 of the post-wake measurement is displayed, the average data of the measurement area 26 before bedtime may be selected. What kind of measurement condition data is displayed on the display area 51 of FIG. 10 may be instructed by the user via the operation unit 40. Or it may be predetermined.

In FIG. 11A, the comparison result of the threshold value (135 mmHg, 85 mmHg) 80 of a risk determination and the blood pressure measurement value is shown by the inversion (non-inverting) display of blocks 81-84. Specifically, as a result of the comparison, the post-wake-up measurement SBP average data 61 and the post-wake-up measurement DBP average data 62 are higher than the reference value 80, and the pre-bed measurement SBP average data 71 and the pre-bed measurement DBP average If it is determined that the data 72 is lower than the reference value 80, the upper and lower blocks 81 and 82 with the reference value 80 interposed after the wake-up (morning) are inverted (displayed in full) and before going to bed. Of the upper and lower blocks 83 and 84 with the reference value 80 of (night) interposed, the block 84 below the reference value 80 is inverted and the upper block 83 is non-inverted (blank display). .

In addition, the determination of whether it is higher or lower than the reference value 80 is performed by the risk value calculation / decision unit 24. Specifically, when it is determined that the predetermined relationship "" highest blood pressure> 135mmHg or lowest blood pressure> 85mmHg "or" highest blood pressure> 135mmHg and minimum blood pressure> 85mmHg "is established, a blood pressure value is predetermined. Is evaluated to be higher than the reference value 80, and when it is determined that the predetermined relationship does not hold, the blood pressure value is evaluated to be lower than the predetermined reference value 80. In this predetermined relationship, either or both of the post-wake-up measurement SBP average data 61 and the post-wake-up measurement DBP average data 62 are applied with respect to after-wake (morning). In addition, about before bedtime (night), either or both of the before-measurement SBP average data 71 and the before-measurement DBP average data 72 is applied.

In FIG. 11B, the risk value calculation / determination unit 24 compares the measured blood pressure after waking up and before going to bed, and uses the blocks 81 to 84 to determine whether the display control unit 25 is high or low based on the comparison result. To display. In FIG. 11B, since the value of the post-wake-up measurement SBP average data 61 is higher than the pre-bedtime measurement SBP average data 71, in order to show this comparison result, the upper-and-lower block 81 corresponding to after-wake (morning) is shown. 82 is displayed in reverse, and the lower block 84 in the corresponding upper and lower blocks before and after going to bed is displayed in reverse.

In Fig. 11C and Fig. 11D, the averages of the blood pressure measurement data after waking up and before going to bed are compared, and it is displayed based on the comparison result, and it is displayed whether the average value is high or low with respect to the predetermined reference value. In FIG. 11C, the risk value calculation / determination 24 shows that the post-wake-up measurement SBP average data 61 is higher than the pre-bedtime measurement SBP average data 71, and the post-wake-up measurement average data is based on the above-described predetermined relationship. It is determined that the reference value is higher than the reference value 80. Based on the result of this determination, the display control part 25 reversely displays the upper and lower blocks 81 and 82 after the morning (morning), and also displays the blocks 83 and 84 blank. Similarly, in FIG. 11D, it is determined that the post-wake-up measurement SBP average data 61 is higher than the pre-bedtime measurement SBP average data 71 and the post-wake-up measurement average data is lower than the reference value 80 based on the above-described predetermined relationship. do. Therefore, only the lower block 82 of the upper and lower blocks 81 and 82 after the wake-up (morning) is inverted, and the other blocks are blank.

(Display example 3)

12 shows another display mode of the blocks 81 to 84 in the display area 53 of FIG. 10. The display aspect of the blocks 81-84 of the display area 53 is shown to FIG. 13A-13D. The operation of the average value calculator 23 is the same as that of FIG.

In Fig. 13A, a comparison result of the blood pressure measurement value and the reference value 80 is shown. For example, the above-described predetermined relationship is established for either or both of the post-wake-up measurement SBP average data 61 and the post-wake-up measurement DBP average data 62 and the reference value 80 shown in the display area 51 ( In other words, the blood pressure after waking up is higher than the reference value 80), one or both of the before-measurement SBP average data 71 and the before-measurement DBP average data 72 and the predetermined value described above with respect to the reference value 80. Is determined to be non-existent (i.e., blood pressure before bedtime is lower than the reference value 80), in order to show the result of the judgment (comparison), The upper block 81 of the blocks 81 and 82 and the lower block 84 of the upper and lower blocks 83 and 84 with the reference value 80 before going to bed (night) are inverted. Display), and the other block is displayed non-inverted (blank display).

In Fig. 13B, the average of blood pressure measurement data after waking up and before going to bed is compared, and the relationship between both based on the comparison result is displayed using blocks 81 to 84. In the display example of FIG. 13B, for example, it is determined by comparison that the value of the post-wake-up measurement SBP average data 61 is higher than the value of the pre-bedtime measurement SBP average data 71. In order to show the determination result, only the upper block 81 of the blocks 81 and 82 after wake-up (morning) and the lower block 84 of the blocks 83 and 84 before bedtime (night) are inverted and displayed. (The whole painted display), and the other blocks are non-inverted displayed (blank display).

In addition, in FIG. 13C and FIG. 13D, the aspect which shows the comparison result of the blood pressure after awakening and before bedtime, and the comparison result of the reference value 80 is shown. In FIG. 13C, the post-wake-up measurement SBP average data 61 is higher than the pre-wake-up measurement SBP average data 71, and the post-wake-up measurement SBP average data 61, the post-wake-up measurement DBP average data 62, and the reference value 80. ), An example of display in the case where it is determined that the above-mentioned predetermined relationship holds (higher than the reference value 80) is shown. That is, among the upper and lower blocks 81 and 82 having the reference value 80 after the wake-up (morning), the block 81 above the reference value 80 is inverted (displayed in full) and the other blocks Non-inverted display (blank display) is performed.

In Fig. 13D, the post-wake-up measurement SBP average data 61 is higher than the pre-bedtime measurement SBP average data 71, and the average of the blood pressure measurement data after the wake-up is higher than before the bedtime, and the post-wake-up measurement SBP average data 61 ) And a display example in the case where it is determined that the above-described predetermined relationship is not established (lower than the reference value 80) with respect to the post-wake-up measurement DBP average data 62 and the reference value 80. Specifically, among the upper and lower blocks 81 and 82 with the reference value 80 between the weather (morning) interposed, the block 82 below the reference value 80 is inverted (displayed in full), and the other Blocks are displayed non-inverted (blank).

In FIGS. 13B to 13D, blood pressure values between after waking up and before going to bed are compared, but the comparative control is not limited to a combination of post-wakeup measurement SBP average data 61 and prebedtime measurement SBP average data 71. Instead, the combination of the post-wake measurement DBP average data 62 and the pre-bedtime measurement DBP average data 72 may be used.

In (Example 1) to (Example 3) described above, the data obtained by measuring blood pressure under different measurement conditions are displayed with high and low correlations, but the measurement conditions of the display target data are the average of the measured data after waking up and going to bed. It is not limited to the average of all measurement data. For example, this measurement data and the last measurement data may be sufficient, the average value of today's measurement data and the average value of yesterday's measurement data may be sufficient, or the average value of the Monday's measurement data and the other day's measurement data may be sufficient as it. The average value of the measured data of this week and the average of measured data of the previous week may be sufficient, or the average of the measured data of this month and the average of measured data of transmission may be sufficient.

(Display example 4)

The measured blood pressure values may be compared to determine whether one side is high or low based on the comparison result, and the determined result may be displayed using the direction of the arrow 85 as shown in FIGS. 14 to 16. Although the relationship of height and low is shown using the direction of an arrow here, if it is a symbol and a figure which can show the relationship of height and low in the direction, it is not limited to an arrow.

For example, in FIG. 14, an arrow 85 is displayed along with the post-wake-up measurement SBP average data 64, the post-wake-up measurement DBP average data 65, and the post-wake-up measurement PLS average data 66. . The risk value calculation / decision unit 24 includes the average data (64 to 66) of today's post-wake measurement SBP, post-wake measurement DBP and post-wake measurement pulse rate PLS, yesterday's pre-bed measurement SBP, pre-bed measurement DBP and Average data of pulse rate PLS measured before bedtime SBP average data measured before bedtime is compared. And the display control part 25 shows with arrow 85 whether today's blood pressure is higher or lower than yesterday's blood pressure based on a comparison result. In addition, these average values are calculated | required by the average value calculation part 23. FIG. In FIG. 14, the results of comparing the post-wake-up measurement SBP average data 64 and the pre-bedtime measurement SBP average data show that the post-wake-up measurement SBP average data 64 tends to be higher than the pre-bedtime measurement SBP average data. Reference numeral 85 is indicated upwards. If it is low, it becomes a downward arrow 85, and if there is no change, it becomes an arrow 85 of a horizontal direction.

The comparison can be, for example, a comparison using any mean data of the highest blood pressure, the lowest blood pressure and the pulse rate after waking up and before bedtime, or a comparison using all the average data of the highest blood pressure, lowest blood pressure and pulse rate after waking up and before bedtime, Alternatively, the comparison may be performed using either the average data of the highest blood pressure and the lowest blood pressure after waking up and before going to bed, or the comparison using two types of average data of the highest blood pressure and the lowest blood pressure after waking up and before bedtime. When comparing using the average data of the highest blood pressure, the lowest blood pressure, and the pulse wave number, if one or more of these three types of data after waking is higher than that before going to bed, the upward arrow 85 becomes low, and the lower downward. Arrow 85 is used, and when there are no changes in the three types of data, the arrow 85 is in the horizontal direction. In the case where the trend is determined by comparing both the highest blood pressure and the lowest blood pressure, an upward arrow 85 becomes higher if at least one of the highest blood pressure and the lowest blood pressure after waking up is higher than that before sleep, and the lower arrow ( 85) and a horizontal arrow 85 if there are no changes in the two types of data.

15, the arrow 85 may be displayed correspondingly about the average data 64-66 of the post-wake-up measurement SBP, the post-wake-up measurement DBP, and the post-wake-up measurement pulse rate PLS, respectively. Of the average data (64-66) of today's post-weather measurement SBP, post-weather measurement DBP and post-weather measurement pulse rate PLS, and yesterday's pre-bed measurement SBP, pre-bed measurement DBP and pre-bed measurement pulse rate PLS, respectively. Each may be compared and the direction of the corresponding arrow 85 may be changed based on the comparison result.

As shown in Fig. 16, the results of comparison of the measured data for each week, week, and week before week with the average data (64 to 66) of the post-wake weather measurement SBP, the post-wake weather measurement DBP, and the post-wake weather pulse rate PLS. You may display the arrow 85 which shows the based direction. The risk value calculation / decision unit 24 compares the post-weather measurement SBP average data 64 and the post-weather measurement SBP average data of the present day, the post-weather measurement SBP average data 64 and the post-weather measurement SBP of the previous week. Comparison of average data and post-wake measurement SBP average data 64 and pre-war postwar measurement SBP average data are compared, and the display control unit 25 displays an arrow 85 in the direction based on each comparison result for each week. Display correspondingly. Moreover, the average value for each state is calculated | required by the average value calculation part 23. As shown in FIG.

14 and 15, the average data (64 to 66) of today's post-wake measurement SBP, post-wake measurement DBP and post-wake measurement pulse rate PLS, pre-bed measurement SBP, pre-bed measurement DBP and pre-bed measurement pulse rate Although it was comparison of the average data of PLS, the comparison object is not limited to this. For example, the current measurement and the previous measurement, or the measurement after waking up and the measurement before going to bed (compared to one measurement or average), today's and yesterday's measurements (compared to average), or measurements of the week The measurements of the last week (compared to the mean) or the measurements of the month and the measured values (compared to the mean) of the month.

In addition, although it was a comparison of measured values in FIG. 14, the comparison of a measured value and the reference value (135 mmHg, 85 mmHg) of a risk determination may be sufficient. That is, while displaying the average data (64-66) of today's post-wake-up measurement SBP, post-wake-up measurement DBP, and post-wake-up measurement pulse rate PLS, the risk value calculation / decision unit 24 shows the post-wake-up measurement SBP average data of today. It is determined whether the above-described predetermined relationship holds with reference to 64 and the post-wake-up measurement DBP average data 65 and the reference value. And when it is determined that it is established, the display control unit 25 displays the arrow 85 upwards and downward when it is determined that it is not established.

(Display example 5)

By comparing the measured blood pressure values, it is determined whether one side is high or low based on the comparison result, and the determined result is determined using an icon 88 representing a predetermined pattern or pictogram as shown in Figs. It may be displayed. Here, the high and low relationship is shown using the display mode of the icon 88. In addition, the data of the target of FIGS. 17-19, the procedure of a comparison, etc. are the same as that of what was demonstrated in FIGS. 14-16.

The display mode of the icon 88 is changed using the presence / absence of the display by the lighting of the icon, or the blink, or the display color or the combination of the display color and the flash, or the blink cycle.

In each of FIGS. 17 to 19, a display example in the case where the arrow 85 in each of FIGS. 14 to 16 is replaced by the icon 88 is shown. In FIG. 17, since the post-wake-up measurement SBP average data 64 and the pre-bedtime measurement SBP average data are compared with each other, the post-wake-up measurement SBP average data 64 shows a tendency to be higher than the pre-bedtime measurement SBP average data. 85 lights up. If it is low, it remains flashing. It goes out if there is no change.

In addition, as shown in FIG. 18, the icon 88 may be displayed correspondingly to each of the average data 64 to 66 of the post-wake measurement SBP, the post-wake measurement DBP, and the post-wake measurement pulse rate PLS. Today's post-measurement SBP, post-weather measurement DBP and average weather data of the post-measurement pulse rate PLS (64 to 66), respectively, the pre-bedtime measurement SBP, pre-bedtime measurement DBP and pre-bedtime pulse rate PLS, respectively May be compared to change the display mode of the corresponding icon 88 based on the comparison result.

In addition, as shown in Fig. 19, the comparison of the measurement data for every week, week, and week before with the average data (64 to 66) of the post-wake-up measurement SBP, post-wake-up measurement DBP, and post-wake-up measurement pulse rate PLS. The icon 88 may be displayed based on the result. The risk value calculation / decision unit 24 compares the today's post-weather measurement SBP average data 64 with the post-weather measurement SBP average data this week, the post-weather measurement SBP average data 64 and the pre-weather post-measurement SBP Comparison of average data and post-weather measurement SBP average data 64 and post-war weather SBP average data are compared. The display control unit 25 then displays the corresponding icon 88 for each state in the mode based on the comparison result.

(Display example 6)

The blood pressure measurement result data under different measurement conditions may be compared, and the comparison result may be displayed using the rod-shaped indicator 86 as shown in Figs.

In FIG. 20, the indicator 86 is displayed on the display unit 4 while displaying average data 64 to 66 of post-wake measurement SBP, post-wake measurement DBP and post-wake measurement pulse rate PLS. The risk value calculation / decision unit 24 compares the values of the post-wake-up measurement SBP average data 64 and the yesterday's pre-bedtime measurement SBP average data to obtain a difference, and the obtained difference is displayed on the display control unit 25. Is displayed using the indicator 86.

Examples of display using the indicator 86 are shown in Figs. 24A to 24E. When the difference obtained by subtracting the value of the SBP average data before bedding from the value of the post-wake-up measurement SBP average data exceeds -20 mmHg, the indicator 86 is displayed as shown in FIG. 24A. Similarly, when the difference is -10 to -20 mmHg, it is displayed as shown in FIG. 24B, and when the difference is ± 10 mmHg, it is displayed as shown in FIG. 24C, and when it is 10 to 20 mmHg, FIG. 24D If the difference exceeds 20 mmHg, it is displayed as shown in Fig. 24E. In this way, the indicator 86 is displayed as a plurality of blocks stacked in a rod shape, and only one block indicating the level corresponding to the difference is inverted (displayed in full). Therefore, the difference can be recognized by confirming the position of the inverted block in the rod-shaped indicator.

In FIG. 20, although the post-wake-up measurement SBP average data and the bedtime measurement SBP average data were compared, the comparison object is not limited to this. For example, the comparison may be made of any of the average data of the highest blood pressure, the lowest blood pressure, and the pulse rate after waking up and before bedtime. Alternatively, any of the average data of the highest blood pressure and the lowest blood pressure after waking up and before bedtime may be used. Alternatively, the comparison may be made of all average data of the highest blood pressure, the lowest blood pressure and the pulse rate after waking up and before going to bed. Alternatively, two comparisons may be made between the mean data of the highest blood pressure and the lowest blood pressure after waking up and before going to bed. When comparing these some average data, you may make it display the largest difference among the some difference which is a comparison result.

In Fig. 21, the average data (64 to 66) of today's post-wake measurement SBP, post-wake measurement DBP and post-wake measurement pulse rate PLS, yesterday's pre-bed measurement SBP, pre-bed measurement DBP and pre-bed measurement pulse rate PLS The average data of each is compared, and the display of the corresponding indicator 86 is performed similarly to FIG. 20 based on the comparison result.

In FIG. 22, the trend based on the comparison result of measured data for every week, week, and previous week together with the average data (64-66) of today's post-wake measurement SBP, post-wake measurement DBP, and post-wake measurement pulse rate PLS. An indicator 86 is displayed. Comparison of post-weather measurement SBP average data (64) with this week's post-weather measurement SBP average data, comparison of post-weather measurement SBP average data (64) with the post-weather measurement SBP average data, post-weather measurement SBP average data (64 ) And the SBP average data measured after waking before the pre-war week, respectively, and based on each comparison result, the corresponding indicator 86 is displayed for each week as in FIG. 20.

In FIG. 23, every day of the after-measurement measurement SBP average data 64 of today's after-measurement SBP, the after-measurement measurement DBP, and the after-measurement measurement pulse rate PLS, and the day-after-weekly measurement SBP average data 64 The difference based on the comparison of the post-wake-up measurement SBP average data is displayed similarly to FIG. 20 by the indicator 86 every day.

In FIG. 20 and FIG. 21, the average data (64-66) of today's post-wake measurement SBP, post-wake measurement DBP and post-wake measurement pulse rate PLS, pre-bed measurement SBP, pre-bed measurement DBP and pre-bed measurement pulse rate Although it was comparison of the average data of PLS, the comparison object is not limited to this. For example, the current measurement and the previous measurement, or the measurement after waking up and the measurement before going to bed (compared to one measurement or average), today's and yesterday's measurements (compared to average), or measurements of the week The measurements of the previous week (comparison by average) or the measurements of the month and the measurements of delivery (comparison by average) may be used.

In addition, although it was a comparison of measured values in FIG. 20, you may compare a measured value and the reference value (135 mmHg, 85 mmHg) of a risk determination. That is, while displaying the average data (64-66) of today's post-wake-up measurement SBP, post-wake-up measurement DBP, and post-wake-up measurement pulse rate PLS, the risk value calculation / decision unit 24 shows the post-wake-up measurement SBP average data of today. The difference between 64 and post-weather measurement DBP average data 65 and a reference value (135 mmHg or 85 mmHg) is calculated | required. And the display control part 25 may display the calculated difference with the indicator 86. The difference is the difference between the reference value 135mmHg of the post-wake-up measurement SBP average data 64 or the difference between the post-wake-up measurement DBP average data 63 and the reference value 85mmHg. An example of display of such an indicator is shown in FIG. In FIG. 25, the difference from the reference value 80 is displayed using the indicator 86.

(Display example 7)

Another display example of FIGS. 20 to 25 is shown in FIGS. 26 to 31. The display of the trend using the indicator 86 of FIGS. 20 to 25 may be changed as shown in FIGS. 26 to 31. In FIGS. 26 to 31, the difference between two measurement data under different measurement conditions to be compared, or the difference between the measurement data and the reference value indicates that one or more blocks of the plurality of blocks of the indicator 87 are inverted (overall display). Is indicated. The subject can recognize the amount of difference by checking the total number of inverted blocks.

In addition, in the case where the display using the indicator of the display example 6 is used, the indicator may be inverted only when it is higher than the reference value 80.

(Display example 8)

In display examples 6 and 7, the difference indicated by the comparison result is displayed using the indicators 86 and 87. In display example 8, the LED 89 is used instead of the indicator. The measurement data to be displayed, the order of comparison and determination, and the data to be compared are the same as those of the display examples 6 and 7 except that the indicator 86 or 87 is replaced with the LED 89.

32 to 34, the display control unit 25 changes the display mode of the LED 89 based on the comparison result of the blood pressure data as a target or the comparison result of the blood pressure data and the reference value 80. Let's do it. That is, the relationship of the high or low elevation which the comparison result shows is displayed by making LED 89 light up or flashing.

In addition, the difference amount may be indicated by lighting or blinking. For example, a difference of less than 10 mmHg may turn off the LED, and 10 mmHg or more and less than 20 mmHg may turn on the LED, and 20 mmHg or more may blink the LED.

In addition, the difference amount may be represented using the light emission color of the LED 89. For example, a difference of less than 10 mm Hg may be green, 10 mm Hg or more and less than 20 mm Hg may be orange, and 20 mm Hg or more may be red. In addition, the light emission color used is not limited to this.

32 to 34, the LED 89 is provided as part of the display unit 4, but may be provided so as to correspond to the display data in the vicinity of the display unit 4 as the outside of the display unit 4 of FIG. 2.

In the above-described display examples 4 to 8, the average value calculator 23 reads the blood pressure measurement data from the areas 26 and 27 of FIG. 3A of the memory 12, and calculates the above-described average with respect to the read data. The process is performed. And the display control part 25 selects and displays the average data computed about the blood pressure measured under any one kind of measurement conditions. Therefore, the average data displayed may be average data about the area 26 or average data about the area 27. The instruction of which one of the average data is selected may be given by the user via the operation unit 40 or may be predetermined.

(Display example 9)

Vibration of the blood pressure monitor main body 2 by the vibrating portion 48 together with the display of the display portion 4 for the high / low tendency based on the comparison result of the above-mentioned blood pressure data or the comparison result of the blood pressure data and the reference value 80. Alternatively, the subject may be notified of the sound output by the sound output unit 47.

Specifically, based on the determined high / low tendency, the CPU 20 controls the vibration unit 48 or the sound output unit 47. By this control, a high or low tendency is presented by the difference in the vibration period or the vibration pattern by the vibration part 48. Similarly, the sound output from the sound output unit 47 is presented as the difference between the tone, scale, and rhythm.

Incidentally, the high or low tendency may be presented using only the sound output unit 47 or the vibration unit 48 without accompanying the display of the display unit 4.

(Display example 10)

Another display example will be described with reference to Figs. 35A and 35B.

The display portion 4 in FIGS. 35A and 35B has display regions 4A, 4B, and 4C. In the display area 4A, each of the post-wake measurement SBP, the post-wake measurement DBP, and the post-wake measurement pulse rate PLS, each of average data 64 to 66 is displayed, and in the display area 4C, the display area 4A is displayed. The morning mark 91 (pattern, symbol, character, etc.) for indicating that the data is the blood pressure value of the measurement after morning (morning) or the like is displayed. In FIG. 35A and FIG. 35B, as the mark 91, a symbol representing morning is displayed.

The risk value calculation / determination unit 24 compares the value indicated by the blood pressure data of the display area 4A with the reference values (135 mmHg and 85 mmHg) of the risk determination and outputs a comparison result. When the blood pressure data of the display area 4A is higher than the reference value (over the reference value), the display control unit 25 changes the mode of display on the display unit 4 based on the output comparison result. For example, at least one of the change of the display mode of the data of the display area 4A, and the lighting (display) of the symbol and the pattern of the icon 90 or the like indicating that the reference is exceeded in the display area 4B are performed. As a change of the display mode of the data of the display area 4A, the backlight is flickered, the light emission color is changed, or the light is turned on (or turned off). The icon 90 of the display areas 4B and 4C and the display data of the morning mark are stored in a predetermined area of the memory 12 in advance, and the display control unit 25 is stored in the display data read from the memory 12. Based on this, the icon 90 and the morning mark 91 are displayed.

In addition, the display mode of the mark 91 of the display area 4C may be changed in place of the change of the display mode of the data in the display area 4A. For example, the start of blinking of the mark 91, change of the display color, and the like.

When the reference value is exceeded, the display mode of the data in the display area 4A is changed, the icon 90 in the display area 4B is turned on, and the display mode of the mark 91 in the display area 4C is changed. You may be all of.

On the other hand, when the blood pressure data of the display area 4A is below the reference value (not exceeding the reference value), as shown in Fig. 35B, the display mode in each display area is not changed.

In addition, although this indication example was the average blood pressure value of the measurement after awakening, the average blood pressure value of the measurement before bedtime can also be applied similarly. In addition, the average blood pressure value of a predetermined time period, one day, one week, one month, one year or the like can be similarly applied.

As described above, in the display example 10, the average blood pressure data is displayed on the display unit 4 as representative data of the blood pressure data group measured either after waking up (morning) or before bedtime (night). At the same time, the relationship between the average blood pressure value displayed and the reference value indicates the high and low relationship indicated by the comparison result of the displayed average blood pressure data, or whether the icon 90 is lit, or the morning (night) mark 91 ) Is shown in the display mode.

In addition, the difference between the reference value based on the comparison result and the average blood pressure value of the display area 4A may be displayed on the display unit 4 by the bar-shaped indicator 87 as described above.

(Display example 11)

In this display example, the average data 641, 651, and 661 calculated by the average value calculation unit 23 of yesterday's pre-bed measurement SBP, pre-bed measurement DBP, and pre-bed measurement pulse rate PLS, and measurement after waking up this morning. The average data calculated by the average value calculation unit 23 of each of SBP, post-weather measurement DBP and post-weather measurement pulse rate PLS and the standard value of risk determination are compared by the risk value calculation / decision unit 24, and compared to the comparison result. On the basis of this, the display control unit 25 changes the display mode of the data of the display unit 4.

An example of display will be described with reference to FIGS. 36A to 36C.

The display portion 4 in FIGS. 36A to 36C has display regions 4A, 4B, and 4C. In the display area 4A, the display control unit 25 displays average data 641, 651, and 661 of yesterday's pre-bed measurement SBP, pre-bed measurement DBP, and pre-bed measurement pulse rate PLS, and display area 4C. In the display area 4A, the display data displays a night mark (pattern, symbol, character, etc.) 91 for indicating that the blood pressure value is measured before bedtime (night). The display area 4B is provided for displaying the icon 90. The risk value calculation / determination unit 24 compares the standard value and the value indicated by the post-wake-up measurement SBP calculated by the average value calculation unit 23 and the average data of the post-wake-up measurement DBP. And when it determines with exceeding a reference value, the icon 90 is lit (displayed) by the display control part 25 in the display area 4B.

In FIG. 36A, the display example in the case where it is determined that the average blood pressure value exceeds the reference value as a result of the comparison of the blood pressure value shown by the average data 641 and 651 of the before-measurement SBP and the before-bedtime measurement DBP with the reference value is shown. Specifically, the display control unit 25 changes the display mode of the data in the display area 4A. For example, although the backlight is blinking, the color may be changed or the backlight may be turned on (or off). In addition, when it is determined that the blood pressure value of the average after the wake-up measurement SBP and the post-wake-up measurement DBP and the reference value are determined to exceed the reference value, the display control unit 25 displays the display area 4B. The icon 90 lights up. In addition to changing the display mode of the data in the display area 4A, the display mode of the night mark 91 in the display area 4C may be changed (for example, blinking, display color change, etc.). Alternatively, the display mode may be changed with respect to both the display regions 4A and 4B.

In FIG. 36B, a display example in the case where it is determined that the average blood pressure value does not exceed the reference value (below the reference value) as a result of the comparison between the blood pressure value indicated by the average data 641 and 651 of the pre-bed measurement SBP and the pre-bed measurement DBP is shown. Shown. Specifically, the display control unit 25 does not change the display mode of the data in the display area 4A. On the other hand, the comparison result of the blood pressure value and the reference value indicated by the average data of the post-wake measurement SBP and the post-wake measurement DBP, Since it is determined that the reference value is exceeded, the display control unit 25 lights the icon 90 in the display area 4B.

In FIG. 36C, as a result of the comparison between the blood pressure value indicated by the average data 641 and 651 of the pre-bedtime measurement SBP and the pre-bedtime measurement DBP and the reference value, it is determined that the average blood pressure value does not exceed the reference value (below the reference value). Specifically, the display control unit 25 does not change the display mode of the data in the display area 4A. In addition, since it is determined that the average blood pressure value after waking up is also less than the reference value (not exceeding) as a result of comparing the blood pressure value indicated by the average data of the post-wake-up measurement SBP and the post-wake-up measurement DBP with the reference value, the display control unit 25 displays the display area ( The icon 90 does not light on 4B).

Here, in the display area 4A, the average data of the pre-sleep measurement is displayed in the average data of both the pre-bedtime measurement and the post-wake measurement. Alternatively, the average data of the post-wake measurement may be displayed. In that case, the icon 90 is turned on in the display area 4B based on the comparison result of the average data of the measurement before going to bed and the reference value. In the display area 4C, the night mark 91 is displayed as in FIGS. 35A and 35B.

In the above-described display example 10 and display example 11, when the representative blood pressure value of the blood pressure data group measured under predetermined conditions is displayed on the display area 4A, and the representative blood pressure value exceeds the reference value for determination of risk, The display mode of the data (the mark 91 of the morning or night in the display area 4C) indicating the blood pressure value and / or the measurement conditions of the display area 4A is displayed in a predetermined state, and / or a specific symbol (icon 90 ) Is displayed on the display area 4B. In addition to the lighting of a specific symbol (icon 90) or with the lighting of a specific symbol, a lamp (not shown) lights / flashes, or a sound or voice such as a buzzer is output through the sound output unit 47. The vibration may be output or generated through the vibration unit 48.

In addition, the display unit 4 may display the difference between the reference value based on the comparison result and the average blood pressure value of the display region 4A with the rod-shaped indicator 87 as described above.

Thus, in the display example 11, while the average blood pressure data which is the representative data of the blood pressure data group measured in either after wake-up (morning) and before bedtime (night) is displayed on the display part 4, both blood pressures are displayed. The relationship between the average blood pressure values of the data group and the reference value is a high and low relationship indicating the relationship between the two. The display mode of the displayed average blood pressure data, the presence or absence of lighting of the icon 90, or the display of the morning (night) mark are shown. It is shown.

While the present invention has been described and illustrated in detail, it is for the purpose of illustration only and is not to be taken as limiting, the spirit and scope of the invention being clearly defined only by the appended claims.

Electronic sphygmomanometer, blood pressure measurement data processing apparatus which can display the correlation of blood pressure measured under different measurement conditions or under certain measurement conditions according to the present invention, or the correlation with reference blood pressure, easily Methods, programs and recording media can be provided.

Claims (32)

A blood pressure measuring unit for measuring blood pressure of the subject; A storage unit 12, The display unit 4, A data storage unit 30 storing the blood pressure data indicating the blood pressure measured by the blood pressure measurement unit in association with a type of measurement condition at the time of blood pressure measurement, and storing in the storage unit; And a control unit 20, The control unit, A blood pressure data group measured under the measurement conditions of a predetermined type and a blood pressure data group measured under the measurement conditions of a kind different from the predetermined type, from the storage unit, Representative blood pressure data representing blood pressure data representing a blood pressure data group measured under the measurement conditions of the predetermined kind read, and representative representing blood pressure data group measured under the measurement conditions of a different type from the predetermined kind read. One of the blood pressure data is displayed on the display unit, In addition, the display unit may display the correlation between the blood pressure data group measured under the measurement conditions of the predetermined kind read and the blood pressure data group measured under the measurement conditions of a different type from the predetermined kind read. Display, The mutual relationship includes the blood pressure indicated by the representative blood pressure data of the blood pressure data group measured under the measurement condition of the predetermined type, and the representative blood pressure of the blood pressure data group measured under the measurement condition of a type different from the predetermined type. Electronic blood pressure monitor (1), characterized in that the relationship between the elevation of the blood pressure indicated by the data is included. The method of claim 1, And the control unit includes a calculation unit (23) for calculating the representative blood pressure data based on the blood pressure data included in the blood pressure data group. The method of claim 2, And the calculating unit calculates an average of the blood pressure data included in the blood pressure data group as the representative blood pressure data. The method of claim 1, The said predetermined display aspect shows the aspect which displays the difference of the said blood pressure which has the said high and low relationship with a rod-shaped indicator, The electronic blood pressure monitor characterized by the above-mentioned. The method of claim 1, The said predetermined display aspect shows the aspect which changes the display color of the said representative blood pressure data displayed on the said display part according to the relationship of the height and height. The method of claim 1, The said predetermined display aspect shows the aspect which displays the said representative blood pressure data displayed on the said display part with the presence or absence of blinking according to the said high and low relationship, The electronic blood pressure monitor characterized by the above-mentioned. The method of claim 1, The said predetermined display aspect shows the aspect of whether or not a predetermined pattern is displayed according to the said high and low relationship. The method of claim 1, The predetermined display mode indicates an aspect in which the background light of the representative blood pressure data on the display unit is turned on or off, or the color of light emission is changed or blinks according to the relationship of the elevation. sphygmomanometer. The method of claim 1, The control unit further includes a notification unit that notifies the relationship between the elevations by vibration or sound. The method of claim 1, And said measurement condition of said predetermined type represents measurement in the morning, and said measurement condition of a type different from said predetermined type represents measurement in the night. The method of claim 1, And said measurement condition of said predetermined type represents measurement within a predetermined period after wake-up, and said measurement condition of a kind different from said predetermined type represents measurement within a predetermined period before going to bed. The method of claim 1, An electronic sphygmomanometer, wherein said measurement condition of a kind different from said predetermined type represents a measurement at least one day or more before said measurement condition of said predetermined type is indicated. A blood pressure measuring unit for measuring blood pressure of the subject; A storage unit 12, The display unit 4, A data storage unit 30 storing the blood pressure data indicating the blood pressure measured by the blood pressure measurement unit in association with a type of measurement condition at the time of blood pressure measurement, and storing in the storage unit; And a control unit 20, The control unit, One of the blood pressure data group measured under the measurement conditions of the predetermined type and the blood pressure data group measured under the measurement conditions of the type different from the predetermined type is read out from the storage unit, Representative blood pressure data indicating blood pressure data representing the read blood pressure data group is displayed on the display unit, Further, a correlation between the read blood pressure data group and reference blood pressure data indicating a reference blood pressure for blood pressure evaluation is displayed on the display unit in a predetermined display mode. And said relationship includes the relationship between the blood pressure indicated by said representative blood pressure data of said blood pressure data group and the height of said reference blood pressure indicated by said reference blood pressure data. A blood pressure measuring unit for measuring blood pressure of the subject; A storage unit 12, The display unit 4, A data storage unit 30 storing the blood pressure data indicating the blood pressure measured by the blood pressure measurement unit in association with a type of measurement condition at the time of blood pressure measurement, and storing in the storage unit; And a control unit 20, The control unit, Both the blood pressure data group measured under the measurement conditions of a predetermined type and the blood pressure data group measured under the measurement conditions of a different type from the predetermined type are read out from the storage unit, Representative blood pressure data indicating blood pressure data representing one of the blood pressure data groups of both read blood pressure data groups is displayed on the display unit, In addition, the display unit displays a correlation between the representative blood pressure data representing the blood pressure data representing the other blood pressure data group and the reference blood pressure data representing the reference blood pressure for blood pressure evaluation in a predetermined display mode. Said mutual relationship includes the relationship between the blood pressure which the said representative blood pressure data shows, and the height of the said reference blood pressure which the said reference blood pressure data shows. A blood pressure measuring unit for measuring blood pressure of the subject; A storage unit 12, The display unit 4, A data storage unit 30 storing the blood pressure data indicating the blood pressure measured by the blood pressure measurement unit in association with a type of measurement condition at the time of blood pressure measurement, and storing in the storage unit; And a control unit 20, The control unit, Both the blood pressure data group measured under the measurement conditions of a predetermined type and the blood pressure data group measured under the measurement conditions of a different type from the predetermined type are read out from the storage unit, Representative blood pressure data indicating blood pressure data representing one of the blood pressure data groups of both read blood pressure data groups is displayed on the display unit, Further, with respect to each of the read-out blood pressure data groups, the correlation between the representative blood pressure data representing the blood pressure data representing the blood pressure data group and the reference blood pressure data representing the reference blood pressure for blood pressure evaluation is determined in a predetermined display mode. Individually displayed on the display unit, Said mutual relationship includes the relationship between the blood pressure which the said representative blood pressure data shows, and the height of the said reference blood pressure which the said reference blood pressure data shows. A blood pressure measuring unit for measuring blood pressure of the subject; A storage unit 12, The display unit 4, A data storage unit 30 storing the data of the blood pressure measured by the blood pressure measurement unit in association with the type of the measurement condition at the time of blood pressure measurement, and storing the data in the storage unit; And a control unit 20, The control unit, A blood pressure data group measured under the measurement conditions of a predetermined type and a blood pressure data group measured under the measurement conditions of a kind different from the predetermined type, from the storage unit, Representative blood pressure data representing blood pressure data representing the blood pressure data group measured under the measurement conditions of the predetermined kind read, and the representative blood pressure of the blood pressure data group measured under the measurement conditions of a type different from the predetermined type. An electronic blood pressure monitor (1), characterized in that data is simultaneously displayed on the display unit. A storage unit 33 in which data of the measured blood pressure is stored in association with the type of measurement conditions at the time of blood pressure measurement, The display section 34, A data processing unit 32, The data processing unit, A blood pressure data group measured under the measurement conditions of a predetermined type and a blood pressure data group measured under the measurement conditions of a type different from the predetermined type are read out from the storage unit, Representative blood pressure data representing blood pressure data representing a blood pressure data group measured under the measurement conditions of the predetermined kind read, and blood pressure representing a blood pressure data group measured under the measurement conditions different from the predetermined kind read. Any one of said representative blood pressure data which shows data is displayed on the said display part, Further, the display unit displays, in a predetermined display mode, the correlation between the blood pressure data group measured under the measurement conditions of the predetermined type and the blood pressure data group measured under the measurement conditions of a type different from the predetermined type. Blood pressure measurement data processing device 31, characterized in that. A storage unit 33 in which data of the measured blood pressure is stored in association with the type of the measurement condition at the time of blood pressure measurement, The display section 34, A data processing unit 32, The data processing unit, One of the blood pressure data group measured under the measurement conditions of the predetermined type and the blood pressure data group measured under the measurement conditions of the type different from the predetermined type is read out from the storage unit, Representative blood pressure data indicating blood pressure data representing the read blood pressure data group is displayed on the display unit, The blood pressure measurement data processing device (31), further comprising displaying the correlation between the read blood pressure data group and the reference blood pressure data for blood pressure evaluation in a predetermined display mode. A storage unit 33 in which data of the measured blood pressure is stored in association with the type of measurement conditions at the time of blood pressure measurement, The display section 34, A data processing unit 32, The data processing unit, Both the blood pressure data group measured under the measurement conditions of a predetermined type and the blood pressure data group measured under the measurement conditions of a different type from the predetermined type are read out from the storage unit, Representative blood pressure data indicating blood pressure data representing one of the blood pressure data groups of both read blood pressure data groups is displayed on the display unit, The display unit displays, in a predetermined display mode, the correlation between the representative blood pressure data representing the blood pressure data representing the other blood pressure data group read and the reference blood pressure data representing the reference blood pressure for blood pressure evaluation. Blood pressure measurement data processing apparatus 31; A storage unit 33 in which data of the measured blood pressure is stored in association with the type of the measurement condition at the time of blood pressure measurement, The display section 34, A data processing unit 32, The data processing unit, Both the blood pressure data group measured under the measurement conditions of a predetermined type and the blood pressure data group measured under the measurement conditions of a different type from the predetermined type are read out from the storage unit, Representative blood pressure data indicating blood pressure data representing one of the blood pressure data groups of both read blood pressure data groups is displayed on the display unit, Further, for each of the read-out blood pressure data groups, the correlation between the representative blood pressure data representing the blood pressure data representing the blood pressure data group and the reference blood pressure data representing the reference blood pressure for blood pressure evaluation is determined in a predetermined display mode. And a blood pressure measurement data processing device (31), which is displayed separately on the display unit. As a method of processing blood pressure measurement data using a computer having a memory 12 and a data processing unit 20, A storage step of storing the measured blood pressure data in the memory in association with the type of the measurement conditions at the time of blood pressure measurement; And a data processing step executed by the data processing unit, In the data processing step, A group of blood pressure data measured under the measurement conditions of a predetermined type and a group of blood pressure data measured under the measurement conditions of a kind different from the predetermined type are read from the memory, One of the representative blood pressure data representing the blood pressure data group measured under the measurement conditions of the predetermined kind and the representative blood pressure data of the blood pressure data group measured under the measurement conditions of a different type from the predetermined kind Displayed, The correlation between the blood pressure data group measured under the measurement conditions of the predetermined kind and the blood pressure data group measured under the measurement conditions different from the predetermined type is displayed in a predetermined display mode. Blood pressure measurement data processing method. As a method of processing blood pressure measurement data using a computer having a memory 12 and a data processing unit 20, A storage step of storing the measured blood pressure data in the memory in association with the type of the measurement conditions at the time of blood pressure measurement; And a data processing step executed by the data processing unit, In the data processing step, One of the blood pressure data group measured under the measurement conditions of a predetermined type and the blood pressure data group measured under the measurement conditions of a different type from the predetermined type is read from the memory, Representative blood pressure data representing the read blood pressure data group is displayed, The blood pressure measurement data processing method is characterized in that the correlation between the read blood pressure data group and the reference blood pressure data for blood pressure evaluation is displayed in a predetermined display mode. As a method of processing blood pressure measurement data using a computer having a memory 12 and a data processing unit 20, A storage step of storing the measured blood pressure data in the memory in association with the type of the measurement conditions at the time of blood pressure measurement; And a data processing step executed by the data processing unit, In the data processing step, Both of the blood pressure data group measured under the measurement condition of the predetermined type and the blood pressure data group measured under the measurement condition of the type different from the predetermined type are read out from the memory, Representative blood pressure data indicating blood pressure data representing one of the blood pressure data groups of both the read blood pressure data groups is displayed, Further, the correlation between the representative blood pressure data representing the blood pressure data representing the other blood pressure data group read out and the reference blood pressure data representing the reference blood pressure for blood pressure evaluation are displayed in a predetermined display mode. How measurement data is processed. As a method of processing blood pressure measurement data using a computer having a memory 12 and a data processing unit 20, A storage step of storing the measured blood pressure data in the memory in association with the type of the measurement conditions at the time of blood pressure measurement; And a data processing step executed by the data processing unit, In the data processing step, Both of the blood pressure data group measured under the measurement condition of the predetermined type and the blood pressure data group measured under the measurement condition of the type different from the predetermined type are read out from the memory, Representative blood pressure data indicating blood pressure data representing one of the blood pressure data groups of both the read blood pressure data groups is displayed, Further, with respect to each of the read-out blood pressure data groups, the correlation between the representative blood pressure data representing the blood pressure data representing the blood pressure data group and the reference blood pressure data representing the reference blood pressure for blood pressure evaluation is in a predetermined display mode. Blood pressure measurement data processing method characterized in that displayed separately. A computer-readable recording medium having recorded thereon a program for causing a computer to execute the blood pressure measurement data processing method according to claim 21. A computer-readable recording medium having recorded thereon a program for causing a computer to execute the blood pressure measurement data processing method according to claim 22. A computer-readable recording medium having recorded thereon a program for causing a computer to execute the blood pressure measurement data processing method according to claim 23. A computer-readable recording medium having recorded thereon a program for causing a computer to execute the blood pressure measurement data processing method according to claim 24. A program for causing a computer to execute the blood pressure measurement data processing method according to claim 21. A program for causing a computer to execute the blood pressure measurement data processing method according to claim 22. A program for causing a computer to execute the blood pressure measurement data processing method according to claim 23. A program for causing a computer to execute the blood pressure measurement data processing method according to claim 24.

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