CN111564215A - Electrocardio monitoring system - Google Patents
Electrocardio monitoring system Download PDFInfo
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Abstract
The invention provides an electrocardio monitoring system, which comprises: monitoring the upper garment component and the server; the monitoring jacket component is used for acquiring electrocardiosignals of a user to obtain electrocardiosignals to be processed carrying heart rate data, and converting the electrocardiosignals carrying the heart rate data to obtain electrocardio digital signals carrying the heart rate data; the server is used for storing the heart rate data into a pre-established user personal account, counting all the heart rate data within a preset time period, obtaining a heart rate data chart according to each heart rate data, performing data anomaly analysis on the heart rate data chart within a preset checking time period, obtaining heart rate data anomaly instructions, and generating alarm signals according to the heart rate data anomaly instructions. The invention can monitor and early warn users in real time all day long, realize intelligent and real-time remote monitoring, can early warn and provide positioning information for some sudden symptoms of the users, can help and cure the users in time, and greatly ensure the lives of the users.
Description
Technical Field
The invention mainly relates to the technical field of medical care, in particular to an electrocardio monitoring system.
Background
For the elderly, with the age, various physiological functions of the body gradually decline, and the health condition is generally poor, generally, 75% of the elderly suffer from one or more chronic diseases, and cardiovascular diseases exceed cancer, so that the elderly have the highest fatality rate all over the world. The attack of coronary artery disease is the most prominent in cardiovascular diseases, and after the disease is suffered, the patient must be rescued in the globally accepted gold 90 minutes, otherwise the survival rate is low. In current medical systems, cardiovascular disease is usually predicted by electrocardiographic examination and detection of various related physiological indicators when the patient feels significant symptoms. However, in this prediction mode, only the physical condition information of the patient at a certain moment can be obtained, and the doctor can only obtain useful information from the change trend and guide the treatment and prevention of the disease.
Therefore, in order to find vital signs early and to make a better prediction of diseases early, a large number of mobile medical treatment and physiological index detection devices are gradually brought into the market, but these medical devices have problems such as miniaturization of devices, real-time monitoring, sharing of information, and synergy among devices.
Disclosure of Invention
The invention aims to solve the technical problem of providing an electrocardio monitoring system aiming at the defects of the prior art.
The technical scheme for solving the technical problems is as follows: an electrocardiogram monitoring system comprises
Monitoring the upper garment component and the server;
the monitoring jacket component is used for collecting electrocardiosignals of a user to obtain electrocardiosignals to be processed, the electrocardiosignals to be processed carry heart rate data, and the electrocardiosignals carrying the heart rate data are converted to obtain electrocardio digital signals carrying the heart rate data;
the server is used for storing the heart rate data into a pre-established user personal account,
counting all the heart rate data within a preset time period, obtaining a heart rate data chart according to each heart rate data,
performing data anomaly analysis on the heart rate data chart within a preset inspection time period to obtain a heart rate data anomaly command, and generating an alarm signal according to the heart rate data anomaly command;
the monitoring jacket part is also used for obtaining GPS positioning information of the user according to the alarm signal.
The invention has the beneficial effects that: the electrocardiosignals to be processed carrying heart rate data are acquired by monitoring the acquisition of the electrocardiosignals of the user by the jacket component, the electrocardiosignals carrying the heart rate data are acquired by conversion processing of the electrocardiosignals carrying the heart rate data, the heart rate data of the server can be easily read and data can be easily collected, the heart rate data are stored in a pre-established personal account of the user by the server, all the heart rate data are counted in a preset time period, a heart rate data chart is acquired according to each heart rate data, all-weather real-time monitoring and early warning can be realized for the user, intelligent and real-time remote monitoring is realized, abnormal data analysis on the heart rate data chart in a preset checking time period is performed to acquire abnormal heart rate data instructions, an alarm signal is generated according to the abnormal heart rate data instructions, the monitoring jacket component acquires GPS positioning information of the user according to the alarm signal, early warning and positioning information can be provided for some sudden symptoms of the, the user can be timely treated, and the life of the user is greatly guaranteed.
On the basis of the technical scheme, the invention can be further improved as follows.
Further, the monitoring jacket unit includes: the electrocardio-electrode part, the front end processor, the acquisition device, the GPS positioning device and the first data transmission device;
the acquisition device is used for acquiring the electrocardiosignals of the user through the electrocardio-electrode component to obtain the electrocardiosignals to be processed carrying heart rate data;
the front-end processor is used for carrying out conversion processing on the electrocardiosignals to be processed carrying the heart rate data to obtain electrocardio digital signals carrying the heart rate data;
the first data transmission device is used for sending the electrocardio digital signals carrying the heart rate data to the server;
the server is also used for receiving an alarm signal sent by the server;
the front-end processor is also used for generating a user GPS positioning instruction according to the alarm signal;
and the GPS positioning device is used for obtaining the GPS positioning information of the user according to the GPS positioning instruction of the user.
The beneficial effect of adopting the further scheme is that: the electrocardio digital signal carrying the heart rate data is obtained through conversion processing of the electrocardio signal to be processed carrying the heart rate data, the electrocardio digital signal carrying the heart rate data is sent to the server, a user GPS positioning instruction is generated according to the alarm signal, user GPS positioning information is obtained according to the user GPS positioning instruction, all-weather real-time monitoring and early warning can be performed on a user, intelligent and real-time remote monitoring is achieved, the user can be timely treated through providing the positioning information, and the life of the user is greatly guaranteed.
Further, the monitoring jacket unit further comprises: the coat body and the master control device;
the electrocardio-electrode component comprises an LA electrode, an RA electrode and an RL electrode, and the front-end processor, the acquisition device, the GPS positioning device and the first data transmission device are integrated in the main control device;
the LA electrode 3, the RA electrode 2 and the RL electrode 4 are all used for collecting electrocardiosignals of a user;
the main control device is detachably arranged at the middle point of the upper garment body 1;
the RA electrode is detachably arranged on the left side above the main control device 5;
the LA electrode is detachably arranged on the right side above the main control device 5;
the RL electrode is detachably disposed on the left side below the main control device 5.
Further, the front-end processor comprises a first processor and a second processor;
the first processor is used for amplifying the electrocardiosignals to be processed carrying the heart rate data to obtain electrocardio amplified signals, filtering the electrocardio amplified signals to obtain electrocardio filtered signals, and raising the electrocardio filtered signals to obtain electrocardio raised signals;
and the second processor is used for carrying out analog-to-digital conversion on the electrocardio elevation signal to obtain an electrocardio digital signal carrying heart rate data.
The beneficial effect of adopting the further scheme is that: the electrocardio amplification signal is obtained through amplification processing of the electrocardio signal to be processed carrying the heart rate data, the electrocardio filtering signal is obtained through filtering processing of the electrocardio amplification signal, the electrocardio raising signal is obtained through raising processing of the electrocardio filtering signal, the electrocardio raising signal is obtained through analog-to-digital conversion of the electrocardio raising signal, the electrocardio digital signal carrying the heart rate data is obtained, a server can be used for collecting the heart rate data, intelligent and real-time remote monitoring is achieved, and the user is timely treated through providing positioning information, so that the life of the user is greatly guaranteed.
Further, the monitoring jacket unit further comprises a wireless communication device configured to:
and establishing connection with external intelligent monitoring equipment through a wireless communication network and carrying out real-time information interaction.
The beneficial effect of adopting the further scheme is that: through information interaction with external intelligent monitoring equipment, compatibility with other intelligent equipment is achieved, and sharing of resource information can be achieved.
Further, the server comprises a second data transmission device and a back-end processor;
the second data transmission device is used for receiving the electrocardio digital signals carrying the heart rate data sent by the monitoring jacket component;
the back-end processor is used for storing the heart rate data into a pre-established user personal account;
the heart rate data chart is also used for summarizing all the heart rate data in a preset statistical time period and obtaining a heart rate data chart according to all the heart rate data;
the heart rate data chart is also used for carrying out data anomaly analysis on the heart rate data chart within a preset inspection time period to obtain a heart rate data anomaly command, and an alarm signal is generated according to the heart rate data anomaly command;
the second data transmission device is also used for sending the alarm signal to the monitoring jacket component.
The beneficial effect of adopting the further scheme is that: the electrocardio digital signals are stored in a user personal account, all heart rate data in a preset statistical time period are gathered, a heart rate data chart is obtained according to each heart rate data, a heart rate data abnormal instruction is obtained through data abnormal analysis on the heart rate data chart in a preset inspection time period, and an alarm signal is generated according to the heart rate data abnormal instruction, so that early warning on the sudden situation of the user is facilitated in time, intelligent analysis is realized, the working time of a doctor is reduced, and the working efficiency of the doctor is improved.
Further, the back-end processor is specifically configured to:
and sending the alarm signal and the user GPS positioning information to target clients corresponding to doctors and the family members of the users.
The beneficial effect of adopting the further scheme is that: alarm signals and user GPS positioning information are sent to target client sides corresponding to doctors and user families, the doctors and the user families can be reminded of doing rescue measures in time, meanwhile, the user families can find the nearest hospital very quickly through accurate positioning information, and the lives of users are guaranteed.
Further, the back-end processor is used for setting the acquisition time of the electrocardio digital signal carrying the heart rate data to generate acquisition time setting information;
the second data transmission device is used for transmitting the acquisition time setting information to the monitoring upper garment component;
the first data transmission device is used for receiving the acquisition time setting information;
the front-end processor is used for obtaining an acquisition time setting instruction according to the acquisition time setting information;
and the acquisition device is used for acquiring the electrocardiosignals to be processed according to the acquisition time setting instruction.
The beneficial effect of adopting the further scheme is that: the acquisition time setting information is sent to the monitoring jacket part, an acquisition time setting instruction is obtained according to the acquisition time setting information, the electrocardiosignal to be processed is acquired according to the acquisition time setting instruction, the acquisition time of the electrocardiosignal can be flexibly controlled, and the increase of the working efficiency of a doctor due to excessive data is avoided.
The system further comprises a battery management device, wherein the battery management device comprises a battery energy supply device, a USB interface and an electric quantity monitoring device;
the battery energy supply device is used for supplying electric quantity to the monitoring jacket part;
the USB interface is used for providing electric quantity for the battery energy supply device;
the electric quantity monitoring device is used for generating electric quantity reminding information when detecting that the electric quantity of the battery energy supply device is insufficient;
the monitoring jacket part is used for generating electric quantity alarm information according to the electric quantity reminding information;
and the server is used for generating equipment electric quantity reminding information according to the electric quantity reminding information and sending the equipment electric quantity reminding information to target clients corresponding to doctors and family members of the users.
The beneficial effect of adopting the further scheme is that: when detecting battery energy supply device's electric quantity not enough the time generate electric quantity warning information, the monitoring jacket part basis electric quantity warning information generates electric quantity alarm information, the server generates equipment electric quantity warning information according to electric quantity warning information, and with equipment electric quantity warning information send to the target client who corresponds doctor and user family, monitor the power electric quantity when can providing the power for equipment, avoid the user to use when no electric quantity and lead to the tragedy of the unable early warning of proruption of disease, also carry out the electric quantity early warning to doctor and user family simultaneously, multi-user's real-time supervision has been realized.
Drawings
Fig. 1 is a block diagram of an electrocardiographic monitoring system according to an embodiment of the present invention;
FIG. 2 is a block diagram of a monitoring jacket component according to an embodiment of the present invention;
fig. 3 is a flowchart illustrating operation of the monitoring jacket assembly according to an embodiment of the present invention.
In the drawings, the names of the components represented by the respective symbols are as follows:
1. the coat comprises an upper coat body, 2, RA electrodes, 3, LA electrodes, 4, RL electrodes, 5 and a main control device.
Detailed Description
The principles and features of this invention are described below in conjunction with the following drawings, which are set forth by way of illustration only and are not intended to limit the scope of the invention.
Fig. 1 is a block diagram of an electrocardiograph monitoring system according to an embodiment of the present invention.
As shown in fig. 1, an electrocardiographic monitoring system includes:
including monitoring the upper garment component and the server;
the monitoring jacket component is used for collecting electrocardiosignals of a user to obtain electrocardiosignals to be processed, the electrocardiosignals to be processed carry heart rate data, and the electrocardiosignals carrying the heart rate data are converted to obtain electrocardio digital signals carrying the heart rate data;
the server is used for storing the heart rate data into a pre-established user personal account,
counting all the heart rate data within a preset time period, obtaining a heart rate data chart according to each heart rate data,
performing data anomaly analysis on the heart rate data chart within a preset inspection time period to obtain a heart rate data anomaly command, and generating an alarm signal according to the heart rate data anomaly command;
the monitoring jacket part is also used for obtaining GPS positioning information of the user according to the alarm signal.
It is to be understood that the preset period of time precedes the preset checking period of time.
In particular, the heart rate data graph shows the variation of the heart rate data as presented over a time axis.
In the above embodiment, the electrocardiographic signals to be processed carrying heart rate data are acquired by monitoring the electrocardiographic signals of the user by the jacket component, the electrocardiographic digital signals carrying the heart rate data are acquired by converting the electrocardiographic signals carrying the heart rate data, the heart rate data of the server can be easily read and collected, the heart rate data are stored in a pre-established personal account of the user by the server, all the heart rate data are counted in a preset time period, a heart rate data chart is acquired according to each heart rate data, all-weather real-time monitoring and early warning can be realized for the user, intelligent and real-time remote monitoring is realized, abnormal data analysis on the heart rate data chart in a preset inspection time period is performed to acquire abnormal heart rate data instructions, an alarm signal is generated according to the abnormal heart rate data instructions, and the monitoring jacket component acquires GPS positioning information of the user according to the alarm signal, the early warning and positioning system can give early warning and provide positioning information for some sudden symptoms of the user, can timely treat the user, and greatly guarantees the life of the user.
Optionally, as an embodiment of the present invention, the monitoring jacket part includes: the electrocardio-electrode part, the front end processor, the acquisition device, the GPS positioning device and the first data transmission device;
the acquisition device is used for acquiring the electrocardiosignals of the user through the electrocardio-electrode component to obtain the electrocardiosignals to be processed carrying heart rate data;
the front-end processor is used for carrying out conversion processing on the electrocardiosignals to be processed carrying the heart rate data to obtain electrocardio digital signals carrying the heart rate data;
the first data transmission device is used for sending the electrocardio digital signals carrying the heart rate data to the server;
the server is also used for receiving an alarm signal sent by the server;
the front-end processor is also used for generating a user GPS positioning instruction according to the alarm signal;
and the GPS positioning device is used for obtaining the GPS positioning information of the user according to the GPS positioning instruction of the user.
In the embodiment, the electrocardio digital signals carrying the heart rate data are obtained by converting the to-be-processed electrocardiosignals carrying the heart rate data, the electrocardio digital signals carrying the heart rate data are sent to the server, the user GPS positioning instruction is generated according to the alarm signal, the user GPS positioning information is obtained according to the user GPS positioning instruction, all-weather real-time monitoring and early warning can be performed on the user, intelligent and real-time remote monitoring is realized, the user can be timely treated by providing the positioning information, and the life of the user is greatly guaranteed.
Optionally, as an embodiment of the present invention, as shown in fig. 2, the monitoring jacket part further includes: the coat body 1 and the main control device 5;
the electrocardio-electrode component comprises an LA electrode 3, an RA electrode 2 and an RL electrode 4, and the front-end processor, the acquisition device, the GPS positioning device and the first data transmission device are integrated in the main control device 5;
the LA electrode 3, the RA electrode 2 and the RL electrode 4 are all used for collecting electrocardiosignals of a user;
the main control device 5 is detachably arranged at the middle point of the coat body 1;
the RA electrode 2 is detachably arranged on the left side above the main control device 5;
the LA electrode 3 is detachably arranged on the right side above the main control device 5;
the RL electrode 4 is detachably disposed on the left side below the main control device 5.
It should be understood that the LA electrode 3, the RA electrode 2, the RL electrode 4 and the main control device 5 are all connected with the upper garment body 1 through a buckle.
Specifically, when the LA electrode 3, the RA electrode 2, the RL electrode 4, and the main control device 5 need to be detached, the LA electrode 3, the RA electrode 2, the RL electrode 4, and the main control device 5 need to be detached from the buckle connected to the upper garment body 1; when the LA electrode 3, the RA electrode 2, the RL electrode 4, and the main control device 5 need to be installed on the upper garment body 1, the tabs corresponding to the LA electrode 3, the RA electrode 2, the RL electrode 4, and the main control device 5 need to be connected to the upper garment body 1, respectively.
In the embodiment, the main control device is detachably arranged at the middle point of the upper garment body, and the RA electrode, the LA electrode and the RL electrode are detachably arranged on the left side above the main control device, the right side above the main control device and the left side below the main control device respectively, so that all-weather real-time monitoring and early warning for a user are realized, and the user can clean the garment conveniently.
Optionally, as an embodiment of the present invention, the front-end processor includes a first processor and a second processor;
the first processor is used for amplifying the electrocardiosignals to be processed carrying the heart rate data to obtain electrocardio amplified signals, filtering the electrocardio amplified signals to obtain electrocardio filtered signals, and raising the electrocardio filtered signals to obtain electrocardio raised signals;
and the second processor is used for carrying out analog-to-digital conversion on the electrocardio elevation signal to obtain an electrocardio digital signal carrying heart rate data.
It should be understood that the first processor comprises a signal conditioning circuit for converting the electrocardiosignals to be processed carrying the heart rate data, and the second processor comprises a single chip microcomputer of the type STM32F103RBT 6.
Specifically, the signal conditioning circuit is a circuit for converting an analog signal into a digital signal for data acquisition, process control, calculation, display, readout or other purposes, and the conditioning technology is composed of amplification, attenuation, isolation, multiplexing, filtering, excitation and cold end compensation, and the signal conditioning circuit can realize signal filtering, signal isolation and analog-to-digital conversion.
In the above embodiment, the electrocardio amplified signal is obtained through the amplification processing of the electrocardio signal to be processed carrying the heart rate data, the electrocardio filtered signal is obtained through the filtering processing of the electrocardio amplified signal, the electrocardio elevation signal is obtained through the elevation processing of the electrocardio filtered signal, the electrocardio digital signal carrying the heart rate data is obtained through the analog-to-digital conversion of the electrocardio elevation signal, the server can be used for collecting the heart rate data, the intelligent and real-time remote monitoring is realized, the user can be timely treated through providing the positioning information, and the life of the user is greatly guaranteed.
Optionally, as an embodiment of the present invention, the monitoring jacket part further includes a wireless communication device, and the wireless communication device is configured to:
and establishing connection with external intelligent monitoring equipment through a wireless communication network and carrying out real-time information interaction.
Preferably, the external intelligent monitoring device can be a smart phone, a smart watch, an electrocardiograph and an intelligent monitoring bed, and the wireless communication network can be bluetooth and wireless WI Fi.
In the above embodiment, through information interaction with the external intelligent monitoring device, compatibility with other intelligent devices is achieved, and sharing of resource information can be achieved.
Optionally, as an embodiment of the present invention, the server includes a second data transmission device and a backend processor;
the second data transmission device is used for receiving the electrocardio digital signals carrying the heart rate data sent by the monitoring jacket component;
the back-end processor is used for storing the heart rate data into a pre-established user personal account;
the heart rate data chart is also used for summarizing all the heart rate data in a preset statistical time period and obtaining a heart rate data chart according to all the heart rate data;
the heart rate data chart is also used for carrying out data anomaly analysis on the heart rate data chart within a preset inspection time period to obtain a heart rate data anomaly command, and an alarm signal is generated according to the heart rate data anomaly command;
the second data transmission device is also used for sending the alarm signal to the monitoring jacket component.
It should be understood that the storage is permanent storage.
In the embodiment, the electrocardio digital signals are stored in the personal account of the user, all heart rate data in the preset counting time period are collected, the heart rate data chart is obtained according to the heart rate data, the abnormal heart rate data instruction is obtained by performing abnormal data analysis on the heart rate data chart in the preset checking time period, and the alarm signal is generated according to the abnormal heart rate data instruction, so that the early warning on the emergency condition of the user is facilitated, the intelligent analysis is realized, the working time of a doctor is reduced, and the working efficiency of the doctor is improved.
Optionally, as an embodiment of the present invention, the back-end processor is specifically configured to:
and sending the alarm signal and the user GPS positioning information to target clients corresponding to doctors and the family members of the users.
In the embodiment, the alarm signal and the user GPS positioning information are sent to the target client sides corresponding to the doctor and the user family, so that the doctor and the user family can be reminded of doing rescue measures in time, meanwhile, the user family can find the nearest hospital very quickly through the accurate positioning information, and the life of the user is guaranteed.
Optionally, as an embodiment of the present invention, the back-end processor is configured to set acquisition time of the electrocardiographic digital signal carrying the heart rate data, and generate acquisition time setting information;
the second data transmission device is used for transmitting the acquisition time setting information to the monitoring upper garment component;
the first data transmission device is used for receiving the acquisition time setting information;
the front-end processor is used for obtaining an acquisition time setting instruction according to the acquisition time setting information;
and the acquisition device is used for acquiring the electrocardiosignals to be processed according to the acquisition time setting instruction.
In the above embodiment, the acquisition time setting information is sent to the monitoring jacket component, the acquisition time setting instruction is obtained according to the acquisition time setting information, and the electrocardiosignal to be processed is acquired according to the acquisition time setting instruction, so that the acquisition time of the electrocardiosignal can be flexibly controlled, and the increase of the working efficiency of a doctor due to excessive data is avoided.
Optionally, as an embodiment of the present invention, the present invention further includes a battery management device, where the battery management device includes a battery energy supply device, a USB interface, and a power monitoring device;
the battery energy supply device is used for supplying electric quantity to the monitoring jacket part;
the USB interface is used for providing electric quantity for the battery energy supply device;
the electric quantity monitoring device is used for generating electric quantity reminding information when detecting that the electric quantity of the battery energy supply device is insufficient;
the monitoring jacket part is used for generating electric quantity alarm information according to the electric quantity reminding information;
and the server is used for generating equipment electric quantity reminding information according to the electric quantity reminding information and sending the equipment electric quantity reminding information to target clients corresponding to doctors and family members of the users.
Optionally, as an embodiment of the present invention, the battery management apparatus further includes a battery charging and discharging circuit, a voltage boosting circuit, and a voltage dropping circuit;
the battery charging and discharging circuit is used for charging the battery energy supply device and supplying power to the monitoring jacket component;
the booster circuit is used for boosting voltage for the monitoring jacket part;
and the voltage reduction circuit is used for reducing voltage for the monitoring jacket part.
It should be understood that the battery powered device includes a rechargeable button lithium battery and the USB interface includes an android cell phone compatible USB interface.
In the above embodiment, generate electric quantity reminding information when detecting battery energy supply device's electric quantity is not enough, the monitoring jacket part basis electric quantity reminding information generates electric quantity alarm information, the server generates equipment electric quantity reminding information according to electric quantity reminding information, and send equipment electric quantity reminding information to the target client who corresponds doctor and user's family, monitor the power electric quantity when can providing the power for equipment, avoid the user to use when no electric quantity and lead to the tragedy of the proruption unable early warning of disease, also carry out the electric quantity early warning to doctor and user's family simultaneously, multi-user real-time supervision has been realized.
Optionally, as an embodiment of the present invention, as shown in fig. 3, the monitoring jacket part further includes a power indicator light and a status indicator light;
the electric quantity indicator lamp is used for observing the normal condition of the electric quantity;
the status indicator light is used for observing the normal condition of the monitoring jacket component.
Specifically, the monitoring jacket part is used in the following process: after starting, judging whether the time for touching the power-on key is more than 3S, and if the time for touching the power-on key is less than 3S, enabling the monitoring jacket part to be in a dormant state and re-touching the power-on key; when the time for touching the power-on key is more than 3S, the monitoring jacket part is electrified and reset, and equipment is initialized; judging whether the electrode, the communication equipment and the like work normally, stopping sampling by the monitoring jacket part when the electrode, the communication equipment and the like cannot work normally, flashing a red light by the state indicator light for alarming for 5S, enabling the monitoring jacket part to be in a dormant state, and touching the power-on key again; when the electrode, the communication equipment and the like work normally, the state indicator lamp is on normally, the electric quantity indicator lamp refreshes the current electric quantity, and the monitoring jacket part starts to sample and process the electrocardio data; judging whether processing signals from other intelligent equipment exist or not, and when the processing signals from other intelligent equipment do not exist, directly sending data through Bluetooth, Wi Fi and a serial port; when processing signals from other intelligent equipment exist, performing related command operation according to signals sent by other intelligent equipment, and sending data through Bluetooth, Wi Fi and a serial port; then waiting for a next cycle sampling instruction, judging whether the length of the starting button is touched again for 3s, and when the length of the starting button is touched again for 3s, shutting down and finishing the monitoring jacket part; and when the touch starting key is not touched again for 3s, judging whether the electrode, the communication equipment and the like work normally again.
It is clear to those skilled in the art that, for convenience and brevity of description, the specific working processes of the above-described apparatuses and units may refer to the corresponding processes in the foregoing method embodiments, and are not described herein again.
In the several embodiments provided in the present application, it should be understood that the disclosed apparatus and method may be implemented in other ways. For example, the above-described apparatus embodiments are merely illustrative, and for example, a division of a unit is merely a logical division, and an actual implementation may have another division, for example, a plurality of units or components may be combined or integrated into another system, or some features may be omitted, or not executed.
Units described as separate parts may or may not be physically separate, and parts displayed as units may or may not be physical units, may be located in one place, or may be distributed on a plurality of network units. Some or all of the units can be selected according to actual needs to achieve the purpose of the solution of the embodiment of the present invention.
In addition, functional units in the embodiments of the present invention may be integrated into one processing unit, or each unit may exist alone physically, or two or more units are integrated into one unit. The integrated unit can be realized in a form of hardware, and can also be realized in a form of a software functional unit.
While the invention has been described with reference to specific embodiments, it will be understood by those skilled in the art that various changes in form and details may be made therein without departing from the spirit and scope of the invention as defined by the appended claims. Therefore, the protection scope of the present invention shall be subject to the protection scope of the claims.
Claims (9)
1. An electrocardio monitoring system is characterized by comprising a monitoring jacket component and a server;
the monitoring jacket component is used for collecting electrocardiosignals of a user to obtain electrocardiosignals to be processed, the electrocardiosignals to be processed carry heart rate data, and the electrocardiosignals carrying the heart rate data are converted to obtain electrocardio digital signals carrying the heart rate data;
the server is used for storing the heart rate data into a pre-established user personal account,
counting all the heart rate data within a preset time period, obtaining a heart rate data chart according to each heart rate data,
performing data anomaly analysis on the heart rate data chart within a preset inspection time period to obtain a heart rate data anomaly command, and generating an alarm signal according to the heart rate data anomaly command;
the monitoring jacket part is also used for obtaining GPS positioning information of the user according to the alarm signal.
2. The electrocardiographic monitoring system of claim 1, wherein the monitoring jacket component comprises: the electrocardio-electrode part, the front end processor, the acquisition device, the GPS positioning device and the first data transmission device;
the acquisition device is used for acquiring the electrocardiosignals of the user through the electrocardio-electrode component to obtain the electrocardiosignals to be processed carrying heart rate data;
the front-end processor is used for carrying out conversion processing on the electrocardiosignals to be processed carrying the heart rate data to obtain electrocardio digital signals carrying the heart rate data;
the first data transmission device is used for sending the electrocardio digital signals carrying the heart rate data to the server;
the server is also used for receiving an alarm signal sent by the server;
the front-end processor is also used for generating a user GPS positioning instruction according to the alarm signal;
and the GPS positioning device is used for obtaining the GPS positioning information of the user according to the GPS positioning instruction of the user.
3. The electrocardiographic monitoring system of claim 2, wherein the monitoring jacket component further comprises: the coat body 1 and the main control device 5;
the electrocardio-electrode component comprises an LA electrode 3, an RA electrode 2 and an RL electrode 4, and the front-end processor, the acquisition device, the GPS positioning device and the first data transmission device are integrated in the main control device 5;
the LA electrode 3, the RA electrode 2 and the RL electrode 4 are all used for collecting electrocardiosignals of a user;
the main control device 5 is detachably arranged at the middle point of the coat body 1;
the RA electrode 2 is detachably arranged on the left side above the main control device 5;
the LA electrode 3 is detachably arranged on the right side above the main control device 5;
the RL electrode 4 is detachably disposed on the left side below the main control device 5.
4. The electrocardiographic monitoring system of claim 2, wherein the front end processor comprises a first processor and a second processor;
the first processor is used for amplifying the electrocardiosignals to be processed carrying the heart rate data to obtain electrocardio amplified signals, filtering the electrocardio amplified signals to obtain electrocardio filtered signals, and raising the electrocardio filtered signals to obtain electrocardio raised signals;
and the second processor is used for carrying out analog-to-digital conversion on the electrocardio elevation signal to obtain an electrocardio digital signal carrying heart rate data.
5. The system of claim 4, wherein the monitoring jacket component further comprises a wireless communication device configured to:
and establishing connection with external intelligent monitoring equipment through a wireless communication network and carrying out real-time information interaction.
6. The electrocardiographic monitoring system of claim 1, wherein the server comprises a second data transmission device and a backend processor;
the second data transmission device is used for receiving the electrocardio digital signals carrying the heart rate data sent by the monitoring jacket component;
the back-end processor is used for storing the heart rate data into a pre-established user personal account;
the heart rate data chart is also used for summarizing all the heart rate data in a preset statistical time period and obtaining a heart rate data chart according to all the heart rate data;
the heart rate data chart is also used for carrying out data anomaly analysis on the heart rate data chart within a preset inspection time period to obtain a heart rate data anomaly command, and an alarm signal is generated according to the heart rate data anomaly command;
the second data transmission device is also used for sending the alarm signal to the monitoring jacket component.
7. The electrocardiographic monitoring system of claim 6, wherein the back-end processor is specifically configured to:
and sending the alarm signal and the user GPS positioning information to target clients corresponding to doctors and the family members of the users.
8. The electrocardiograph monitoring system according to claim 1 or 7, wherein the back-end processor is configured to set acquisition time of the electrocardiograph digital signal carrying heart rate data, and generate acquisition time setting information;
the second data transmission device is used for transmitting the acquisition time setting information to the monitoring upper garment component;
the first data transmission device is used for receiving the acquisition time setting information;
the front-end processor is used for obtaining an acquisition time setting instruction according to the acquisition time setting information;
and the acquisition device is used for acquiring the electrocardiosignals to be processed according to the acquisition time setting instruction.
9. The electrocardiograph monitoring system according to any one of claims 1 to 7, further comprising a battery management device, wherein the battery management device comprises a battery energy supply device, a USB interface and a power monitoring device;
the battery energy supply device is used for supplying electric quantity to the monitoring jacket part;
the USB interface is used for providing electric quantity for the battery energy supply device;
the electric quantity monitoring device is used for generating electric quantity reminding information when detecting that the electric quantity of the battery energy supply device is insufficient;
the monitoring jacket part is used for generating electric quantity alarm information according to the electric quantity reminding information;
and the server is used for generating equipment electric quantity reminding information according to the electric quantity reminding information and sending the equipment electric quantity reminding information to target clients corresponding to doctors and family members of the users.
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| CN202010311875.9A CN111564215A (en) | 2020-04-20 | 2020-04-20 | Electrocardio monitoring system |
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| CN202010311875.9A CN111564215A (en) | 2020-04-20 | 2020-04-20 | Electrocardio monitoring system |
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Cited By (1)
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Application publication date: 20200821 |