CN111494802A

CN111494802A - Defibrillator, server, method for managing defibrillator, and related computer product

Info

Publication number: CN111494802A
Application number: CN201910098941.6A
Authority: CN
Inventors: 丁燕琼; 刘平; 邬闻彬; 俞锋达
Original assignee: Shenzhen Mindray Bio Medical Electronics Co Ltd
Current assignee: Shenzhen Mindray Bio Medical Electronics Co Ltd
Priority date: 2019-01-30
Filing date: 2019-01-30
Publication date: 2020-08-07

Abstract

The invention provides a defibrillator, a server, a method for managing the defibrillator and a related computer product, wherein the defibrillator comprises a first controller, a power supply, a defibrillation circuit, an electrode plate, external equipment and a first communication interface; the first controller is used for updating the configuration item of the defibrillator according to the configuration data packet, detecting at least one of the power supply, the defibrillation circuit, the electrode plate and the external equipment according to the detection instruction to generate detection information, and sending the detection information to the server through the first communication interface. Therefore, the management personnel can acquire the detection information from the server without collecting the information on the placement site of the defibrillator, and the information acquisition efficiency is greatly improved; because the server can be connected with a plurality of defibrillators, the manager can remotely collect the information of the defibrillators from the server, thereby monitoring the defibrillators in batch and improving the maintenance efficiency.

Description

Defibrillator, server, method for managing defibrillator, and related computer product

Technical Field

The present invention relates to the field of medical devices, and in particular, to a defibrillator, a server, a method for managing a defibrillator, and a related computer product.

Background

An automatic External Defibrillator (AED for short) is a portable Defibrillator used for rescuing patients with sudden cardiac death, and in order to ensure that the AED can be continuously and effectively applied to emergency events, relevant information of equipment needs to be collected in time so as to facilitate maintenance and upgrade of the equipment, acquisition of data of the emergency process, and the like. However, it is often necessary for the administrator to be present at the site where the AED is located to collect this information, which can be delayed.

Disclosure of Invention

In view of this, the present invention provides a defibrillator, a server, a method for managing a defibrillator, and a related computer product, which can more conveniently acquire information related to the defibrillator.

A defibrillator is used for being connected with a server and comprises a first controller, a power supply, a defibrillation circuit, electrode plates, external equipment and a first communication interface; the first controller is used for controlling the power supply to output defibrillation voltage through the defibrillation circuit and applying the defibrillation voltage to a human body through the electrode plate; the external device is used for working under the control of the first controller to realize the function expansion of the defibrillator; the first controller is used for receiving a configuration instruction and a configuration data packet sent by the server through the first communication interface, storing the configuration data packet according to the configuration instruction, and updating the configuration item of the defibrillator according to the configuration data packet; the first controller is further configured to, after the configuration of the defibrillator is updated, detect at least one of the power supply, the defibrillation circuit, the electrode pad, and the external device according to a detection instruction to generate detection information, and send the detection information to the server through the first communication interface, where the detection information includes detection result information used for representing an operation state of at least one of the power supply, the defibrillation circuit, the electrode pad, and the external device, and detection environment information used for representing at least one of detection time, a temperature of the power supply during detection, and device positioning.

A server is used for being connected with a defibrillator which comprises a first controller, a power supply, a defibrillation circuit, electrode plates, external equipment and a first communication interface, and comprises a second controller and a second communication interface; the second controller is used for communicating with the defibrillator through the second communication interface; the second controller is used for sending a configuration instruction and a configuration data packet to the defibrillator through the second communication interface so that the defibrillator performs configuration updating on the configuration item of the defibrillator according to the configuration instruction and the configuration data packet; the second controller is further configured to receive and store detection information sent by the defibrillator after the configuration update is performed through the second communication interface, where the detection information includes detection result information used for representing an operation state of at least one of the power supply, the defibrillation circuit, the electrode pad, and the external device, and detection environment information used for representing at least one of detection time, temperature of the power supply during detection, and device location.

A management method of a defibrillator is disclosed, the defibrillator is used for being connected with a server, and the defibrillator comprises a first controller, a power supply, a defibrillation circuit, electrode plates, external equipment and a first communication interface; the first controller is used for controlling the power supply to output defibrillation voltage through the defibrillation circuit and applying the defibrillation voltage to a human body through the electrode plate; the external device is used for working under the control of the first controller to realize the function expansion of the defibrillator; the management method comprises the following steps: receiving a configuration instruction and a configuration data packet sent by the server; storing the configuration data packet according to the configuration instruction, and updating the configuration item of the defibrillator according to the configuration data packet; receiving a detection instruction after the defibrillator performs a configuration update; detecting at least one of the power supply, the defibrillation circuit, the electrode sheet and the external equipment according to the detection instruction to generate detection information; and sending the detection information to the server, wherein the detection information comprises detection result information used for representing the running state of at least one of the power supply, the defibrillation circuit, the electrode slice and the external equipment, and detection environment information used for representing at least one of detection time, temperature of the power supply during detection and equipment positioning.

A computer device comprising a memory and a processor, the memory having stored thereon a computer program operable on the processor, the processor implementing the management method when executing the computer program.

A computer-readable storage medium, on which a computer program is stored which, when being executed by a processor, carries out the management method.

A method for managing a defibrillator is applied to a server, the server is used for being connected with the defibrillator and comprises a first controller, a power supply, a defibrillation circuit, electrode plates, an external device and a first communication interface, the server comprises a second controller and a second communication interface, and the second controller is used for communicating with the defibrillator through the second communication interface; the method comprises the following steps: sending a configuration instruction and a configuration data packet to the defibrillator so that the defibrillator performs configuration updating on configuration items of the defibrillator according to the configuration instruction and the configuration data packet; and receiving and storing detection information sent by the defibrillator after the configuration is updated, wherein the detection information comprises detection result information used for representing the running state of at least one of the power supply, the defibrillation circuit, the electrode slice and the external equipment, and detection environment information used for representing at least one of detection time, the temperature of the power supply during detection and equipment positioning.

A computer device comprising a memory and a processor, the memory having stored thereon a computer program operable on the processor, the processor implementing the method when executing the computer program.

A computer-readable storage medium, on which a computer program is stored which, when being executed by a processor, carries out the method.

In the scheme of the invention, at least one of a defibrillation circuit, a power supply, an electrode plate and external equipment of the defibrillator is detected to generate detection information of the defibrillator, and the detection information of the defibrillator is sent to the server, so that a manager can acquire the detection information from the server without information collection on a placement site of the defibrillator, and the information acquisition efficiency is greatly improved; because the server can be connected with a plurality of defibrillators, a manager can remotely collect information of the plurality of defibrillators from the server, so that the defibrillators can be monitored in batch, and the maintenance efficiency is improved.

Drawings

To more clearly illustrate the structural features and effects of the present invention, a detailed description is given below with reference to the accompanying drawings and specific embodiments.

Figure 1 is a block diagram of one system configuration of a defibrillator according to an embodiment of the present invention;

figure 2 is a schematic diagram of information interaction showing a defibrillator communicating with a server in an embodiment of the present invention;

figure 3 is a block diagram of another system configuration of a defibrillator according to an embodiment of the present invention;

fig. 4 is a system block diagram of an external device in a defibrillator according to an embodiment of the present invention;

fig. 5 is a block diagram of another system configuration of a defibrillator according to an embodiment of the present invention;

FIG. 6 is a block diagram showing a system configuration of a server according to an embodiment of the present invention;

FIG. 7 is a system configuration block diagram of a computer apparatus according to an embodiment of the present invention;

fig. 8 is a block diagram of another system configuration of the computer apparatus according to the embodiment of the present invention.

Detailed Description

The technical solution in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention. It is to be understood that the embodiments described are only a few embodiments of the present invention, and not all embodiments. All other embodiments, which can be obtained by a person skilled in the art without any inventive step based on the embodiments of the present invention, shall fall within the scope of the present invention.

Embodiments of the present invention provide a defibrillator for delivering shock therapy to a patient to eliminate arrhythmia in the patient and restore a sinus rhythm to the patient's heart. Defibrillators include, but are not limited to, AEDs (Automated external defibrillator).

As shown in fig. 1, in particular, the defibrillator 10 may include a first controller 150, a power supply 140, a defibrillation circuit 130, electrode pads 120, an external device 160, and a first communication interface 110.

The first controller 150 is an operation core and a control core of the defibrillator 10, and is configured to drive or control various components/modules in the defibrillator 10, such as the defibrillation circuit 130, the external device 160, and the like, so as to implement corresponding functions. The first controller 150 may be a chip (e.g., a processor) or a circuit composed of several devices and circuits.

The power supply 140 may provide power to the defibrillation circuit 130, as well as to other components/modules in the defibrillator 10, such as the electrode pads 120 and external devices 160. The defibrillation circuit 130 is operable under the control of the first controller 150 to output a defibrillation voltage that may be applied to the patient to eliminate the disordered electrical activity of the patient's heart to restore the heart to a normal sinus rhythm. Specifically, under the control of the first controller 150, the defibrillation circuit 130 may input a signal of the power supply 140 and convert the signal to obtain a defibrillation voltage, and then output the defibrillation voltage. The defibrillation voltage may be applied to the human body through the electrode pad 120.

The electrode pad 120 may be electrically connected with the defibrillation circuit 130 and attached to the human body to apply the defibrillation voltage to the human body. The electrode pads 120 may include a first electrode pad and a second electrode pad, which are electrically connected to the defibrillation circuit 130 through a cable and respectively attached to different portions of the human body to receive the defibrillation voltage generated by the defibrillation circuit 130 and apply the defibrillation voltage to the human body.

The external device 160 is configured to operate under the control of the first controller 150 to enable the extension of the functionality of the defibrillator 10. The external device 160 is a peripheral module of the ancillary defibrillation circuit 130 that is used to support and assist in the therapy functions to better perform the therapy by extending the additional functionality of the defibrillator 10. The external device 160 includes, but is not limited to, an indicator light, an audio device, a storage module (such as a memory card, a magnetic disk, etc.), a positioning module (such as a GPS module, a beidou navigation module, etc.), a key control module (for responding to a key touch or pressing operation on the panel of the defibrillator 10 to trigger a corresponding function; for example, an electric shock key control module is used for responding to a touch or pressing operation of an electric shock key to trigger a charge-discharge function), etc., and may further include a human body biological signal measurement circuit such as a cardiac signal measurement circuit, a human body impedance measurement circuit, a pacing pulse measurement circuit, etc. The electrocardiosignal measuring circuit is used for measuring an Electrocardiosignal (ECG) of a patient; the human body impedance measuring circuit is used for measuring the human body impedance of the part when the electrode slice 120 is attached to the corresponding part of the body of the patient; the pace pulse measurement circuit is used to measure a pace pulse signal of a pacemaker that may be disposed within a patient. The various external devices 160 implement the extension of the functions of the defibrillator 10 by performing their respective functions. For example, the indicator light may indicate specific information by an on-off state; the audio device is used to output audio signals to give voice prompts to medical personnel or to indicate the operating status of the defibrillator 10, or to collect audio signals (i.e., recordings) at the emergency scene; the memory module may provide a cache/storage function, so that the first controller 150 runs a corresponding program to realize the operation of the defibrillator 10 or store therapy data and the like; the positioning module may provide a positioning function to enable an administrator to remotely position the defibrillator 10; the electrocardiosignal measuring circuit, the human body impedance measuring circuit and the pacing pulse measuring circuit can acquire human body biological signals through electrode plates 120 attached to the body of a patient so as to realize the measurement of corresponding signals. The first controller 150 can control charging and discharging of the defibrillation circuit 130 according to at least one of the signals measured by the electrocardiograph signal measuring circuit, the body impedance measuring circuit, and the pacing pulse measuring circuit, so that the defibrillator 10 selects an appropriate defibrillation treatment scheme for each patient (e.g., defibrillation is not required, or high-energy defibrillation is performed).

The first communication interface 110 is used for communication with a server, and can implement data transmission in a wired communication manner or a wireless communication manner. The communication mode of the first communication interface 110 includes, but is not limited to, 4G (fourth generation mobile communication technology), 5G (fifth generation mobile communication technology), Wi-Fi (Wireless-Fidelity, Wireless local area network based on IEEE 802.11b standard), NB-Iot (Narrow Band Internet of Things), bluetooth, NFC (Near field communication), ZigBee (ZigBee protocol, low power local area network protocol based on IEEE802.15.4 standard), UWB (Ultra Wideband), and the like.

In this embodiment, the first controller 150 is further configured to receive a configuration instruction and a configuration data packet sent by the server through the first communication interface 110, store the configuration data packet according to the configuration instruction, and update the configuration of the defibrillator according to the configuration data packet. Wherein the configuration instruction is used to instruct the first controller 150 to configure the configuration item. The configuration items are various operating parameters of the therapy program loaded in the defibrillator 10, including but not limited to the charge/discharge energy value of the defibrillation circuit 130, the number of defibrillation shocks, whether to display the measurement signal waveform (such as an ECG waveform) of the human body biological signal measurement circuit, the interface language of the defibrillator 10, the volume of the audio device in the defibrillator 10, the screen brightness of the defibrillator 10, whether to turn on the recording device in the defibrillator 10, and the like. The configuration data packet carries default values for the configuration items. According to different treatment scenes, different default values can be set for the configuration items to achieve the optimal treatment effect. For example, the charge and discharge energy value for an adult patient may be larger, while the charge and discharge energy value for a pediatric patient may be smaller; alternatively, the ECG waveform may be displayed to a professional first responder and not displayed to a general first responder, etc.

In this embodiment, after the defibrillator 10 performs the configuration update, the first controller 150 is further configured to detect at least one of the power source 140, the defibrillation circuit 130, the electrode pads 120, and the external device 160 according to the detection instruction to generate the detection information. The detection instruction may be an instruction built in the defibrillator 10 or an instruction issued by a server. The first controller 150 may perform detection on at least one of the power source 140, the defibrillation circuit 130, the electrode pad 120, and the external device 160 according to the detection instruction to determine whether each hardware is normal and the current value of the operating parameter of each hardware. The detection information may include detection result information and detection environment information. The detection result information is used to represent an operation status of at least one of the power supply 140, the defibrillation circuit 130, the electrode pad 120, and the external device 160 (i.e., to indicate whether the hardware is operating normally), and the detection environment information is used to represent at least one of a detection time (e.g., provided by a clock unit), a temperature of the power supply 140 at the time of detection (e.g., measured by a temperature sensor), and a device location (e.g., provided by a location module) (i.e., a current value of an operating parameter of the hardware). The device location information and the test time information may be used to determine the location and test time of the defibrillator 10 being tested (which may be recorded for later retrieval) to supplement the test result information; since the status of the power supply 140 is important, the temperature of the power supply 140 can be detected to take appropriate maintenance measures for the power supply 140. The specific detection process may be: the first controller 150 sends a detection signal to each hardware according to the detection instruction, each hardware executes a corresponding program according to the detection signal and sends a feedback signal to the first controller 150, and the first controller 150 determines the detection information according to the feedback signal.

In this embodiment, the first controller 150 may also send the detection information to the server through the first communication interface 110, so that the server performs management operations on the defibrillator 10. In particular, the defibrillator 10 may be directly connected to a server (referred to as a management server) via a port to communicate directly with the management server.

For example, the device gateway of the defibrillator 10 may initiate a connection request to the data server, which requests the authentication server (server storing a certificate or an access token, for verifying the identity) for an access token to verify the device gateway, upon verification of the access token, the authentication server may return a verification success message to the data server, upon which the data server may send a connection success message to the device gateway in response to the connection request, thereby setting up a communication channel of the device gateway-data server-management server, at which time the device gateway may implement data transmission with the management server, the communication between the device gateway-data server-management server may be encrypted to Secure the communication, and preferably, may be encrypted using SS L (Secure Sockets L layer) protocol.

In this embodiment, the data server is used to cache data (such as the detection information) uploaded by the defibrillators 10, so that the problem that a plurality of defibrillators 10 are directly connected to the management server, which causes congestion of the management server and excessive data concurrence can be avoided. The data server may provide a persistence service (i.e., be continuously online) to still be able to cache data when a management server fails (e.g., is down or crashes). The data server may have a data center for caching data, and may further process data in the data center (e.g., data processing, data cleansing, etc.). The processed data may be transmitted to the management server. The data server acts as a kind of middleware (e.g., may be a Message sight) including, but not limited to, communicating with the defibrillator 10 or a third party platform using MQTT (Message queuing telemetry Transport) protocol. For example, the defibrillator 10 may publish messages to upload data to the management server via MQTT, and the third party platform may obtain data from the management server via MQTT subscription messages. The data server may also transmit data uploaded by the defibrillator 10 to a third party platform, which may be a medical system (e.g., a hospital system or other medical facility system) or a non-medical system (e.g., a payroll platform, a wechat platform, etc.), for use by a user on the third party platform.

In the solution of this embodiment, the defibrillator 10 may receive the configuration data packet from the server to update the configuration item of the defibrillator, and then detect at least one of the defibrillation circuit 130, the power supply 140, the electrode pads 120, and the external device 160 according to the detection instruction to generate the detection information of the defibrillator 10, and may send the detection information of the defibrillator 10 to the server. Therefore, a manager can remotely collect the detection result information of the defibrillator 10 after configuration updating from the server, and can confirm whether the current operation state of each hardware of the defibrillator 10 is consistent with the expected operation state of each hardware corresponding to the configuration data packet according to the detection result information, so as to take corresponding measures to maintain and manage the defibrillator 10; the administrator can also remotely collect the updated detection environment information of the defibrillator 10 after configuration from the server side, and the detection environment information can be provided as supplementary information for the administrator to make decisions so as to better implement management and maintenance; moreover, the manager does not need to go to the site where the defibrillator 10 is installed to collect information, so that the information acquisition efficiency is greatly improved; because the server can be connected with a plurality of defibrillators 10, a manager can remotely manage the plurality of defibrillators 10 at the same time, so that the defibrillators 10 can be monitored in batch, and the maintenance efficiency is improved.

In this embodiment, preferably, the detection instruction may include a detection instruction triggered according to a clock signal, or a detection instruction triggered according to a user power-on signal. Correspondingly, the first controller 150 is configured to periodically perform hardware function detection on at least one of the power supply 140, the defibrillation circuit 130, the electrode pad 120, and the external device 160 according to a detection instruction triggered by the clock signal, so as to generate the detection result information; or, the first controller 150 is configured to perform hardware function detection on at least one of the power supply 140, the defibrillation circuit 130, the electrode pad 120, and the external device 160 according to a detection instruction triggered by the user power-on signal, so as to generate the detection result information.

In particular, for hardware function detection based on a detection instruction triggered by a clock signal, as shown in fig. 3, the defibrillator 10 may further include a clock circuit 170. Clock circuit 170 is used to generate a clock signal. The first controller 150 is specifically configured to periodically perform hardware function detection on at least one of the power source 140, the defibrillation circuit 130, the electrode pad 120, and the external device 160 according to a clock signal to generate the first detection information. "periodically" means that the hardware function test is performed every set time period, for example, daily, weekly, monthly, or quarterly. The hardware function detection refers to performing function detection on each hardware to determine whether the function of each hardware is normal and intact. In this embodiment, hardware function detection based on a clock signal triggered detection instruction may occur when the defibrillator 10 is in an idle mode (i.e., a mode in which no therapy is being executed). Therefore, the hardware function state of the defibrillator 10 can be acquired regularly in the embodiment, so that a manager can monitor the defibrillator 10 in real time conveniently, and the defibrillator 10 can work normally when needing treatment.

For hardware function detection based on the detection instruction triggered by the user power-on signal, the power-on signal is a signal for activating the defibrillator 10 triggered by the user. When the user powers on, the defibrillator 10 receives the detection instruction and performs hardware function detection according to the detection instruction. In this embodiment, hardware function detection based on a detection command triggered by a user power-on signal may be performed while the defibrillator 10 is in a therapy mode (i.e., a mode in which a therapy program is executed) and before therapy is initiated. Therefore, the present embodiment can acquire the hardware function status of the defibrillator 10 in advance when the defibrillator 10 is used for emergency treatment, so that a manager can monitor the defibrillator 10 in real time, and ensure that the defibrillator 10 can normally perform a therapeutic action. Of course, the hardware function detection can be performed at any time during the treatment.

In this embodiment, the operation of the defibrillation circuit 130 includes charging and discharging, so that detecting the hardware function includes detecting the charging and discharging function. Preferably, the clock signal may include a first clock signal and a second clock signal. The first controller 150 may periodically perform a first charge-discharge function detection on the defibrillation circuit 130 according to a detection instruction triggered by the first clock signal; the first controller 150 may also periodically perform a second charge and discharge function detection on the defibrillation circuit 130 according to a detection instruction triggered by the second clock signal. The charge and discharge energy of the defibrillation circuit 130 in the first charge and discharge function detection is different from the charge and discharge energy of the defibrillation circuit 130 in the second charge and discharge function detection. Therefore, the defibrillation circuit 130 of the present embodiment can perform function detection of different charging and discharging energies periodically to detect whether the defibrillation circuit can successfully output defibrillation energies of various levels (defibrillation energies of different levels can correspond to different treatment scenes and requirements).

In one embodiment, the first clock signal and the second clock signal are sub-signals of one clock signal, and respectively occupy different periods in the same clock cycle, for example, the first clock signal may be at a high level (or a low level) in one clock cycle, and the second clock signal may be at a low level (or a high level) in one clock cycle.

Or in another embodiment, the first clock signal and the second clock signal are two clock signals respectively, and the waveforms of the two clock signals can be the same, but the transmission frequencies are different. For example, the first clock signal may be transmitted several times per day (including once), while the second clock signal may be transmitted several times per week, month, or season (including once). Accordingly, the first controller 150 may perform the first charge and discharge detection (several times) per day according to the first clock signal and perform the second charge and discharge detection (several times) per week, per month, or per season according to the second clock signal.

In addition, the corresponding relationship between the magnitude of the charge and discharge energy and the frequency of the charge and discharge detection in the embodiment may be matched as required. For example, the charge and discharge energy of the defibrillation circuit 130 in the first charge and discharge detection may be smaller, but the frequency of the first charge and discharge detection may be higher (for example, the first charge and discharge detection is performed once a day, where the charge and discharge energy of the defibrillation circuit 130 is 1J); the charge and discharge energy of the defibrillation circuit 130 in the second charge and discharge test may be larger, but the frequency of the second charge and discharge test may be lower (for example, the second charge and discharge test is performed once per month/season, where the charge and discharge energy of the defibrillation circuit 130 is 200J/360J, respectively). It should be understood that this correspondence is only an example and is not a limitation on the present application.

In this embodiment, further, the first controller 150 may further record the operation information of the defibrillator 10 in the therapy mode according to a real-time recording instruction triggered by a power-on signal of a user, and send the operation information to the server through the first communication interface 110. Specifically, when the user powers on the defibrillator 10, the body biosignal measuring circuit and the defibrillation circuit 130 in the external device 160 may output corresponding therapy data, such as ECG waveform data, body impedance data, pacemaker step data, defibrillation voltage, and the like, and the operation information includes at least one of the therapy data. When the treatment mode is turned on, the first controller 150 may record the work operation information according to the received real-time recording instruction, and transmit the work operation information to the server. Therefore, the present embodiment can send the operation information of the defibrillator 10 in the therapy mode to the server, so that the manager can remotely obtain the operation information from the server for monitoring and managing the emergency event.

As shown in fig. 4, in particular, the human biological signal measuring circuit in the external device 160 may include at least one of an electrocardiographic signal measuring circuit 161, a human impedance measuring circuit 162, and a pacing pulse measuring circuit 163. The electrocardiosignal measuring circuit 161 is used for measuring ECG electrocardiosignals of a patient; the body impedance measuring circuit 162 is used for measuring the body impedance of the corresponding part of the patient body when the electrode sheet 120 is attached to the part; the pace pulse measurement circuit 163 is used to measure the pace pulse signal of a pacemaker that may be placed in the patient. The electrocardiosignal measuring circuit 161, the body impedance measuring circuit 162 and the pacing pulse measuring circuit 163 are required to collect biological signals of a human body through the electrode sheet 120 attached to the body of the patient. The measurement signals of the ecg signal measurement circuit 161, the body impedance measurement circuit 162, and the pacing pulse measurement circuit 163 will affect how the defibrillation circuit 130 charges and discharges and applies the defibrillation voltage, that is, the first controller 150 can control charging and discharging of the defibrillation circuit 130 according to at least one of the signals measured by the ecg signal measurement circuit 161, the body impedance measurement circuit 162, and the pacing pulse measurement circuit 163, so that the defibrillator 10 selects an appropriate defibrillation treatment scheme for each patient (e.g., defibrillation is not required, or defibrillation with large energy).

CPR may also be required on the patient during treatment of the defibrillator 10 (cardiopulmonary resuscitation). Thus, further, the defibrillator 10 may also have CPR prompting information (including but not limited to voice prompts) built into it for instructing emergency personnel to perform CPR as needed. Accordingly, the first controller 150 can also send the CPR prompt message to the server so that the manager knows that the defibrillator 10 has the CPR operational prompt built in for filing or retrospective review. Of course, this is not required.

In this embodiment, as shown in fig. 5, the defibrillator 10 may further include a power on/off circuit 180, where the power on/off circuit 180 is configured to generate a power on signal indicating that the defibrillator 180 is powered on, and further generate a power off signal indicating that the defibrillator 180 is powered off. Correspondingly, the first controller 150 is further configured to receive the power-on signal and send the power-on signal to the server through the first communication interface 110. Thus, the manager can remotely know the start of the defibrillator 10 from the server side, determine the time of the emergency event, and schedule monitoring or management.

In this embodiment, the first controller 150 may further receive the shutdown signal, and send the shutdown signal and the detection result information indicating the operation state of the power supply 140 to the server through the first communication interface 110, where the operation state of the power supply 140 includes, but is not limited to, a discharge power, a remaining capacity, a used duration, a remaining used duration, a discharge frequency, and the like. Therefore, the manager can remotely know the shutdown of the defibrillator 10 from the server end and determine the time end point of the emergency event; and the state of the power supply 140 after the therapeutic discharge can be obtained so as to maintain the power supply 140 in time and ensure the cruising ability of the defibrillator 10.

In this embodiment, the first controller 150 may be further configured to receive a software upgrade instruction and a software upgrade data packet from the server through the first communication interface 110. The software upgrade instruction is used to instruct the first controller 150 to perform a software upgrade on the defibrillator 10, where the software upgrade includes upgrading a therapy program loaded on the defibrillator 10, the therapy program may conform to the specification of an AHA guideline issued by the American Heart Association (AHA), and the software upgrade data packet may carry the therapy program to be downloaded into the defibrillator 10. The first controller 150 may download and store the software upgrade data package to the defibrillator 10 according to the software upgrade instruction and perform a software upgrade on the defibrillator 10. Thus, the present embodiment can dynamically update the therapy program of the defibrillator 10 with the continuous evolution of the medical technology and procedure to obtain the best therapeutic effect.

The defibrillator 10 of the embodiment of the present invention is described in detail in the above embodiment, and the server of the embodiment of the present invention, which is used for connecting with the defibrillator 10, will be described in detail below.

As shown in fig. 6, in particular, the server 20 of the present embodiment may include a second controller 210 and a second communication interface 220.

The second communication interface 220 is used for implementing communication, and the second communication interface 220 may implement data transmission in a wired communication manner or a wireless communication manner. The communication modes of the second communication interface 220 include, but are not limited to, 4G, 5G, Wi-Fi, NB-Iot, Bluetooth, NFC, ZigBee, UWB and the like.

The second controller 210 is an operation core and a control core of the server 20, and is configured to drive or control various components/modules in the server 20, such as the storage module, the external device 160 (e.g., an indicator light, an audio component, a sensor, etc.), and the like, so as to implement corresponding functions. The second controller 210 may be a chip (e.g., a processor) or a circuit composed of several devices and circuits. The second controller 210 is operable to communicate with the defibrillator 10 (e.g., with the first communication interface 110 of the defibrillator 10) via the second communication interface 220. Specifically, the second controller 210 sends a configuration instruction and a configuration data packet to the defibrillator 10 through the second communication interface 220, so that the defibrillator 10 performs configuration update on the configuration items of the defibrillator 10 according to the configuration instruction and the configuration data packet. The second controller 210 may further receive and store detection information sent by the defibrillator 10 after performing configuration update through the second communication interface 210, where the detection information includes detection result information and detection environment information, the detection result information is used to represent an operation state of at least one of the power supply 140, the defibrillation circuit 130, the electrode pads 120, and the external device 160 in the defibrillator 10, and the detection environment information is used to represent at least one of detection time, temperature of the power supply at the time of detection, and device location.

In the solution of this embodiment, the server 20 may send a configuration data packet to the defibrillator 10 to enable the defibrillator 10 to perform configuration update, and may also receive detection information sent by the defibrillator 10 after the configuration update. Therefore, a manager can remotely collect the detection result information of the defibrillator 10 after configuration updating from one end of the server 20, and can confirm whether the current operating state of each hardware of the defibrillator 10 is consistent with the expected operating state of each hardware corresponding to the configuration data packet according to the detection result information, so as to take corresponding measures to maintain and manage the defibrillator 10; the administrator can also remotely collect the updated detection environment information of the defibrillator 10 after configuration from the server 20 side, and the detection environment information can be provided as supplementary information to the administrator for decision making, so as to better implement management and maintenance; moreover, the manager does not need to go to the site where the defibrillator 10 is installed to collect information, so that the information acquisition efficiency is greatly improved; since the server 20 can be connected to a plurality of defibrillators 10, a manager can remotely manage a plurality of defibrillators 10 at the same time, thereby enhancing batch monitoring of the defibrillators 10 and improving maintenance efficiency.

In this embodiment, further, the second controller 210 can also receive the therapy information sent by the defibrillator 10 through the second communication interface 220. Wherein the therapy information includes information on the operation of the defibrillator 10 in the therapy mode and information on the therapy environment. The therapy context information in the therapy mode is used to characterize at least one of a runtime of the defibrillator 10 in the therapy mode, an operating temperature of the power supply 140, and a device location. The work operation information is described in detail above, and will not be described repeatedly; this therapy context information, similar to the test result information described above, may be used as a supplement to the received test result information to allow the administrator to further learn more therapy-related information to facilitate monitoring and managing emergency events and scheduling maintenance for defibrillator 10.

In this embodiment, the second controller 210 may be further configured to determine the detection information to determine abnormal detection information, and send a prompt message through the second communication interface. The abnormal detection information is the part of the detection information that is abnormal in the detection information, where the "abnormal" refers to a condition that is different from a preset operation state or a preset working parameter value of each hardware of the defibrillator 10, that is, does not meet a default setting, and includes but is not limited to a condition that the power supply 140, the defibrillation circuit 130, the electrode sheet 120, or the external device 160 is not working normally, the detection time does not meet the actual condition, the temperature of the power supply 140 does not meet the default value during detection, the device positioning does not meet the actual condition, and the like. The specific form of the prompt message can be set according to the needs, including but not limited to a mobile phone sent to the manager in the form of short message, mail, etc. The second controller 210 may determine whether or not there is abnormality detection information based on the judgment processing of the received detection information, and issue indication information indicating the judgment result (presence or absence) and/or the specific content of the abnormality detection information (e.g., any of "abnormality" listed above). Therefore, the server 20 can confirm the state of the defibrillator 10 in time and remind the manager to know by judging and feeding back the detection information reported by the defibrillator 10, and the management quality of the manager on the defibrillator 10 is greatly improved.

In this embodiment, the second controller 210 may be further configured to determine an update time of the detection information. And if the updating time exceeds a preset time threshold, sending out prompt information through the second communication interface. Wherein, the update time refers to the time when the defibrillator 10 reports the detection information; the preset time threshold may be set as desired, for example, 00:00 per day. The specific form of the prompt message can be set according to the needs, including but not limited to a mobile phone sent to the manager in the form of short message, mail, etc. The design can prompt the defibrillator 10 to take reasonable measures to investigate reasons in time when detection information is not reported after the defibrillator 10 is overtime, and therefore persistent management of the defibrillator 10 is achieved.

In this embodiment, further, the server 20 may further include a display operation interface, where the display operation interface includes, but is not limited to, a touch screen interface. The second controller 210 is further configured to receive a user query instruction or a user-derived instruction through the display operation interface, perform a search operation on information (including the detection information, the therapy information, and the like) related to the defibrillator 10 stored on the server 20 according to the user query instruction or the user-derived instruction, and display a result of the search operation on the display operation interface. The design enables a manager to search relevant information of the defibrillator 10 as required, and flexible management is achieved.

Alternatively, different from the above embodiment, the second controller 210 may send a remote data export request to the defibrillator 10 according to the user export instruction, where the remote data export request is used to request the defibrillator 10 to report the relevant information. The defibrillator 10 receives and responds to the remote data export request by sending relevant information to the server 20. The server 20 receives and stores the feedback result of the defibrillator 10, and displays the feedback result through the display operation interface or provides operation guidance information based on the feedback result. The operation guide information is used for guiding the user to browse the feedback result, and the operation guide information includes, but is not limited to, a download link of the feedback result. In this embodiment, the server 20 may not need to store the relevant information of the defibrillator 10 in advance, but may request the defibrillator 10 to report the relevant information and present the relevant information to the manager when receiving the instruction derived by the user. This design not only allows for flexible management of the defibrillator 10, but also allows the manager to know the latest status of the defibrillator 10 in a timely manner.

In this embodiment, the second controller 210 may be further configured to receive a user editing instruction through the display operation interface, and edit the editing object according to the user editing instruction. The edited object refers to device information of the defibrillator 10, including but not limited to a device model, a device serial number, a manager, a device installation location, a detailed report of the current test, and the like. This "editing" includes, but is not limited to, adding, deleting, and modifying. The method for manually editing the device information of the defibrillator 10 can enrich and expand the management capability of the server 20 on the defibrillator 10, and improve the management quality and efficiency.

In this embodiment, the second controller 210 may further be configured to send a software upgrade instruction and a software upgrade data packet to the defibrillator 10 through the second communication interface 220, so that the defibrillator 10 stores the software upgrade data packet according to the software upgrade instruction, and performs software upgrade on the defibrillator 10. The software upgrade instructions, the software upgrade data package, and the software upgrade have been described in detail above and will not be repeated here. Therefore, the embodiment can ensure that the defibrillator 10 dynamically updates the treatment program along with the evolution of the medical technology and the process, and ensures that the defibrillator has the optimal treatment effect. In this embodiment, further, the second controller 210 may further control the second communication interface 220 to send the detection information and/or the treatment information to the third party platform. The third party platform may be a medical system (e.g., a hospital system or other medical facility system) or a non-medical system (e.g., a payroll platform, a wechat platform, etc.). Thus, the preferred embodiment of the present embodiment enables sharing of information related to the defibrillator 10, which is beneficial for achieving greater medical and economic benefits.

The above embodiments describe in detail the defibrillator and the server of the embodiments of the present invention, and the methods related to the defibrillator and the server will be described below. It should be understood that each execution subject of the method in the present embodiment may correspond to each module of the defibrillator or the server in the present embodiment, and the corresponding flow of the method may be implemented by the operation (or function) of each module of the defibrillator or the server, respectively. For the sake of brevity, the corresponding content is not described too much below.

The present embodiment provides a method of managing a defibrillator, which may be the defibrillator 10 described above. The management method can comprise the following steps:

s101: receiving a configuration instruction and a configuration data packet sent by the server;

s102: storing the configuration data packet according to the configuration instruction, and updating the configuration item of the defibrillator according to the configuration data packet;

s103: receiving a detection instruction after the defibrillator performs a configuration update;

s104: detecting at least one of the power supply, the defibrillation circuit, the electrode sheet and the external equipment according to the detection instruction to generate detection information;

s105: and sending the detection information to the server, wherein the detection information comprises detection result information used for representing the running state of at least one of the power supply, the defibrillation circuit, the electrode slice and the external equipment, and detection environment information used for representing at least one of detection time, temperature of the power supply during detection and equipment positioning.

Specifically, step S101 may be performed by the first controller 150 of the defibrillator 10, and the first controller 150 may receive the configuration command and the configuration data packet through the first communication interface 110. Step S102 may be performed by the first controller 150 to implement a configuration update of the defibrillator 10. Both steps S103 and S104 can be performed by the first controller 150 to obtain the detection information of the defibrillator 10. Step S105 may be performed by the first controller 150, and the first controller 150 may transmit the detection information to the server 20 through the first communication interface 110.

Therefore, the management method of the embodiment enables a manager to remotely collect the detection information of the defibrillator 10 after configuration update from the server 20 so as to better manage and maintain the defibrillator 10; moreover, the manager does not need to go to the site where the defibrillator 10 is installed to collect information, so that the information acquisition efficiency is greatly improved; because a plurality of defibrillators 10 can be connected with the server, a manager can remotely manage the plurality of defibrillators 10 at the same time, thereby strengthening the batch monitoring of the defibrillators 10 and improving the maintenance efficiency.

In this embodiment, preferably, the step S103 of "receiving a detection instruction" may include receiving a detection instruction triggered according to a clock signal, or receiving a detection instruction triggered according to a user power-on signal. Accordingly, the step S104 of "detecting at least one of the power supply, the defibrillation circuit, the electrode pad, and the external device according to the detection instruction" may include:

s1041: according to a detection instruction triggered by the clock signal, hardware function detection is carried out on at least one of the power supply, the defibrillation circuit, the electrode plate and the external equipment at regular intervals; alternatively, the first and second electrodes may be,

s1042: and according to a detection instruction triggered by the user power-on signal, performing hardware function detection on at least one of the power supply, the defibrillation circuit, the electrode plate and the external equipment.

In this embodiment, hardware function detection based on a clock signal triggered detection instruction may occur when the defibrillator 10 is in an idle mode (i.e., a mode in which no therapy is being executed). Therefore, the hardware function state of the defibrillator 10 can be acquired regularly in the embodiment, so that a manager can monitor the defibrillator 10 in real time conveniently, and the defibrillator 10 can work normally when needing treatment. The hardware function detection according to the detection instruction triggered by the user power-on signal can acquire the hardware function state of the defibrillator 10 in advance when the defibrillator 10 is used for emergency treatment, so that a manager can monitor the defibrillator 10 in real time, and the defibrillator 10 can be ensured to normally play a therapeutic role. Of course, the hardware function detection triggered according to the user power-on signal can be performed at any time interval in the treatment process.

In this embodiment, the management method further includes:

s106: receiving a real-time recording instruction triggered by a user starting signal;

s107: recording the working operation information of the defibrillator in a treatment mode according to the real-time recording instruction;

s108: and sending the work operation information to the server.

Specifically, steps S106 to S108 may be executed by the first controller 150, wherein in step S108, the first controller 150 may send the work operation information to the server 20 through the first communication interface 110. Thus, the present embodiment can transmit the operation information of the defibrillator 10 in the therapy mode to the server 20, so that the manager can remotely acquire the operation information from the server 20 for monitoring and managing the emergency event.

In this embodiment, the defibrillator 10 may further include a power on/off circuit 180, where the power on/off circuit 180 is configured to generate a power on signal indicating that the defibrillator 180 is powered on, and also generate a power off signal indicating that the defibrillator 180 is powered off. Correspondingly, the management method may further include:

s109: receiving a power-on signal generated by the power-on and power-off circuit and used for indicating the defibrillator to be powered on;

s110: and sending the starting signal to the server.

Both the steps S109 and S110 can be executed by the first controller 150, and the first controller 150 can perform the receiving and sending operations in the steps S109 and S110 through the first communication interface 110. This embodiment allows the manager to remotely know the start of the defibrillator 10 from the server, determine the time of the emergency event, and schedule monitoring or management.

Further, the management method may further include:

s111: receiving a shutdown signal generated by the switching circuit and used for indicating the defibrillator to shut down;

s112: and sending the shutdown signal and the detection result information for indicating the power supply running state to the server.

Both the steps 20 and S112 can be executed by the first controller 150, and the first controller 150 can perform the receiving and sending operations in the steps S111 and S112 through the first communication interface 110. According to the embodiment, a manager can remotely know the shutdown of the defibrillator 10 from the server side and determine the time end point of the emergency event; and the state of the power supply 140 after the therapeutic discharge can be obtained so as to maintain the power supply 140 in time and ensure the cruising ability of the defibrillator 10.

In this embodiment, the management method further includes:

s113: receiving a software upgrading instruction and a software upgrading data packet sent by the server;

s114: storing the software upgrading data packet according to the software upgrading instruction;

s115: and upgrading the software of the defibrillator according to the upgrading data packet.

Specifically, steps S113 to S115 can be executed by the first controller 150, wherein the first controller 150 can perform the receiving operation through the first communication interface 110 in step S113. Thus, the present embodiment enables the defibrillator 10 to dynamically update the therapy program as the medical technology and procedure progress, so as to have the best therapeutic effect.

As shown in fig. 7, the embodiment of the present application further provides a computer device 30, which may include a memory 31 and a processor 32. Wherein the memory 31 has stored thereon a computer program operable on the processor 32; the processor 32, when executing the computer program, implements the management method described above. The Memory 31 includes, but is not limited to, a usb disk, a Read-Only Memory (ROM), a Random Access Memory (RAM), a mobile hard disk, a magnetic disk, or an optical disk.

The embodiment of the application also provides a computer readable storage medium, on which a computer program is stored, and the computer program is executed by a processor to realize the management method. The computer readable storage medium includes, but is not limited to, various media that can store program codes, such as a usb disk, a Read-Only Memory (ROM), a Random Access Memory (RAM), a removable hard disk, a magnetic disk, or an optical disk.

The present embodiment also provides a method for managing a defibrillator, which is applicable to the server 20. The method may include:

s201: sending a configuration instruction and a configuration data packet to the defibrillator so that the defibrillator performs configuration updating on configuration items of the defibrillator according to the configuration instruction and the configuration data packet;

s202: and receiving and storing detection information sent by the defibrillator after the configuration is updated, wherein the detection information comprises detection result information used for representing the running state of at least one of the power supply, the defibrillation circuit, the electrode slice and the external equipment, and detection environment information used for representing at least one of detection time, the temperature of the power supply during detection and equipment positioning.

Specifically, steps S201 and S202 can be executed by the second controller 210, and the second controller 210 can execute the sending and receiving operations in steps S201 and S202 through the second communication interface 220. Therefore, the method of the embodiment transmits the configuration data packet to the defibrillator 10 to update the configuration of the defibrillator 10, and can also receive the detection information transmitted by the defibrillator 10 after the configuration is updated, so that a manager can remotely collect the detection information of the defibrillator 10 after the configuration is updated from one end of the server 20, thereby better implementing management and maintenance; moreover, the manager does not need to go to the site where the defibrillator 10 is installed to collect information, so that the information acquisition efficiency is greatly improved; because a plurality of defibrillators 10 can be connected with the server 20, a manager can remotely manage the plurality of defibrillators 10 at the same time, thereby enhancing the batch monitoring of the defibrillators 10 and improving the maintenance efficiency.

In this embodiment, the method may further include:

s203: and receiving treatment information transmitted by the defibrillator, wherein the treatment information comprises operation information used for representing the operation of the defibrillator in a treatment mode, and treatment environment information used for representing at least one of the operation time, the power supply operation temperature and the equipment positioning of the defibrillator in the treatment mode. Specifically, step S203 may be performed by the second controller 210, and the second controller 210 may perform the receiving operation through the second communication interface 220. This embodiment enables the administrator to further learn more information about the treatment to facilitate monitoring and managing emergency events and scheduling maintenance for the defibrillator 10.

In this embodiment, the method may further include:

s204: judging the detection information;

s205: and determining abnormal detection information and sending prompt information for indicating a judgment result.

Specifically, both steps S204 and S205 can be executed by the second controller 210. The second controller 210 may determine whether or not there is abnormality detection information based on the judgment processing of the received detection information, and issue indication information indicating the judgment result (presence or absence) and/or the specific content of the abnormality detection information (e.g., any of "abnormality" listed above). The embodiment can judge and feed back the detection information reported by the defibrillator 10, can confirm the state of the defibrillator 10 in time and remind the manager of knowing, and greatly improves the management quality of the manager on the defibrillator 10.

In this embodiment, the method may further include:

s206: judging whether the updating time of the detection information exceeds a preset time threshold value or not;

s207: and sending prompt information through the second communication interface when the updating time is determined to exceed the preset time threshold.

Specifically, steps S206 and S207 can be executed by the second control 210. The update time refers to the time when the defibrillator 10 reports the detection information; the preset time threshold may be set as desired, for example, 00:00 per day. The specific form of the prompt message can be set according to the needs, including but not limited to a mobile phone sent to the manager in the form of short message, mail, etc. The implementation mode can prompt the defibrillator 10 to take reasonable measures to investigate reasons in time when the detection information is not reported after the time-out, and therefore persistent management of the defibrillator 10 is achieved.

In this embodiment, the method may further include:

s208: receiving a user query instruction or a user derivation instruction;

s209: performing searching operation according to the user query instruction or the user derivation instruction;

s210: and displaying the result of the search operation.

Specifically, steps S208 and S209 may be executed by the second controller 210. The second controller 210 may receive the user query instruction or the user derivation instruction in step S208 through the display operation interface. In step S209, the second controller 210 performs a search operation on the information (including the detection information, the therapy information, and the like) related to the defibrillator 10 stored on the server 20 according to the user query instruction or the user derived instruction, and then displays the search operation result on the display operation interface in step S210. The present embodiment enables a manager to search for information related to the defibrillator 10 as needed, and flexible management is achieved.

Alternatively, unlike the above embodiments, the method may include:

s211: receiving a user export instruction;

s212: sending a remote data export request to the defibrillator according to the user export instruction;

s213: receiving a feedback result of the defibrillator;

s214: and storing the feedback result, and displaying the feedback result or providing operation guidance information based on the feedback result.

Specifically, steps S211 to S213 may be executed by the second controller 210 controlling the second communication interface 220, and step S214 may be executed by the second controller 210 controlling the memory and the display operation interface in the server 20. In the embodiment, the relevant information of the defibrillator 10 does not need to be stored in advance, but the defibrillator 10 is requested to report the relevant information and present the relevant information to the manager after receiving the instruction derived by the user. This design not only allows for flexible management of the defibrillator 10, but also allows the manager to know the latest status of the defibrillator 10 in a timely manner.

In this embodiment, the method may further include:

s215: receiving a user editing instruction;

s216: and editing the editing object according to the user editing instruction.

Specifically, step S215 may be performed by the second controller 210 controlling the second communication interface 220, and step S216 may be performed by the second controller 210. The edited object refers to device information of the defibrillator 10, including but not limited to device model number, device serial number, administrator, device installation location, detailed reports of current tests, etc. This "editing" includes, but is not limited to, adding, deleting, and modifying. The present embodiment provides a way to manually edit the device information of the defibrillator 10, which can enrich and expand the management capability of the server 20 on the defibrillator 10, and improve the management quality and efficiency.

In this embodiment, the method may further include:

s217: and sending a software upgrading instruction and a software upgrading data packet to the defibrillator.

Specifically, step S217 may be executed by the second controller 210 controlling the second communication interface 220, so that the defibrillator 10 stores the software upgrade data packet according to the software upgrade instruction, and performs software upgrade on the defibrillator 10. Therefore, the embodiment can ensure that the defibrillator 10 dynamically updates the treatment program along with the evolution of the medical technology and the process, and ensures that the defibrillator has the optimal treatment effect.

In this embodiment, the method may further include:

s218: and sending the detection information or the treatment information to a third-party platform.

Specifically, step S218 may be executed by the second controller 210 controlling the second communication interface 220. The third party platform may be a medical system (e.g., a hospital system or other medical facility system) or a non-medical system (e.g., a payroll platform, a wechat platform, etc.). Therefore, the present embodiment can realize sharing of relevant information of the defibrillator 10, which is beneficial to realizing greater medical benefit and economic benefit.

As shown in fig. 8, an embodiment of the present invention further provides a computer device 40, which includes a memory 41 and a processor 42, where the memory 41 stores a computer program that can run on the processor 42, and the processor 42 implements the method when executing the computer program. The Memory 41 includes, but is not limited to, a usb disk, a Read-only Memory (ROM), a Random Access Memory (RAM), a removable hard disk, a magnetic disk or an optical disk, and various media capable of storing program codes.

Embodiments of the present invention also provide a computer-readable storage medium on which a computer program is stored, where the computer program, when executed by a processor, implements a method. The computer readable storage medium includes, but is not limited to, various media that can store program codes, such as a usb disk, a Read-Only Memory (ROM), a Random Access Memory (RAM), a removable hard disk, a magnetic disk, or an optical disk.

While the invention has been described with reference to specific embodiments, the invention is not limited thereto, and those skilled in the art can easily conceive of various equivalent modifications or substitutions within the technical scope of the invention. Therefore, the protection scope of the present invention shall be subject to the protection scope of the claims.

Claims

1. The defibrillator is characterized by being connected with a server and comprising a first controller, a power supply, a defibrillation circuit, electrode plates, external equipment and a first communication interface; the first controller is used for controlling the power supply to output defibrillation voltage through the defibrillation circuit and applying the defibrillation voltage to a human body through the electrode plate; the external device is used for working under the control of the first controller to realize the function expansion of the defibrillator;

the first controller is used for receiving a configuration instruction and a configuration data packet sent by the server through the first communication interface, storing the configuration data packet according to the configuration instruction, and updating the configuration item of the defibrillator according to the configuration data packet; the first controller is further configured to, after the configuration of the defibrillator is updated, detect at least one of the power supply, the defibrillation circuit, the electrode pad, and the external device according to a detection instruction to generate detection information, and send the detection information to the server through the first communication interface, where the detection information includes detection result information used for representing an operation state of at least one of the power supply, the defibrillation circuit, the electrode pad, and the external device, and detection environment information used for representing at least one of detection time, a temperature of the power supply during detection, and device positioning.

2. The defibrillator of claim 1, wherein the detection instructions comprise detection instructions triggered by a clock signal or detection instructions triggered by a user power-on signal; the first controller is used for periodically detecting the hardware function of at least one of the power supply, the defibrillation circuit, the electrode plate and the external equipment according to a detection instruction triggered by the clock signal so as to generate detection result information; or the first controller is configured to perform hardware function detection on at least one of the power supply, the defibrillation circuit, the electrode pad, and the external device according to a detection instruction triggered by the user power-on signal, so as to generate the detection result information.

3. The defibrillator of claim 2,

the clock signals comprise a first clock signal and a second clock signal; the first controller is used for periodically detecting a first charge-discharge function of the defibrillation circuit according to a detection instruction triggered by the first clock signal; according to a detection instruction triggered by the second clock signal, performing second charge-discharge function detection on the defibrillation circuit regularly; the defibrillation circuit comprises a first charging and discharging function detection circuit, a second charging and discharging function detection circuit, a first voltage detection circuit and a second voltage detection circuit, wherein the charging and discharging energy of the defibrillation circuit in the first charging and discharging function detection is different from the charging and discharging energy of the defibrillation circuit in the second charging and discharging function detection.

4. The defibrillator according to any one of claims 1 to 3, wherein the first controller is further configured to record operation information of the defibrillator in the therapy mode according to a real-time recording instruction triggered by a user power-on signal, and send the operation information to the server through the first communication interface.

5. The defibrillator of claim 4, wherein the external device comprises at least one of an electrocardiosignal measurement circuit, a body impedance measurement circuit, and a pacing pulse measurement circuit; the work operation information comprises at least one of electrocardio waveform data output by the electrocardiosignal measuring circuit, human body impedance data output by the human body impedance measuring circuit and pacemaker step pulse data output by the pacing pulse measuring circuit.

6. The defibrillator of any one of claims 1-3, wherein the external device comprises at least one of an electrocardiosignal measuring circuit, a body impedance measuring circuit, or a pacing pulse measuring circuit, the external device further comprising at least one of an indicator light, an audio module, a memory module, a positioning module, or a key control module.

7. The defibrillator of any one of claims 1-3, further comprising a switch circuit for generating a power-on signal indicating that the defibrillator is powered on, the first controller for receiving the power-on signal and sending the power-on signal to the server via the first communication interface.

8. The defibrillator of claim 7, wherein the switch circuit is further configured to generate a power-off signal indicating that the defibrillator is powered off, and wherein the first controller is further configured to receive the power-off signal and send the power-off signal and the detection result information indicating the power supply operating state to the server via the first communication interface.

9. The defibrillator of any one of claims 1-3, wherein the first controller is further configured to receive a software upgrade instruction and a software upgrade data package sent by the server through the first communication interface, and store the software upgrade data package according to the software upgrade instruction and perform software upgrade on the defibrillator.

10. A server is characterized in that the server is used for being connected with a defibrillator which comprises a first controller, a power supply, a defibrillation circuit, electrode plates, external equipment and a first communication interface, and comprises a second controller and a second communication interface; the second controller is used for communicating with the defibrillator through the second communication interface; the second controller is used for sending a configuration instruction and a configuration data packet to the defibrillator through the second communication interface so that the defibrillator performs configuration updating on the configuration item of the defibrillator according to the configuration instruction and the configuration data packet; the second controller is further configured to receive and store detection information sent by the defibrillator after the configuration update is performed through the second communication interface, where the detection information includes detection result information used for representing an operation state of at least one of the power supply, the defibrillation circuit, the electrode pad, and the external device, and detection environment information used for representing at least one of detection time, temperature of the power supply during detection, and device location.

11. The server of claim 10, wherein the second controller is further configured to receive therapy information sent by the defibrillator via the second communication interface, wherein the therapy information includes operational operation information of the defibrillator in a therapy mode and therapy environment information characterizing at least one of an operation time, a power supply operating temperature, and a device location of the defibrillator in the therapy mode.

12. The server according to claim 10 or 11, wherein the second controller is further configured to determine the detection information to determine abnormal detection information, and send a prompt message through the second communication interface.

13. The server according to claim 10 or 11, wherein the second controller is further configured to determine an update time of the detection information, and send a prompt message through the second communication interface if the update time exceeds a preset time threshold.

14. The server according to claim 10 or 11, wherein the server further includes a display operation interface, and the second controller is further configured to receive a user query instruction or a user export instruction through the display operation interface, perform a search operation according to the user query instruction or the user export instruction, and display a result of the search operation on the display operation interface.

15. The server according to claim 10 or 11, wherein the server further comprises a display operation interface, and the second controller is further configured to receive a user-derived instruction through the display operation interface, send a remote data-derived request to the defibrillator according to the user-derived instruction, receive and store a feedback result of the defibrillator, and display the feedback result through the display operation interface or provide operation guidance information based on the feedback result.

16. The server according to claim 10 or 11, wherein the server further comprises a display operation interface, and the second controller is further configured to receive a user editing instruction through the display operation interface and edit the editing object according to the user editing instruction.

17. The server according to claim 10 or 11, wherein the second controller is further configured to send a software upgrade instruction and a software upgrade data packet to the defibrillator through the second communication interface, so that the defibrillator stores the software upgrade data packet according to the software upgrade instruction and performs software upgrade on the defibrillator.

18. The server of claim 11, wherein the second controller is further configured to send the detection information or the treatment information to a third party platform via the second communication interface.

19. The management method of the defibrillator is characterized in that the defibrillator is used for being connected with a server and comprises a first controller, a power supply, a defibrillation circuit, an electrode plate, external equipment and a first communication interface; the first controller is used for controlling the power supply to output defibrillation voltage through the defibrillation circuit and applying the defibrillation voltage to a human body through the electrode plate; the external device is used for working under the control of the first controller to realize the function expansion of the defibrillator; the management method comprises the following steps:

receiving a configuration instruction and a configuration data packet sent by the server;

storing the configuration data packet according to the configuration instruction, and updating the configuration item of the defibrillator according to the configuration data packet;

receiving a detection instruction after the defibrillator performs a configuration update;

detecting at least one of the power supply, the defibrillation circuit, the electrode sheet and the external equipment according to the detection instruction to generate detection information;

and sending the detection information to the server, wherein the detection information comprises detection result information used for representing the running state of at least one of the power supply, the defibrillation circuit, the electrode slice and the external equipment, and detection environment information used for representing at least one of detection time, temperature of the power supply during detection and equipment positioning.

20. The method of managing of claim 19,

the receiving of the detection instruction comprises receiving a detection instruction triggered according to a clock signal or a detection instruction triggered according to a user starting signal;

detecting at least one of the power supply, the defibrillation circuit, the electrode pad, and the external device according to the detection instruction, including:

according to a detection instruction triggered by the clock signal, hardware function detection is carried out on at least one of the power supply, the defibrillation circuit, the electrode plate and the external equipment at regular intervals; or

And according to a detection instruction triggered by the user power-on signal, performing hardware function detection on at least one of the power supply, the defibrillation circuit, the electrode plate and the external equipment.

21. The management method of claim 20, wherein periodically performing hardware function detection on at least one of the power supply, the defibrillation circuit, the electrode pads, and the external device according to a detection instruction triggered by the clock signal comprises:

according to a detection instruction triggered by a first clock signal, regularly carrying out first charge-discharge function detection on the defibrillation circuit;

according to a detection instruction triggered by a second clock signal, performing second charge-discharge function detection on the defibrillation circuit regularly; the defibrillation circuit comprises a first charging and discharging function detection circuit, a second charging and discharging function detection circuit, a first voltage detection circuit and a second voltage detection circuit, wherein the charging and discharging energy of the defibrillation circuit in the first charging and discharging function detection is different from the charging and discharging energy of the defibrillation circuit in the second charging and discharging function detection.

22. The management method according to any one of claims 19 to 21, characterized in that it further comprises:

receiving a real-time recording instruction triggered by a user starting signal;

recording the working operation information of the defibrillator in a treatment mode according to the real-time recording instruction;

and sending the work operation information to the server.

23. The management method of any of claims 19-21, wherein the defibrillator further comprises a switch circuit, the management method further comprising:

receiving a power-on signal generated by the power-on and power-off circuit and used for indicating the defibrillator to be powered on;

and sending the starting signal to the server.

24. The method of managing as set forth in claim 23, further comprising:

receiving a shutdown signal generated by the switching circuit and used for indicating the defibrillator to shut down;

and sending the shutdown signal and the detection result information for indicating the power supply running state to the server.

25. The management method according to any one of claims 19 to 21, characterized in that it further comprises:

receiving a software upgrading instruction and a software upgrading data packet sent by the server;

storing the software upgrading data packet according to the software upgrading instruction;

and upgrading the software of the defibrillator according to the upgrading data packet.

26. A computer device comprising a memory and a processor, the memory having stored thereon a computer program operable on the processor, wherein the processor implements the management method of any one of claims 19-25 when executing the computer program.

27. A computer-readable storage medium, on which a computer program is stored, which, when being executed by a processor, carries out the management method of any one of claims 19 to 25.

28. A method for managing a defibrillator, the method being applied to a server for connecting with a defibrillator comprising a first controller, a power source, a defibrillation circuit, electrode pads, an external device and a first communication interface, the server comprising a second controller and a second communication interface, the second controller being for communicating with the defibrillator through the second communication interface; the method comprises the following steps:

sending a configuration instruction and a configuration data packet to the defibrillator so that the defibrillator performs configuration updating on configuration items of the defibrillator according to the configuration instruction and the configuration data packet;

and receiving and storing detection information sent by the defibrillator after the configuration is updated, wherein the detection information comprises detection result information used for representing the running state of at least one of the power supply, the defibrillation circuit, the electrode slice and the external equipment, and detection environment information used for representing at least one of detection time, the temperature of the power supply during detection and equipment positioning.

29. The method of claim 28, further comprising:

and receiving treatment information transmitted by the defibrillator, wherein the treatment information comprises operation information used for representing the operation of the defibrillator in a treatment mode, and treatment environment information used for representing at least one of the operation time, the power supply operation temperature and the equipment positioning of the defibrillator in the treatment mode.

30. The method of claim 28 or 29, further comprising:

judging the detection information;

and determining abnormal detection information and sending prompt information.

31. The method of claim 28 or 29, further comprising:

judging whether the updating time of the detection information exceeds a preset time threshold value or not;

and sending prompt information through the second communication interface when the updating time is determined to exceed the preset time threshold.

32. The method of claim 28 or 29, further comprising:

receiving a user query instruction or a user derivation instruction;

performing searching operation according to the user query instruction or the user derivation instruction;

and displaying the result of the search operation.

33. The method of claim 28 or 29, further comprising:

receiving a user export instruction;

sending a remote data export request to the defibrillator according to the user export instruction;

receiving a feedback result of the defibrillator;

and storing the feedback result, and displaying the feedback result or providing operation guidance information based on the feedback result.

34. The method of claim 28 or 29, further comprising:

receiving a user editing instruction;

and editing the editing object according to the user editing instruction.

35. The method of claim 28 or 29, further comprising:

and sending a software upgrading instruction and a software upgrading data packet to the defibrillator.

36. The method of claim 28 or 29, further comprising:

and sending the detection information or the treatment information to a third-party platform.

37. A computer device comprising a memory and a processor, the memory having stored thereon a computer program operable on the processor, wherein the processor, when executing the computer program, implements the method of any of claims 28-36.

38. A computer-readable storage medium, on which a computer program is stored, which, when being executed by a processor, carries out the method of any one of claims 28-36.