JP5470132B2 - Blood sugar level management device and blood sugar level management method - Google Patents

Description

  The present invention relates to a blood glucose level management apparatus and a blood glucose level management method for managing information on a blood glucose meter that measures blood glucose levels, for example.

Conventionally, a blood glucose level information processing system that acquires data from a blood glucose meter that measures the blood glucose level of a diabetic patient and manages the blood glucose level of the patient has been proposed (for example, Patent Document 1).
Such a blood glucose level information system management device displays information such as blood glucose level obtained from a patient or the like on a display, in which case the control range of the blood glucose level, the range of low blood glucose, and the range of high blood glucose Each numerical range is color-coded so that a medical worker who is an operator can understand at a glance the blood glucose classification information such as.
However, it is preferable not only to change the range of the target value of the blood glucose level according to the patient's symptom, etc., but also to change the same patient according to the symptom or the like.
Therefore, a medical worker who operates the above-described management apparatus may change the range of the target value from the middle.

JP 2000-60803 A

  However, if the target value range is changed, the past blood glucose level data is retroactively changed to the target value range, so the past history etc. cannot be referred to on the screen in the state at the time, diagnosis etc. There was a problem that it could not be done accurately.

  Therefore, an object of the present invention is to provide a blood sugar level management apparatus and a blood sugar level management method capable of changing blood sugar level classification information of a blood sugar level at that time while maintaining a past history and the like.

In the present invention, the above-described problem has a display unit for displaying information and an input unit for inputting information, and blood glucose information measured by the blood glucose measuring device is displayed on the display unit. A blood glucose level management apparatus that displays blood glucose information together with blood glucose classification information for classifying the blood glucose information, and displays prescription information for the blood glucose information together , when the range of the blood glucose classification information is changed, glycemic classification together application period information of the blood glucose division information after the change can be entered to the information, the application period information is stored in association with the blood glucose division information after said corresponding change before and after the Symbol change Blood glucose classification information is displayed based on the corresponding application time information, the prescription information includes the content of the prescription and the start time information of the prescription, is displayed as graphic information based on the start time information, and the graphic Of information The content of the prescription corresponding to the selected graphic information is displayed by selecting one at the input unit, and based on the start time information of the prescription, the blood glucose information Has a blood glucose category ratio information generating unit that generates ratio information within the blood glucose category that remains within the range of the specific blood glucose category information, and the range of the specific blood glucose category information is determined based on the ratio information within the blood glucose category. This is achieved by a blood glucose level management apparatus characterized by having a blood glucose classification range changing unit to be changed .

According to the above configuration, when changing the range of blood glucose classification information, the application time information of the changed blood glucose classification information can be input together, and the application time information includes the corresponding changed blood glucose classification information and The display unit is configured to display the changed blood glucose classification information based on the corresponding application time information.
For this reason, even when the operator or the like changes the blood glucose classification information such as the target blood glucose level range, the change is displayed on the display unit from the input application time. Therefore, since history information based on past blood glucose classification information can be displayed on the display unit without being changed, it is possible to accurately diagnose a medical worker who is an operator.
Moreover, according to the said structure, the display part can also display prescription information with respect to blood glucose information, prescription information includes the content of prescription and the start time information of prescription, and prescription information is start time information. Is displayed as graphic information.
For this reason, it is possible to instantly grasp when the medical staff who is the operator has started prescribing the patient.
Moreover, in the said structure, when an operator wants to confirm the prescription content, since the content is displayed on a display part only by selecting one of the graphical information which shows the said prescription information, it is quick and simple. The contents of the prescription can be confirmed.
Moreover, according to the said structure, within the predetermined period which the period starts based on the starting time information of prescription, the blood glucose classification ratio which produces | generates the blood glucose classification ratio information in which blood glucose information stays in the range of specific blood glucose classification information It has an information generator.
For this reason, since the ratio information indicating how much blood glucose information that remains within the specific blood glucose classification information such as the target blood glucose level region is present within a predetermined period can be acquired, the effect of the prescription can be objectively evaluated. be able to.
Moreover, in the said structure, since it has the blood glucose classification range change part which changes the range of specific blood glucose classification information based on the ratio information within blood glucose classification, blood glucose classification information is displayed in a more appropriate target blood glucose level area etc. It can be changed automatically.

  Preferably, event information that affects the blood glucose information is acquired, and includes event and blood glucose correlation information that is correlation information between the event information and the blood glucose information, and the acquired event information and the event and blood glucose information are included. It is a blood glucose level management apparatus characterized by having a blood glucose transition prediction information generating unit that generates blood glucose transition prediction information for predicting the transition of blood glucose information in one day based on the correlation information.

According to the said structure, based on the acquired event information, an event, and blood glucose correlation information, it has a blood glucose transition prediction information generation part which produces | generates the blood glucose transition prediction information which estimates the transition of the blood glucose information in 1 day.
Therefore, since it is possible to simulate a change in blood glucose level or the like of the patient in one day, it is possible to provide information that contributes to an appropriate diagnosis or the like of a medical worker such as an operator.

In the present invention, the subject has a display unit for displaying information and an input unit for inputting information, and blood glucose information measured by the blood glucose measuring device is displayed on the display unit. A blood glucose level management method for displaying the blood glucose information together with blood glucose classification information for classifying the blood glucose information, and also displaying prescription information for the blood glucose information, when the range of the blood glucose classification information is changed, glycemic classification together application period information of the blood glucose division information after the change can be entered to the information, the application period information is stored in association with the blood glucose division information after said corresponding change before and after the Symbol change Blood glucose classification information is displayed based on the corresponding application time information, the prescription information includes the content of the prescription and the start time information of the prescription, is displayed as graphic information based on the start time information, and the graphic Of information The content of the prescription corresponding to the selected graphic information is displayed by selecting one at the input unit, and based on the start time information of the prescription, the blood glucose information Has a blood glucose category ratio information generating unit that generates ratio information within the blood glucose category that stays within the range of the specific blood glucose category information. Based on the ratio information within the blood glucose category, the range of the specific blood glucose category information is determined. This is achieved by a blood sugar level management method in which the blood sugar classification range changing section to change changes the range of the specific blood sugar classification information .

  As described above, according to the present invention, it is possible to provide a blood sugar level management apparatus and a blood sugar level management method capable of changing the range of the appropriate target value of the blood sugar level at that time while maintaining the past history and the like. can do.

It is the schematic which shows the blood glucose level management system which has a blood glucose level management apparatus concerning embodiment of this invention. It is the schematic which shows the example of a display of the event by a blood glucose meter side display. It is a schematic block diagram which shows the main structures of a blood glucose level management apparatus. It is a schematic block diagram which shows the content of various data storage parts. It is a schematic flowchart which shows the main operation | movement of a blood glucose level management system. It is another schematic flowchart which shows the main operation | movement of a blood glucose level management system. It is another schematic flowchart which shows the main operation | movement of a blood glucose level management system. It is another schematic flowchart which shows the main operation | movement of a blood glucose level management system. It is the schematic which shows the blood glucose level management screen example displayed on the management apparatus side display. It is the schematic which shows the example of a screen of a blood glucose level reference | standard area | region change screen. It is the schematic which shows the state from which the blood glucose level reference | standard area | region information was changed on the blood glucose level management screen. It is the schematic which shows the other example of a blood glucose level management screen in the management apparatus side display. It is the schematic which shows the example of a prescription data input screen. It is the schematic which shows the blood glucose level management screen which displayed the prescription data icon. It is the schematic which shows the other example of a blood glucose level management screen in the management apparatus side display. It is the schematic which shows the other example of a blood glucose level management screen in the management apparatus side display. It is the schematic which shows the example of a screen of daily fluctuation data.

Preferred embodiments of the present invention will be described below in detail with reference to the accompanying drawings.
The embodiments described below are preferred specific examples of the present invention, and thus various technically preferable limitations are given. However, the scope of the present invention is particularly limited in the following description. Unless otherwise stated, the present invention is not limited to these embodiments.

FIG. 1 is a schematic diagram showing a blood sugar level management system 1 having a blood sugar level management apparatus 20 according to an embodiment of the present invention. As shown in FIG. 1, the blood sugar level management system 1 has a blood glucose meter 10 that measures blood sugar levels of patients and the like.
As shown in FIG. 1, the blood glucose meter 10 has a chip mounting part 11 for mounting a chip for collecting blood of a patient and a blood glucose meter-side display 12 for displaying various data.
The blood glucose meter 10 also has an event button 13 and a time setting button 14 for inputting to the blood glucose meter 10 that such event information has been implemented when a patient or the like eats or administers insulin. Have.

This event information is information that affects the blood glucose level, which is blood glucose information, and is specifically information such as “meal”, “snack”, “spree”, and “insulin” administration. Here, “meal” refers to breakfast, lunch, and dinner that are usually taken three times a day, and “snack” is simpler and lesser than “meal”, and is eaten during “meal”. This also includes a midnight snack. A “banquet” is generally a drink of alcohol, and meal times are often longer than “meals”.
That is, when a patient eats, the usual “breakfast”, “lunch”, “dinner” and “snacks” or “spree” differ greatly in caloric intake, meal time, and type of food and drink. The effect on “value” is also very different. In many cases, administration of “insulin” before meals naturally has a great influence on “blood glucose level”.

Therefore, in the present embodiment, the administration of these “meal”, “snack”, “spree”, and “insulin” is an event that affects the blood glucose level, and the patient or the like selectively inputs any event information. Yes.
Specifically, the blood glucose meter side display 12 of the blood glucose meter 10 displays the blood glucose level (“100”) on the left side, “date (“ March 27 ””) on the upper right, "Time (" 18:11 "), events are displayed in the lower row. FIG. 2 is a schematic diagram showing a display example of events.

  As shown in FIG. 2, the blood glucose meter-side display 12 is configured such that the display of events changes in the order of “meal” → “snack” → “spree” → “insulin”. The change of the event display is executed by pressing the event button 13 in FIG. 1, and is determined by long pressing. These event display data such as “meals” are stored in the blood glucose meter 10 in advance.

  Furthermore, the blood glucose meter 10 has a built-in blood glucose meter-side communication device for communicating with the outside, and the blood glucose level data and event data stored therein are converted to the blood glucose level shown in FIG. The configuration allows transmission to the management apparatus 20.

As shown in FIG. 1, the blood sugar level management system 1 has a blood sugar level management device 20 that acquires and manages blood sugar level information and the like from the blood glucose meter 10.
The blood glucose level management device 20 includes a management device-side display 21 that is a display unit that displays various data, and an input device 22 that is an input unit for an operator to input various data. Management device side communication device 23 (see FIG. 3).
Therefore, the blood glucose level management device 20 can communicate with the blood glucose meter 10 via the management device-side communication device 23 and can acquire blood glucose level data and the like from the blood glucose meter 10 by communication.
In addition, the communication between the blood glucose meter 10 and the blood glucose level management device 20 has a configuration capable of wireless communication as well as wired communication shown in FIG.

The blood glucose meter 10 and the blood glucose level management device 20 in FIG. 1 have a computer and control information.
This computer has a CPU, a RAM, a ROM, and the like, and these are arranged, for example, via a bus or the like.
This bus has a function of connecting all devices, and is an internal path having an address and a data path. In addition to processing a predetermined program, the CPU controls a ROM and the like connected to the bus. The ROM stores various programs and various information. The RAM has a function as an area for comparing the contents of the memory during the program processing or for executing the program.

FIG. 3 is a schematic block diagram showing the main configuration of the blood sugar level management device 20 of FIG. As shown in FIG. 3, the blood sugar level management device 20 includes a control unit 24, and the above-described management device side communication device 23, input device 22, management device side display 21, timing device 25, and the like are connected to the control unit 24. ing.
The blood glucose level management apparatus 20 has various data storage units 26, and FIG. 4 is a schematic block diagram showing the contents of the various data storage units 26. Each program shown in FIG. 3 and the storage unit shown in FIG. 3 will be described later.
Further, in the data arrangement examples of FIGS. 3 and 4, each program and each storage unit are described separately. However, these are described separately for convenience of explanation, and the actual arrangement is described. It is not necessary to be.

  5 to 8 are schematic flowcharts showing main operations of the blood sugar level management system 1. Hereinafter, the operation of the blood sugar level management system 1 will be described with reference to the flowcharts of FIGS. 5 to 8, and the configurations of FIGS. 1 to 4 will also be described.

First, the blood glucose level management device 20 in FIG. 1 acquires blood glucose level data measured by the patient or the like with the blood glucose meter 10 in FIG. 1 and event data such as meals via the management device side communication device 23 in FIG. It memorize | stores in the received data storage part 50 of FIG.
Next, when a medical worker who is an operator of the blood glucose level management device 20 in FIG. 1 wants to refer to the blood glucose level data of the patient, the input device 22 is operated to display the management device side display 21 of the blood glucose level management device 20. The blood glucose level data of the patient is displayed.

Specifically, as shown in ST1 of FIG. 5, based on the data in the blood glucose level management screen data storage unit 51 in FIG. 4, the blood glucose level data and event data in the reception data storage unit 50, etc., the management apparatus side display 21.
FIG. 9 is a schematic diagram showing an example of a blood sugar level management screen displayed on the management apparatus side display 21.
As shown in FIG. 9, date and time data is arranged in the X-axis direction and blood sugar level data is arranged in the Y-axis direction on the blood sugar level management screen. In addition, blood glucose level data is displayed in a graph, and event data such as meals are displayed in the lower part thereof.

  Specifically, “◎” for meals, “◯” for snacks, “□” for drinking, and “△” for insulin administration. In the present embodiment, for the convenience of display in the drawing, such a simple figure is shown. However, unlike the present embodiment, “meal” is “set meal” and “snacks” is “sandwich picture”. "Spree" may be a "beer picture" and "Insulin" may be a "syringe picture". It is rather preferable to display in this way.

In addition, on the blood sugar level management screen, four areas that are blood sugar classification areas (blood sugar classification information) of the blood sugar level data are displayed in different colors, for example.
Specifically, the region where the blood glucose level is 80 or less is blue (low blood glucose region (a)), the region where the blood glucose level 81 to 130 is white (blood glucose target value region (b)), and the region where the blood glucose level 131 to 200 is yellow (Slightly hyperglycemic region (c)) and a region having a blood glucose level of 201 or higher are displayed in red (hyperglycemic region (d)).
Therefore, the medical staff etc. who looked at the blood glucose level management screen become the structure which is easy to grasp | ascertain the blood glucose level state of the said patient.
In addition, the blood glucose target value area | region (b) shown in FIG. 9 is an area | region preferably changed suitably according to a patient's symptom etc. FIG.

Next, when the medical worker who has visually recognized the blood glucose level management screen of FIG. 9 wants to change the blood glucose target value region (b) of the patient from the current blood glucose level 81 to 130, FIG. Proceed to ST2.
In ST2, it is determined whether or not to change a blood glucose level reference region such as a blood glucose target value region (for example, a low blood glucose region a, a blood glucose target value region b, a slightly high blood glucose region c, and a high blood glucose region d). Specifically, it is determined whether or not the operator has selected the enclosed area indicated by arrow A in the blood sugar level management screen of FIG. For example, whether or not a right click has been performed with the mouse.

If it is determined in ST2 that there has been an instruction to change the blood sugar level reference region, the process proceeds to ST3, and the blood sugar level reference region change screen stored in the blood sugar level reference region change screen data storage unit 52 shown in FIG. Is displayed on the management apparatus side display 21.
FIG. 10 is a schematic diagram illustrating a screen example of a blood glucose level reference region change screen.
As shown in FIG. 10, the blood sugar level reference region change screen has a background color “red” (“hyperglycemia region (d)” in FIG. 9) and a background color “yellow” (“slightly hyperglycemic region (c ) ”), Background color“ white ”(“ blood glucose target value region (b) ”in FIG. 9) and background color“ blue ”(“ low blood glucose region (a) ”in FIG. 9) The configuration can be changed.
In addition, the blood glucose level reference area change screen in FIG. 10 is configured such that change display start date and time information, which is application time information for displaying each area after the change, can be input.

Next, the process proceeds to ST4. In ST4, it is determined whether or not the input by the input device 22 is completed on the blood sugar level reference region change screen shown in FIG.
If it is determined in ST4 that the input is completed, that is, if the operator clicks “OK” in FIG. 10 with the input device 22, the process proceeds to ST5.

  In ST5, the blood sugar level reference region change data generation unit (program) 30 with the start date and time of FIG. The change display start date and time information is associated with each other and stored in the blood glucose level reference change data storage unit 53 with the start date and time in FIG.

Next, the process proceeds to ST6. In ST6, the blood glucose level reference region information changing unit (program) 31 of FIG. 3 operates, and the data in the blood glucose level reference change data storage unit 53 with start date and time stored in ST5, that is, the input changed blood glucose level The screen of the management apparatus side display 21 is changed according to the reference area information and the change display start date / time information.
FIG. 11 is a schematic diagram showing a state in which the blood sugar level reference region information is changed on the blood sugar level management screen.
In FIG. 11, for example, the upper limit value of the background color “white” (blood glucose target value region (b)), which is blood glucose level reference region information, has been lowered, the range of that region has been changed.
Further, the change is made only after the change display start date (the date and time indicated by the arrow (A) in FIG. 11) input in FIG. 10, and is not changed before that.
Therefore, a medical worker or the like who visually recognizes the blood sugar level management screen can make a diagnosis while referring to the previous history information as it is.

Next, a case where a medical worker or the like inputs prescription data that is prescription information on the blood sugar level management screen will be described.
First, in ST11 of FIG. 6, a blood glucose level management screen is displayed on the management device side display 21 with reference to the received data storage unit 50 and the blood glucose level management screen data storage unit 51 of FIG.
FIG. 12 is a schematic diagram illustrating a screen example of a blood sugar level management screen on the management apparatus-side display 21.
The blood sugar level management screen shown in FIG. 12 shows the blood sugar level reference areas (a, b, c, d) color-coded on the background, the blood sugar level is shown in a graph, as in FIG. Event information is also displayed on the lower side.

Next, the process proceeds to ST12. In ST12, it is determined whether or not the medical staff wishes to input prescription data on the blood sugar level management screen shown in ST11.
Specifically, it is determined whether or not the input device 22 has selected the boxed portion indicated by arrow B in the blood sugar level management screen of FIG.
When it is determined in ST12 that the medical staff wishes to input prescription data, the process proceeds to ST13, and a prescription data input screen is displayed on the management apparatus side display 21.
FIG. 13 is a schematic diagram illustrating an example of a prescription data input screen.

As shown in FIG. 13, the prescription data input screen includes, for example, prescription contents such as an insulin drug name, an administration timing (for example, after breakfast) and a unit (for example, 5), and a prescription start time information. For example, a prescription start date / time data input unit is included.
Since the prescription data input screen shown in FIG. 13 is stored in the prescription data input screen data storage unit 54 of FIG. 4, this data is displayed on the management apparatus side display 21.

  Next, the process proceeds to ST14. In ST14, it is determined whether or not the input of prescription data has been completed. If completed, the process proceeds to ST15. In ST15, the prescription data generation unit (program) 32 with the start date / time shown in FIG. 3 operates to associate the prescription start date / time data input in FIG. 13 with the prescription contents such as the input drug name. The data is stored in the prescription data storage unit 55 with the start date and time of FIG.

Next, the process proceeds to ST16. In ST16, the prescription data display unit (program) 33 in FIG. 3 operates to refer to the prescription data icon data storage unit 56 in FIG. 4 and specify the prescription data display to be displayed on the blood sugar level management screen.
The prescription data icon data storage unit 56 specifies a prescription data icon, for example, “◇”, which is graphic information indicating prescription data.
Based on the “prescription start date / time data” in the prescription data storage unit 55 with the start date / time shown in FIG. 4, the prescription data icon “ア イ コ ン” is displayed on the blood sugar level management screen corresponding to the date / time.

FIG. 14 is a schematic diagram showing a blood sugar level management screen displaying prescription data icons. As shown in FIG. 14, a prescription data icon indicated by an arrow (b) is displayed.
In the present embodiment, for the convenience of display in the drawing, such a simple graphic is shown. However, unlike the present embodiment, the prescription data icon may be a “chart picture”, and in this way It is rather preferable to display.
Therefore, the medical staff can instantly grasp when the prescription is started for the patient.

Next, the process proceeds to ST17. In ST17, the medical staff watching the blood sugar level management screen of FIG. 14 determines whether or not he / she wants to confirm the content of the “prescription data icon“ ◇ ”” displayed on the screen. Specifically, it is determined whether or not the “prescription data icon“ ◇ ”” in FIG.
If “prescription data icon“ 「” ”is selected in ST17, the process proceeds to ST18. In ST18, the prescription data acquisition unit (program) 34 in FIG. 3 operates to display “prescription content such as drug name” acquired from the data storage unit 53 with start date and time in FIG. 4 on the blood sugar level management screen.

  Therefore, when a medical worker wants to confirm the prescription content displayed on the blood sugar level management screen, the content is displayed simply by selecting the prescription data icon, so the prescription content can be confirmed quickly and easily. be able to.

On the other hand, if the prescription data icon is not selected in ST17, the process proceeds to ST20. In ST20, the period determination unit (program) 35 in FIG. 3 operates to determine whether or not one month has passed since the start of prescription based on the prescription start date / time data in the start date / time prescription data storage unit 55 in FIG.
If it is determined in ST20 that one month or more has elapsed, the process proceeds to ST21. In ST21, the blood glucose level data analysis unit (program) 36, which is the blood glucose category ratio information generation unit in FIG. 3, operates, and 50% or more of the blood glucose level data within one month from the prescription start date and time data is the blood glucose level. It is determined whether or not the target blood glucose level region (b) that is the reference region exists.

In ST21, when 50% of the blood sugar level data does not exist in the target blood sugar level region (b), the result of the prescription is not expected. Therefore, as shown in FIG. “Please check the prescription.” A message prompting the user to review the prescription is displayed on the blood sugar level management screen.
Thereby, the medical worker can be notified of the situation of the prescription result, and the attention can be drawn.
FIG. 15 is a schematic diagram illustrating another screen example of the blood sugar level management screen on the management apparatus-side display 21.

On the other hand, in ST21, when 50% or more of the blood glucose level data is in the target blood glucose level region, the process proceeds to ST23. In ST23, the period determination unit (program) 35 in FIG. 3 operates to determine whether or not three months have elapsed since the start of the prescription based on the prescription start date / time data in the prescription data storage unit 55 with the start date / time in FIG.
If it is determined in ST23 that three months have passed, the process proceeds to ST24. In ST24, the blood sugar level data analysis unit 36 of FIG. 3 operates, and 90% or more of the blood sugar level data within three months from the prescription start date / time data is in the target blood sugar level region (b) which is the blood sugar level reference region. Determine if it exists.

In ST24, when 90% or more of blood glucose level data within 3 months exists in the target blood sugar level region (b) which is the blood sugar level reference region, the range of the target blood sugar level region (b) may be further narrowed. The target blood glucose level region automatic variation unit (program) 37 in FIG. 3, which is determined to be a good case, is a blood glucose classification range changing unit, operates, and the target blood glucose level region (b) on the blood glucose level management screen is Narrow to a range that includes 70% of the data.
Thus, in this Embodiment, since a more preferable target blood glucose level area | region (b) can be automatically fluctuate | varied with a patient's symptom, it becomes the blood glucose level management apparatus 20 easy to use for a medical worker etc.

Moreover, in this Embodiment, it becomes the structure which provides the "daily fluctuation data" which are the blood glucose transition prediction information which estimates the transition of the blood glucose level of the said patient's 1 day under the fixed condition. The “daily fluctuation data” will be described with reference to the flowchart of FIG.
First, in ST31, the blood glucose level reference region change presence / absence determining unit (program) 38 of FIG. 3 operates to change the blood glucose level reference region (target blood glucose level region (b), etc.) on the blood glucose level management screen of the patient. It is determined whether or not is performed within two weeks. Specifically, the determination is made with reference to the blood glucose level reference region change data storage unit 53 with the start date and time in FIG.

If the blood glucose level reference area is not changed within 2 weeks in ST31, the process proceeds to ST32. In ST32, the event and blood glucose level related determination unit (program) 39 of FIG. 3 operates, and the blood glucose level data before and after the meal “◎” and the insulin administration “Δ” are displayed from the event display displayed on the blood glucose level management screen. It is determined whether or not exists.
FIG. 16 is a schematic diagram illustrating another screen example of the blood sugar level management screen on the management apparatus-side display 21. As shown in FIG. 16, the blood glucose level management screen has an event display at the bottom. From this event display, the date and time of meal “◎” and insulin administration “Δ” are ascertained, and blood glucose level data exists before and after that. Determine whether or not.

In ST32, when blood glucose level data exists before and after the event display of meal and insulin administration, for example, in the case of the blood glucose level management screen shown in FIG. 16, the process proceeds to ST33.
In ST33, the daily fluctuation data generation unit (program) 40 in FIG. 4 which is a blood glucose transition prediction information generation unit operates, and table data of the elapsed time after insulin administration and the effect in FIG. With reference to the storage unit 57 and the patient's post-meal elapsed time and blood glucose level change table data storage unit 58, “daily fluctuation” data, which is a predicted change in blood glucose level for the patient, is generated. The daily fluctuation data storage unit 59 of FIG.

  Next, the process proceeds to ST34. In ST34, the daily fluctuation data reference target blood sugar level region changing unit (program) 41 in FIG. 3 operates, and based on the daily fluctuation data in the daily fluctuation data storage unit 59 in FIG. The upper limit of b) is calculated, and if necessary, the target blood glucose level region (b) in FIG. 16 is automatically changed.

Next, the process proceeds to ST35. In ST35, as shown in FIG. 16, “daily fluctuation” is displayed on the blood sugar level management screen, indicating that change prediction data of the blood glucose level transition of the patient can be displayed for one day.
Next, in ST36, when a medical worker watching the management apparatus side display 21 wants to refer to the “daily fluctuation” data, the display of “daily fluctuation” displayed on the blood sugar level management screen of FIG. 16 is input. The selection is made by the device 22.

Then, the process proceeds to ST37, where “daily fluctuation” data as shown in FIG. 17 stored in the daily fluctuation data storage unit 59 of FIG. 4 is displayed on the blood sugar level management screen of FIG.
FIG. 17 is a schematic diagram illustrating a screen example of daily fluctuation data.

  Therefore, since the change of the blood glucose level of the patient in one day can be simulated, the information which contributes to the appropriate medical care of the medical staff is provided.

  The present invention is not limited to the embodiments described above.

  DESCRIPTION OF SYMBOLS 1 ... Blood glucose level management system, 10 ... Blood glucose meter, 11 ... Chip mounting part, 12 ... Blood glucose meter side display, 13 ... Event button, 14 ... Time setting button, 20. -Blood glucose level management device, 21 ... management device side display, 22 ... input device, 23 ... management device side communication device, 24 ... control unit, 25 ... timing device, 26 ... -Various data storage units, 30 ... blood glucose level reference region change data generation unit (program) with start date / time, 31 ... blood glucose level reference region information change unit (program), 32 ... prescription data generation with start date / time Part (program), 33 ... prescription data display part (program), 34 ... prescription data acquisition part (program), 35 ... period judgment part (program), 36 ... blood glucose level data analysis part ( Program), 37 ..Target blood glucose level region automatic variation part (program), 38 ... blood glucose level reference region change presence / absence judgment part (program), 39 ... event and blood sugar level related judgment part (program), 40 ... daily fluctuation Data generation unit (program), 41... Daily fluctuation data reference target blood glucose level region change unit (program), 50... Received data storage unit, 51... Blood glucose level management screen data storage unit, 52. Blood glucose level reference area change screen data storage unit, 53... Blood glucose level reference change data storage unit with start date and time, 54... Prescription data input screen data storage unit, 55. ... Prescription data icon data storage unit, 57 ... Table data storage unit of elapsed time and effect after insulin administration, 58 ... Change table of post-meal elapsed time and blood glucose level of the patient Data storage unit, 59 ... intra-day fluctuation data storage unit

Claims (3)

A display unit for displaying information, an input unit for inputting information, and the display unit, a blood glucose information blood glucose measuring device was measured, the blood glucose division information for dividing the blood glucose information A blood glucose level management apparatus that displays the prescription information for the blood glucose information together ,
When changing the range of the blood glucose classification information, the application time information of the blood glucose classification information after the change can be input together with the blood glucose classification information after the change,
The application time information is stored in association with the corresponding changed blood glucose classification information,
Blood glucose division information after previous SL changes, are displayed based on the application period information corresponding,
The prescription information includes the content of the prescription and the start time information of the prescription, and is displayed as graphic information based on the start time information,
By selecting one of the graphic information in the input unit, the content of the prescription corresponding to the selected graphic information is displayed,
Based on the prescription start time information, a blood glucose category ratio information generation unit that generates blood glucose category ratio information in which the blood glucose information stays within a specific range of the blood glucose category information within a predetermined period during which the prescription exists. Have
A blood glucose level management apparatus comprising a blood glucose category range changing unit that changes a range of the specific blood glucose category information based on the intra-blood glucose category ratio information . Obtaining event information affecting the blood glucose information;
Events and blood glucose correlation information that are correlation information between the event information and the blood glucose information,
Based on said acquired event information the event and blood glucose correlation information, and wherein Rukoto to have a blood glucose transition prediction information generating unit for generating a blood glucose transition prediction information for predicting a transition of the blood glucose information in 1 day The blood sugar level management device according to claim 1. A display unit for displaying information, an input unit for inputting information, and the display unit, a blood glucose information blood glucose measuring device was measured, the blood glucose division information for dividing the blood glucose information A blood glucose level management method for displaying together with prescription information for the blood glucose information,
When changing the range of the blood glucose classification information, the application time information of the blood glucose classification information after the change can be input together with the blood glucose classification information after the change,
The application time information is stored in association with the corresponding changed blood glucose classification information,
The blood glucose classification information after the change is displayed based on the corresponding application time information,
The prescription information includes the content of the prescription and the start time information of the prescription, and is displayed as graphic information based on the start time information,
By selecting one of the graphic information in the input unit, the content of the prescription corresponding to the selected graphic information is displayed,
Based on the prescription start time information, a blood glucose category ratio information generation unit that generates blood glucose category ratio information in which the blood glucose information stays within a specific range of the blood glucose category information within a predetermined period during which the prescription exists. A blood glucose level management method characterized in that a blood glucose category range changing unit that changes the range of the specific blood glucose category information changes the range of the specific blood glucose category information based on the blood glucose category ratio information .

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