CN105286851A - Glucometer - Google Patents
Glucometer Download PDFInfo
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- CN105286851A CN105286851A CN201510747143.3A CN201510747143A CN105286851A CN 105286851 A CN105286851 A CN 105286851A CN 201510747143 A CN201510747143 A CN 201510747143A CN 105286851 A CN105286851 A CN 105286851A
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Abstract
The invention relates to a glucometer. A control terminal comprises automatic insulin injection equipment, electrocardiogram detection equipment, blood glucose detection equipment and an AVR32 chip; the electrocardiogram detection equipment and the blood glucose detection equipment are used for extracting electrocardiogram data and blood glucose data of a person to be detected respectively, and the AVR32 chip is connected with the automatic insulin injection equipment, the electrocardiogram detection equipment and the blood glucose detection equipment and used for determining whether an electrocardiogram parameter alarm signal is sent or not on the basis of the electrocardiogram data and determining a control strategy of the automatic insulin injection equipment on the basis of the blood glucose data. According to the glucometer, an original artificial insulin injection mode can be replaced by an automatic insulin injection mode while whether the electrocardiogram data of the person to be detected are abnormal or not is automatically detected, and therefore the medical care effect on the person to be detected is improved.
Description
Technical field
The present invention relates to blood sugar test field, particularly relate to a kind of blood glucose meter.
Background technology
The concentration of the blood glucose in human body is controlled in a very narrow scope usually, and blood glucose is too high or too low all can affect to people.In order to the blood sugar concentration in effective human body, there is multiple blood glucose meter on the market, especially having been favored by suffering from hypertensive patient.
But, blood glucose meter detected parameters of the prior art is single, testing mechanism falls behind, and lacks the robot brain system of blood sugar test and insulin supply, simultaneously, the wireless communication interface coupling of being furnished with and joint efficiency lowly, can not meet the existing requirement of hospital and patient.
For this reason, the present invention has built a kind of blood glucose meter, to be integrated in a detecting instrument through the high-precision electrocardiogram watch-dog of structure optimization and blood glucose monitoring device, adopt the automatic control mode of blood sugar test and insulin supply and the bluetooth communication interface after optimizing, for patient and hospital provide medical services more easily simultaneously.
Summary of the invention
In order to solve the technical problem that prior art exists, the invention provides a kind of blood glucose meter, Electrocardiography equipment and blood sugar test equipment are concentrated in a detecting instrument and works simultaneously, optimize the structure of existing blood sugar test equipment, improve the precision of blood sugar test, simultaneously, add insulin pump and insulin supply control mechanism, realize the automatic control of blood sugar concentration, significantly, by improving matching mechanisms and the connection mechanism of existing bluetooth communication interface, improve the communication efficiency of blood glucose instrument wireless connections.
According to an aspect of the present invention, provide a kind of blood glucose meter, described control terminal comprises Automatic insulin injection equipment, Electrocardiography equipment, blood sugar test equipment and AVR32 chip, described Electrocardiography equipment and described blood sugar test equipment are respectively used to the ECG data and the blood glucose level data that extract tested personnel, described AVR32 chip and described Automatic insulin injection equipment, described Electrocardiography equipment is connected respectively with described blood sugar test equipment, determine whether to send electrocardiogram parameters alarm signal based on described ECG data, the control strategy of described Automatic insulin injection equipment is also determined based on described blood glucose level data.
More specifically, in described blood glucose meter, comprising: insulin memory device, for prestoring the insulin of preset capacity; Liquid level detection device, be positioned at described insulin memory device, for detecting the insulin liquid level in insulin memory device in real time, and when insulin liquid level is equal to or less than preset reference liquid level, send insufficient insulin alarm signal, described liquid level detection device is also connected that with AVR32 chip described insufficient insulin alarm signal is sent to described AVR32 chip; Insulin driving arrangement, be connected with described AVR32 chip, when receiving the too high identification signal of blood sugar concentration, the blood sugar concentration forwarded according to described AVR32 chip and the difference determination insulin pump drive singal of default blood glucose upper concentration, described insulin pump drive singal determines value and the speed of the supply insulin of insulin pump; Insulin pump, connect respectively with insulin memory device and insulin infusion device, be connected with described insulin driving arrangement, under the control of described insulin driving arrangement, the insulin in described insulin memory device be expelled in tested personnel's body by insulin infusion device; Insulin infusion device, is detachablely embedded in tested personnel's body, for tested personnel's insulin injection; Signal collecting device, comprise multiple medical electrode and multiple movement locus sensor, described multiple medical electrode are separately positioned on multiple fixed positions at tested personnel's body surface place, for extracting multiple voltages that tested personnel's cardioelectric field produces respectively in multiple fixed positions at body surface place, each movement locus sensor is close to medical electrode and places, for extracting the drift electrocardio voltage signal that corresponding position tested personnel produces because of breathing and human motion; Movement locus abatement apparatus, be not connected with described multiple medical electrode and described multiple movement locus sensor, the drift electrocardio voltage signal that each voltage produced by each medical electrode and corresponding movement locus sensor produce is sued for peace, to obtain corresponding target voltage; Lead circuit, is connected with described movement locus abatement apparatus, for receiving multiple target voltage, calculating electrocardio voltage difference based on described multiple target voltage and exporting; Signal amplification circuit, is connected with the described circuit that leads, for receiving described electrocardio voltage difference and amplifying described electrocardio voltage difference; Bandwidth-limited circuit, is connected with described signal amplification circuit, and the noise contribution in the electrocardio voltage difference after amplifying for filtering is to obtain filtered electrical pressure reduction; Analog to digital conversion circuit, is connected with described bandwidth-limited circuit, for carrying out analog digital conversion to filtered electrical pressure reduction, to obtain digitized voltage difference; Electrocardiogram parameters extracts circuit, is connected with described analog-digital converter, extracts sinus rate and the PR interval of tested personnel based on described digitized voltage difference; Enzyme electrode sensor, comprise reference electrode, to pole electrode and working electrode three electrodes, working electrode is fixed with glucoseoxidase, wherein, when the tested blood sample of tested personnel is dropped in the test zone of working electrode, glucose generation chemical reaction in glucoseoxidase fixing on working electrode and tested blood sample, the concentration of glucose in the response current on working electrode and tested blood sample is linear; Amplifying circuit, is connected with described enzyme electrode sensor, for receiving and amplifying the response current on working electrode; Low pass filter, is connected with described amplifying circuit, for receive and filtering response current in radio-frequency component; Static storage device, for storing preset ratio coefficient; AVR32 chip, be connected respectively with described low pass filter and described static storage device, the blood sugar concentration of tested personnel is calculated based on preset ratio coefficient and filtered response current, wherein, preset ratio coefficient is the ratio determining linear relationship between response current on working electrode and the concentration of glucose in tested blood sample, and described AVR32 chip also extracts circuit and is connected with the sinus rate receiving tested personnel and PR interval with described electrocardiogram parameters; Serial communication circuit, between AVR32 chip and Bluetooth matching communication equipment, for being sent to Bluetooth matching communication equipment by described blood sugar concentration and described insufficient insulin alarm signal; Bluetooth matching communication equipment, for being wirelessly transmitted to the target Bluetooth devices in connection by described blood sugar concentration and described insufficient insulin alarm signal; Described Bluetooth matching communication equipment comprises the first search subset, the second search subset and coupling connexon equipment; Wherein, the first search subset, according to the highest micro bluetooth network of MAC Address concentration determination Bluetooth MAC address concentration in Bluetooth Scatternet as target piconet, a Bluetooth Scatternet is made up of multiple micro bluetooth network; Second search subset, searches for subset be connected with described first, in described target piconet, finds, quantity preceding by signal intensity rank and is not more than one or more Bluetooth matching communication equipments of 7 as one or more target Bluetooth devices; Equipment connection subset, searches for subset be connected with described second, starts and is connected with the Bluetooth communication of described one or more target Bluetooth devices; Wherein, described AVR32 chip is when described blood sugar concentration is at default blood glucose upper concentration, send the too high identification signal of blood sugar concentration, when described blood sugar concentration is at default blood glucose least concentration, send the too low identification signal of blood sugar concentration, when described sinus rate is outside default sinus rate scope, send sinus rate anomalous identification signal, when being interposed between when between described PR outside default PR interval, send PR interval anomalous identification signal; Wherein, when there being the quantity of Bluetooth matching communication equipment of signal for being more than or equal to 7 in described target piconet, the quantity of described one or more target Bluetooth devices is 7, when there being the quantity of Bluetooth matching communication equipment of signal for being less than 7 in described target piconet, the quantity of described one or more target Bluetooth devices is the quantity of the Bluetooth matching communication equipment having signal in described target piconet; Wherein, described electrocardio voltage difference comprises multiple voltage difference.More specifically, in described blood glucose meter: described static storage device is also for prestoring described preset reference liquid level, described default blood glucose upper concentration and described default blood glucose least concentration.More specifically, in described blood glucose meter: described AVR32 chip is when sending sinus rate anomalous identification signal, PR interval anomalous identification signal, the too high identification signal of blood glucose or hypoglycemia identification signal, send abnormality signal simultaneously, otherwise described AVR32 chip sends normal state signal simultaneously.More specifically, in described blood glucose meter: described serial communication circuit is RS232 communication interface.More specifically, in described blood glucose meter: described signal amplification circuit, described bandwidth-limited circuit and analog-digital conversion circuit as described are integrated on one piece of surface-mounted integrated circuit.
Accompanying drawing explanation
Below with reference to accompanying drawing, embodiment of the present invention are described, wherein:
Fig. 1 is the block diagram of the first embodiment of blood glucose meter of the present invention.
Reference numeral: 1 Automatic insulin injection equipment; 2 Electrocardiography equipment; 3 blood sugar test equipment; 4AVR32 chip
Detailed description of the invention
Below with reference to accompanying drawings the embodiment of blood glucose meter of the present invention is described in detail.
At present, there is the Medical Instruments that some detect blood glucose, but all there is following defect in these blood glucose meter: (1) detecting pattern is single, can only detect blood sugar concentration; (2) testing mechanism falls behind, and structural redundancy is too high, and precision can not meet the accuracy requirement increasingly increased; (3) control mechanism of blood sugar test and insulin supply is not had, cannot according to the supply parameter of the insulin of the blood sugar content self-adaptative adjustment tested personnel of tested human body, such as, feed speed, quantity delivered etc., also need manual observation blood sugar content, manual decision's insulin to supply parameter, automatization level falls behind; (4) wireless communication interface is deficient, the parameters relevant to blood glucose can not be fed back to medical server end in time, even if there are some simple wireless communication interfaces, such as bluetooth communication interface, its matching mechanisms and connection mechanism inefficiency, can not meet the requirement of the high speed transmission data of medical device.
For this reason, the present invention proposes a kind of blood glucose meter, the structure of backward blood glucose meter can be improved, Electrocardiography is dissolved in blood glucose meter, widen the scope of the physiological parameter of detection, improve the precision of blood sugar test, the insulin delivery system that blood glucose controls automatically can be set up, reduce artificial participation, in addition, existing Bluetooth communication mechanism can also be improved, improve speed and the efficiency of wireless data transmission, thus, improve the intelligent level of blood glucose meter on the whole.
Fig. 1 be the first embodiment of blood glucose meter of the present invention block diagram, described control terminal comprises Automatic insulin injection equipment, Electrocardiography equipment, blood sugar test equipment and AVR32 chip, described Electrocardiography equipment and described blood sugar test equipment are respectively used to the ECG data and the blood glucose level data that extract tested personnel, described AVR32 chip and described Automatic insulin injection equipment, described Electrocardiography equipment is connected respectively with described blood sugar test equipment, determine whether to send electrocardiogram parameters alarm signal based on described ECG data, the control strategy of described Automatic insulin injection equipment is also determined based on described blood glucose level data.
Then, continue to be further detailed the concrete structure of the second embodiment of blood glucose meter of the present invention.
Described control terminal comprises: insulin memory device, for prestoring the insulin of preset capacity; Liquid level detection device, be positioned at described insulin memory device, for detecting the insulin liquid level in insulin memory device in real time, and when insulin liquid level is equal to or less than preset reference liquid level, send insufficient insulin alarm signal, described liquid level detection device is also connected that with AVR32 chip described insufficient insulin alarm signal is sent to described AVR32 chip.
Described control terminal comprises: insulin driving arrangement, be connected with described AVR32 chip, when receiving the too high identification signal of blood sugar concentration, the blood sugar concentration forwarded according to described AVR32 chip and the difference determination insulin pump drive singal of default blood glucose upper concentration, described insulin pump drive singal determines value and the speed of the supply insulin of insulin pump.
Described control terminal comprises: insulin pump, connect respectively with insulin memory device and insulin infusion device, be connected with described insulin driving arrangement, for under the control of described insulin driving arrangement, the insulin in described insulin memory device is expelled in tested personnel's body by insulin infusion device; Insulin infusion device, is detachablely embedded in tested personnel's body, for tested personnel's insulin injection.
Described control terminal comprises: signal collecting device, comprise multiple medical electrode and multiple movement locus sensor, described multiple medical electrode are separately positioned on multiple fixed positions at tested personnel's body surface place, for extracting multiple voltages that tested personnel's cardioelectric field produces respectively in multiple fixed positions at body surface place, each movement locus sensor is close to medical electrode and places, for extracting the drift electrocardio voltage signal that corresponding position tested personnel produces because of breathing and human motion.
Described control terminal comprises: movement locus abatement apparatus, be not connected with described multiple medical electrode and described multiple movement locus sensor, the drift electrocardio voltage signal that each voltage produced by each medical electrode and corresponding movement locus sensor produce is sued for peace, to obtain corresponding target voltage; Lead circuit, is connected with described movement locus abatement apparatus, for receiving multiple target voltage, calculating electrocardio voltage difference based on described multiple target voltage and exporting.
Described control terminal comprises: signal amplification circuit, is connected with the described circuit that leads, for receiving described electrocardio voltage difference and amplifying described electrocardio voltage difference; Bandwidth-limited circuit, is connected with described signal amplification circuit, and the noise contribution in the electrocardio voltage difference after amplifying for filtering is to obtain filtered electrical pressure reduction; Analog to digital conversion circuit, is connected with described bandwidth-limited circuit, for carrying out analog digital conversion to filtered electrical pressure reduction, to obtain digitized voltage difference; Electrocardiogram parameters extracts circuit, is connected with described analog-digital converter, extracts sinus rate and the PR interval of tested personnel based on described digitized voltage difference.
Described control terminal comprises: enzyme electrode sensor, comprise reference electrode, to pole electrode and working electrode three electrodes, working electrode is fixed with glucoseoxidase, wherein, when the tested blood sample of tested personnel is dropped in the test zone of working electrode, glucose generation chemical reaction in glucoseoxidase fixing on working electrode and tested blood sample, the concentration of glucose in the response current on working electrode and tested blood sample is linear; Amplifying circuit, is connected with described enzyme electrode sensor, for receiving and amplifying the response current on working electrode; Low pass filter, is connected with described amplifying circuit, for receive and filtering response current in radio-frequency component.
Described control terminal comprises: static storage device, for storing preset ratio coefficient; AVR32 chip, be connected respectively with described low pass filter and described static storage device, the blood sugar concentration of tested personnel is calculated based on preset ratio coefficient and filtered response current, wherein, preset ratio coefficient is the ratio determining linear relationship between response current on working electrode and the concentration of glucose in tested blood sample, and described AVR32 chip also extracts circuit and is connected with the sinus rate receiving tested personnel and PR interval with described electrocardiogram parameters.
Described control terminal comprises: serial communication circuit, between AVR32 chip and Bluetooth matching communication equipment, for described blood sugar concentration and described insufficient insulin alarm signal are sent to Bluetooth matching communication equipment.
Described control terminal comprises: Bluetooth matching communication equipment, for described blood sugar concentration and described insufficient insulin alarm signal being wirelessly transmitted to the target Bluetooth devices in connection.Described Bluetooth matching communication equipment comprises the first search subset, the second search subset and coupling connexon equipment; Wherein, the first search subset, according to the highest micro bluetooth network of MAC Address concentration determination Bluetooth MAC address concentration in Bluetooth Scatternet as target piconet, a Bluetooth Scatternet is made up of multiple micro bluetooth network; Second search subset, searches for subset be connected with described first, in described target piconet, finds, quantity preceding by signal intensity rank and is not more than one or more Bluetooth matching communication equipments of 7 as one or more target Bluetooth devices; Equipment connection subset, searches for subset be connected with described second, starts and is connected with the Bluetooth communication of described one or more target Bluetooth devices.
Wherein, described AVR32 chip is when described blood sugar concentration is at default blood glucose upper concentration, send the too high identification signal of blood sugar concentration, when described blood sugar concentration is at default blood glucose least concentration, send the too low identification signal of blood sugar concentration, when described sinus rate is outside default sinus rate scope, send sinus rate anomalous identification signal, when being interposed between when between described PR outside default PR interval, send PR interval anomalous identification signal.
Wherein, when there being the quantity of Bluetooth matching communication equipment of signal for being more than or equal to 7 in described target piconet, the quantity of described one or more target Bluetooth devices is 7, when there being the quantity of Bluetooth matching communication equipment of signal for being less than 7 in described target piconet, the quantity of described one or more target Bluetooth devices is the quantity of the Bluetooth matching communication equipment having signal in described target piconet.Wherein, described electrocardio voltage difference comprises multiple voltage difference.
Alternatively, in described blood glucose meter: described static storage device is also for prestoring described preset reference liquid level, described default blood glucose upper concentration and described default blood glucose least concentration; Described AVR32 chip, when sending sinus rate anomalous identification signal, PR interval anomalous identification signal, the too high identification signal of blood glucose or hypoglycemia identification signal, sends abnormality signal simultaneously, otherwise described AVR32 chip sends normal state signal simultaneously; Described serial communication circuit is RS232 communication interface; Described signal amplification circuit, described bandwidth-limited circuit and analog-digital conversion circuit as described are integrated on one piece of surface-mounted integrated circuit.
In addition, wave filter, as the term suggests, be the device that ripple is filtered." ripple " is a physical concept widely, and at electronic technology field, " ripple " is narrowly confined to refer in particular to the process of the value fluctuations in time describing various physical quantity.This process, by the effect of various kinds of sensors, is converted into the time function of voltage or electric current, is referred to as the time waveform of various physical quantity, or is referred to as signal.Because the independent variable time is continuous value, be referred to as continuous time signal, be referred to as analogue signal habitually again.
Along with generation and the develop rapidly of digital electronic computer technology, for the ease of computer, signal is processed, create complete Theories and methods continuous time signal being transformed into discrete-time signal under sampling theorem instructs.That is, can only express primary signal by the sample value of original analog signal on series of discrete time coordinate point and not lose any information, since what these concepts of ripple, waveform, signal were expressed is the change of various physical quantity in objective world, is exactly the carrier of the various information that modern society depends on for existence naturally.Information needs to propagate, and what lean on is exactly the transmission of waveshape signal.Signal it generation, conversion, transmission each link may distort due to the existence of environment and interference, or even in quite a number of cases, this distortion is also very serious, causes signal and entrained information thereof to be embedded in the middle of noise dearly.In order to these noises of filtering, recover signal originally, need to use various wave filter to carry out Filtering Processing.
Adopt blood glucose meter of the present invention, fall behind and the technical problem of radio communication function difference for blood glucose apparatus structure in prior art, optimize the structure of existing blood glucose instrument, add Electrocardiography equipment and blood sugar concentration automatic controlling device, also improve the communication performance of existing bluetooth communication interface simultaneously, thus improve the quality of its medical services.
Be understandable that, although the present invention with preferred embodiment disclose as above, but above-described embodiment and be not used to limit the present invention.For any those of ordinary skill in the art, do not departing under technical solution of the present invention ambit, the technology contents of above-mentioned announcement all can be utilized to make many possible variations and modification to technical solution of the present invention, or be revised as the Equivalent embodiments of equivalent variations.Therefore, every content not departing from technical solution of the present invention, according to technical spirit of the present invention to any simple modification made for any of the above embodiments, equivalent variations and modification, all still belongs in the scope of technical solution of the present invention protection.
Claims (6)
1. a blood glucose meter, described control terminal comprises Automatic insulin injection equipment, Electrocardiography equipment, blood sugar test equipment and AVR32 chip, described Electrocardiography equipment and described blood sugar test equipment are respectively used to the ECG data and the blood glucose level data that extract tested personnel, described AVR32 chip and described Automatic insulin injection equipment, described Electrocardiography equipment is connected respectively with described blood sugar test equipment, determine whether to send electrocardiogram parameters alarm signal based on described ECG data, the control strategy of described Automatic insulin injection equipment is also determined based on described blood glucose level data.
2. blood glucose meter as claimed in claim 1, it is characterized in that, described control terminal comprises:
Insulin memory device, for prestoring the insulin of preset capacity;
Liquid level detection device, be positioned at described insulin memory device, for detecting the insulin liquid level in insulin memory device in real time, and when insulin liquid level is equal to or less than preset reference liquid level, send insufficient insulin alarm signal, described liquid level detection device is also connected that with AVR32 chip described insufficient insulin alarm signal is sent to described AVR32 chip;
Insulin driving arrangement, be connected with described AVR32 chip, when receiving the too high identification signal of blood sugar concentration, the blood sugar concentration forwarded according to described AVR32 chip and the difference determination insulin pump drive singal of default blood glucose upper concentration, described insulin pump drive singal determines value and the speed of the supply insulin of insulin pump;
Insulin pump, connect respectively with insulin memory device and insulin infusion device, be connected with described insulin driving arrangement, under the control of described insulin driving arrangement, the insulin in described insulin memory device be expelled in tested personnel's body by insulin infusion device;
Insulin infusion device, is detachablely embedded in tested personnel's body, for tested personnel's insulin injection;
Signal collecting device, comprise multiple medical electrode and multiple movement locus sensor, described multiple medical electrode are separately positioned on multiple fixed positions at tested personnel's body surface place, for extracting multiple voltages that tested personnel's cardioelectric field produces respectively in multiple fixed positions at body surface place, each movement locus sensor is close to medical electrode and places, for extracting the drift electrocardio voltage signal that corresponding position tested personnel produces because of breathing and human motion;
Movement locus abatement apparatus, be not connected with described multiple medical electrode and described multiple movement locus sensor, the drift electrocardio voltage signal that each voltage produced by each medical electrode and corresponding movement locus sensor produce is sued for peace, to obtain corresponding target voltage;
Lead circuit, is connected with described movement locus abatement apparatus, for receiving multiple target voltage, calculating electrocardio voltage difference based on described multiple target voltage and exporting;
Signal amplification circuit, is connected with the described circuit that leads, for receiving described electrocardio voltage difference and amplifying described electrocardio voltage difference;
Bandwidth-limited circuit, is connected with described signal amplification circuit, and the noise contribution in the electrocardio voltage difference after amplifying for filtering is to obtain filtered electrical pressure reduction;
Analog to digital conversion circuit, is connected with described bandwidth-limited circuit, for carrying out analog digital conversion to filtered electrical pressure reduction, to obtain digitized voltage difference;
Electrocardiogram parameters extracts circuit, is connected with described analog-digital converter, extracts sinus rate and the PR interval of tested personnel based on described digitized voltage difference;
Enzyme electrode sensor, comprise reference electrode, to pole electrode and working electrode three electrodes, working electrode is fixed with glucoseoxidase, wherein, when the tested blood sample of tested personnel is dropped in the test zone of working electrode, glucose generation chemical reaction in glucoseoxidase fixing on working electrode and tested blood sample, the concentration of glucose in the response current on working electrode and tested blood sample is linear;
Amplifying circuit, is connected with described enzyme electrode sensor, for receiving and amplifying the response current on working electrode;
Low pass filter, is connected with described amplifying circuit, for receive and filtering response current in radio-frequency component;
Static storage device, for storing preset ratio coefficient;
AVR32 chip, be connected respectively with described low pass filter and described static storage device, the blood sugar concentration of tested personnel is calculated based on preset ratio coefficient and filtered response current, wherein, preset ratio coefficient is the ratio determining linear relationship between response current on working electrode and the concentration of glucose in tested blood sample, and described AVR32 chip also extracts circuit and is connected with the sinus rate receiving tested personnel and PR interval with described electrocardiogram parameters;
Serial communication circuit, between AVR32 chip and Bluetooth matching communication equipment, for being sent to Bluetooth matching communication equipment by described blood sugar concentration and described insufficient insulin alarm signal;
Bluetooth matching communication equipment, for being wirelessly transmitted to the target Bluetooth devices in connection by described blood sugar concentration and described insufficient insulin alarm signal; Described Bluetooth matching communication equipment comprises the first search subset, the second search subset and coupling connexon equipment; Wherein, the first search subset, according to the highest micro bluetooth network of MAC Address concentration determination Bluetooth MAC address concentration in Bluetooth Scatternet as target piconet, a Bluetooth Scatternet is made up of multiple micro bluetooth network; Second search subset, searches for subset be connected with described first, in described target piconet, finds, quantity preceding by signal intensity rank and is not more than one or more Bluetooth matching communication equipments of 7 as one or more target Bluetooth devices; Equipment connection subset, searches for subset be connected with described second, starts and is connected with the Bluetooth communication of described one or more target Bluetooth devices;
Wherein, described AVR32 chip is when described blood sugar concentration is at default blood glucose upper concentration, send the too high identification signal of blood sugar concentration, when described blood sugar concentration is at default blood glucose least concentration, send the too low identification signal of blood sugar concentration, when described sinus rate is outside default sinus rate scope, send sinus rate anomalous identification signal, when being interposed between when between described PR outside default PR interval, send PR interval anomalous identification signal;
Wherein, when there being the quantity of Bluetooth matching communication equipment of signal for being more than or equal to 7 in described target piconet, the quantity of described one or more target Bluetooth devices is 7, when there being the quantity of Bluetooth matching communication equipment of signal for being less than 7 in described target piconet, the quantity of described one or more target Bluetooth devices is the quantity of the Bluetooth matching communication equipment having signal in described target piconet;
Wherein, described electrocardio voltage difference comprises multiple voltage difference.
3. blood glucose meter as claimed in claim 2, is characterized in that:
Described static storage device is also for prestoring described preset reference liquid level, described default blood glucose upper concentration and described default blood glucose least concentration.
4. blood glucose meter as claimed in claim 2, is characterized in that:
Described AVR32 chip, when sending sinus rate anomalous identification signal, PR interval anomalous identification signal, the too high identification signal of blood glucose or hypoglycemia identification signal, sends abnormality signal simultaneously, otherwise described AVR32 chip sends normal state signal simultaneously.
5. blood glucose meter as claimed in claim 2, is characterized in that:
Described serial communication circuit is RS232 communication interface.
6. blood glucose meter as claimed in claim 2, is characterized in that:
Described signal amplification circuit, described bandwidth-limited circuit and analog-digital conversion circuit as described are integrated on one piece of surface-mounted integrated circuit.
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| CN201510747143.3A CN105286851A (en) | 2015-11-05 | 2015-11-05 | Glucometer |
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Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| WO2019153578A1 (en) * | 2018-02-06 | 2019-08-15 | 北京大学深圳研究生院 | Electrocardiosignal-based non-invasive blood glucose detection method and system |
Citations (4)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN101107025A (en) * | 2005-01-17 | 2008-01-16 | 诺和诺德公司 | Fluide delivery device with integrated monitoring of physiological characteristics |
| WO2008052034A1 (en) * | 2006-10-24 | 2008-05-02 | Medapps, Inc. | Systems and methods for remote patient monitoring, communication, and command execution |
| CN103889317A (en) * | 2011-06-23 | 2014-06-25 | 弗吉尼亚大学专利基金会 | Unified platform for monitoring and control of blood glucose levels in diabetic patients |
| CN203775421U (en) * | 2014-03-25 | 2014-08-13 | 东华大学 | Body domain network system collecting human body data |
-
2015
- 2015-11-05 CN CN201510747143.3A patent/CN105286851A/en active Pending
Patent Citations (4)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN101107025A (en) * | 2005-01-17 | 2008-01-16 | 诺和诺德公司 | Fluide delivery device with integrated monitoring of physiological characteristics |
| WO2008052034A1 (en) * | 2006-10-24 | 2008-05-02 | Medapps, Inc. | Systems and methods for remote patient monitoring, communication, and command execution |
| CN103889317A (en) * | 2011-06-23 | 2014-06-25 | 弗吉尼亚大学专利基金会 | Unified platform for monitoring and control of blood glucose levels in diabetic patients |
| CN203775421U (en) * | 2014-03-25 | 2014-08-13 | 东华大学 | Body domain network system collecting human body data |
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| WO2019153578A1 (en) * | 2018-02-06 | 2019-08-15 | 北京大学深圳研究生院 | Electrocardiosignal-based non-invasive blood glucose detection method and system |
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Application publication date: 20160203 |