65 results about "Automated external defibrillator" patented technology

A pad carrying an array of ECG electrodes can be used to measure ECG signal amplitudes and AMSA, a signal analyzer determines a cardiac position with respect to the pad, and an indication of cardiac position with respect to indicia can be provided on a top surface of the pad for output to the user to guide in performing chest compressions during CPR. The pad may integrate a defibrillator electrode. The apparatus may be an automated external defibrillator (AED).

A portable emergency response kit designed for rapid intervention in opioid overdose or cardiac arrest scenarios comprises a durable case with compartments for specific medical devices, such as opioid overdose treatment medication or an Automated External Defibrillator (AED). The case features a breakable closed circuit that is, upon opening, triggered to send a signal to notify emergency medical services (EMS) or predefined contacts of the kit's location.The system utilizes GPS module and may include dual-mode communication capabilities for reliable alert transmission in various environments. Additional features may include a transparent case material for visual confirmation of contents, tamper-evident seals, QR codes linked to instructional content, and a battery power source. The kit is designed to be user-friendly, incorporating ergonomic elements and optional accessories for enhanced portability and storage, ensuring rapid and effective response in critical situations.

Described is an AED and method of use, comprising two pads to be placed on a patient, two electrodes on the two pads respectively, two angular motion sensors associated with the two pads respectively, a shock generation circuit to generate doses of defibrillation shocks, and a processor with memory and power supply, the processor configured to analyse angular motion signals from the two angular motion sensors to determine orientations of the two pads relative to one another, analyse electrocardiogram (ECG) signals from the two electrodes to determine shockable cardiac rhythms, automatically select between adult doses and paediatric doses of defibrillation shocks to be delivered by the two electrodes based, at least in part, on the orientations of the two pads.

An automated external defibrillator (AED) management system includes an AED information database including location information for a plurality of AEDs, and contact information for notifying an owner or administrator of a respective AED. The system further includes a notification system communicatively coupled to the AED information database, the notification system configured to receive a request to alert responders in a vicinity of a cardiac arrest victim, receive a location of the cardiac arrest victim, identify at least one AED located in the vicinity of the cardiac arrest victim from the location information for the plurality of AEDs, provide an alert to the owner or administrator of the at least one AED located in the vicinity of the cardiac arrest victim based on the contact information, wherein the alert comprises a request for the owner or administrator to bring the AED to the location of the cardiac arrest victim.

1. Name of the product in this design: Battery (Automatic External Defibrillator). 2. Purpose of this design: To power an automated external defibrillator (AED). 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: 3D view 1.

A predictive diagnostic system (10) for a distributed population of automated external defibrillator (AED) devices comprises a plurality of AEDs (12) and a remote service provider (RSP) computer (14) configured to receive and transmit information pertaining to periodic AED self-tests. Each AED (121 to 12N) is provided with a controller for testing a readiness of the AED according to a self-test protocol. The RSP computer (i) analyzes self-test result data that includes functional measurement values of the periodic self-tests and which includes data from at least one failed AED (12N-2 to 12N) of the plurality, (ii) identifies an indicator of an impending fault or failure predictive of an impending AED device fault or failure in at least one non-failed AED (124) based on the analyzed data, and (iii) remotely modifies the self-test protocol of a sub-set (124) of the plurality of AEDs, based on the indicator, to pre-empt an occurrence of a self-test failure in the AED devices of the sub-set.

An automated external defibrillator includes: a self-test executor that executes a self-test for checking a state of the automated external defibrillator; and a display unit that indicates the state of the automated external defibrillator. The display unit makes: a first display when the automated external defibrillator is in a normal state; a second display when the automated external defibrillator is in an abnormal state, and the first display and the second display simultaneously or in a predetermined pattern when the automated external defibrillator is self-testing.

The present application relates to the technical field of cardiac defibrillation treatment, and particularly relates to a data processing method and system of an automatic external defibrillator. The method comprises the following steps: obtaining a patient help signal through an SOS safety clock and transmitting the signal to a stereoscopic rescue management terminal; performing regional network positioning on the patient help signal through the stereoscopic rescue management terminal to obtain patient help positioning data; performing electrocardiogram monitoring on the patient based on the patient help positioning data using the automatic external defibrillator to obtain initial electrocardiogram data of the patient's heart; performing data preprocessing on the initial electrocardiogram data of the patient's heart to obtain high-quality electrocardiogram data of the patient's heart; performing cardiac fibrillation feature analysis on the high-quality electrocardiogram data of the patient's heart to obtain cardiac fibrillation feature data of the patient; and performing arrhythmia calculation on the cardiac fibrillation feature data of the patient to obtain a cardiac fibrillation arrhythmia index of the patient. The present application can realize accurate defibrillation of the patient's arrhythmia.

To better support the rescuer's movements during cardiopulmonary resuscitation. [Solution] In the AED1, the detection unit 134 detects the patient's body movement during the CPR period after electrocardiogram analysis and discharge processing. The output control unit 131 outputs instructions to the rescuer regarding chest compressions based on whether or not the patient's body movement is present during the CPR period. The output control unit 131 also outputs a continuation instruction D1 to instruct the continuation of chest compressions, and outputs the continuation instruction D1 again when a first time has elapsed since the previous output of the continuation instruction D1. Furthermore, if the patient's body movement is not detected for a period of time shorter than the first time, the output control unit 131 outputs a start instruction D2 to instruct the start of chest compressions with priority over the continuation instruction D1, and outputs the start instruction D2 again when the second time has elapsed.

The utility model discloses a case device of an automatic external defibrillator, which comprises a case body, the automatic external defibrillator is arranged in the case body and is placed in the case body through a lower limit support structure, a power supply is fixedly mounted at the top of the inner wall of the case body, and the power supply is connected with the case body. The top of the case body is provided with a buzzer alarm and a signal transmitter, the power supply is electrically connected with the buzzer alarm and the signal transmitter, the case body is movably connected with an anti-theft sealing door through a hinge, and the anti-theft sealing door is provided with a safety glass window. The automatic external defibrillator is arranged in the case body to protect the automatic external defibrillator, meanwhile, the automatic external defibrillator can be smashed in emergency, the automatic external defibrillator can be directly taken out, and when the automatic external defibrillator is taken out, an alarm can be automatically given, so that the anti-theft effect is achieved, and meanwhile relevant personnel can be informed of emergency problems.

The invention provides a medical resource sharing method and device, electronic equipment and a storage medium, and the method comprises the steps: obtaining a first position of a vehicle in response to a use request of an automatic external defibrillator, and transmitting the use request to a management platform which is used for managing the equipment information of a plurality of automatic external defibrillators; receiving respective second positions of the plurality of automatic external defibrillators fed back by the management platform in response to the use request; according to the first position and the second position, determining the automatic external defibrillator closest to the vehicle in the plurality of automatic external defibrillators as a target automatic external defibrillator, and determining a first target position of the target automatic external defibrillator; and performing route planning according to the first position and the first target position to obtain a first driving route, and guiding the vehicle to drive to the first target position according to the first driving route. According to the method, the target automatic external defibrillator can be quickly positioned, unnecessary time waste is reduced, and missing of the optimal treatment opportunity is avoided.

This item is the main unit of an automated external defibrillator (AED), which performs defibrillation by delivering an electric shock to the heart to eliminate fibrillation, for example, when a patient's heart goes into fibrillation. By attaching electrodes (pads) connected to this item to the patient's chest, the patient's electrocardiogram is automatically analyzed, and defibrillation is performed as needed. The central panel may have a display unit as shown in Reference Figure 1, which shows the state of use, or it may not have a display unit as shown in Reference Figure 2, which also shows the state of use.

1. Name of the product in this design: Body of the automated external defibrillator battery charger adapter. 2. Purpose of this design: The overall purpose of this product is as a battery charger adapter for an automated external defibrillator (AED), and its partial purpose is as the main body of the AED battery charger adapter. 3. The key design features of this product are the shape of the part that is to be protected. 4. The image or photograph that best illustrates the key design points: Design 1 3D view. 5. Design 1 is designated as the basic design. 6. Other situations requiring explanation: This design patent requires partial design protection. The solid lines indicate the parts that require protection, the dashed lines indicate the parts that do not require protection, and the dotted lines are the boundary lines between the parts that require protection and the parts that do not require protection.

To provide user interfaces that instruct untrained users how to operate medical devices.SOLUTION: An automated external defibrillator comprises a detection circuit, a treatment circuit, a screen, and a processor. The detection circuit is configured to detect an electrocardiogram (ECG) of a subject. The processor is configured to: cause the screen to illuminate a shock icon, illuminate a hands-off icon, and blacken a cardiopulmonary resuscitation (CPR) icon; in response to these, determine if the ECG is indicative of ventricular fibrillation by analyzing the ECG; cause the screen to illuminate a shock icon, blacken the hands-off icon, and blacken the CPR icon; in response to these, determine that the pressure sensor has detected a touch signal; in response to the determination, cause the treatment circuit to output an electrical shock to pads; and, in response to the output, cause the screen to blacken the shock icon, blacken the hands-off icon, and illuminate the CPR icon.SELECTED DRAWING: Figure 1

1. The name of the product under this design: Automated External Defibrillator. 2. The purpose of this design product: to perform defibrillation on patients with cardiac arrest. 3. The key point of the design of this product lies in its shape. 4. The picture or photo that best illustrates the design points: three-dimensional picture.

An automatic external defibrillator is used for conducting electrocardiogram analysis and discharge processing on a detected person. The automated external defibrillator includes a detection unit configured to detect a body movement of a subject during a cardio-pulmonary resuscitation period after electrocardiogram analysis and discharge processing, and an output controller configured to output an instruction regarding chest compression on the subject to a rescuer based on the presence or absence of the body movement of the subject during the cardio-pulmonary resuscitation period. An output controller configured to output a continuation instruction for instructing continuation of the chest compression, and to output the continuation instruction again in a case where a first time has elapsed from the last output of the continuation instruction; a start command output unit that outputs a start command for instructing the start of chest compression over the continuation command when the body movement of the subject is not detected continuously for a second time or longer shorter than the first time; and outputting the start command again when a second time has elapsed from the last output of the start command.

Provided is an Automated External Defibrillator AED and a server. The AED makes an ECG measurement of a heart and transmits the measurement to a remote processing device, for example the server, and receives back from the server a first classification of the ECG measurement. The AED also performs a local analysis of the ECG measurement to determine a second classification of the ECG measurement. The AED determines whether to administer a shock / instruct a user to administer a shock based on the first and second classifications.

The present application relates to multifunctional defibrillation electrode, automatic external defibrillator and defibrillator system, the multifunctional defibrillation electrode is provided with pressing detection module, impedance detection module, humidity detection module, electrocardio detection module and defibrillation module, the pressing detection module includes acceleration sensor and acceleration sensor control and wireless transmission module, is used for the detection of pressing frequency when carrying out cardiopulmonary resuscitation;The automatic external defibrillator and defibrillator system adopt this multifunctional defibrillation electrode, can be related detection by defibrillation equipment, external wireless equipment, external impedance detection equipment and remote monitoring platform, to facilitate the maintenance of defibrillation system, and emergency personnel in the first aid process can utilize this defibrillator to know the pressing frequency of cardiopulmonary resuscitation implementation.

Medical device management platforms, as for example, automated external defibrillator (AED) management platforms are described. The disclosure also describes systems, management platform graphical user interfaces, management server infrastructures, connected automated external defibrillators (AEDs), and protocols for communications between such system / devices that make it easier for owners, administrator, and others to manage their devices. The present disclosure also describes mechanisms that facilitate getting incident information to interested parties, including medical personnel, EMS personnel and others when an AED is used.

An automated external defibrillator includes: an operation accepter that accepts an operation input from a user; and a self-test executor that executes a self-test for checking a state of the automated external defibrillator when a first condition or a second condition has been satisfied. The first condition is that a setting time instant set in advance comes. The second condition is that the operation accepter accepts a predetermined operation input.

Systems and methods described herein relate to determining if a low-voltage power component lacks power to generate an electric shock signal and generating the electric shock signal via a high-voltage power component if the low-voltage power component lacks power to generate the electric shock signal. For example, if a rechargeable battery fails within an automatic external defibrillator, an electric shock signal may be generated from a high-voltage power supply such as a high-voltage electric vehicle battery.

An automatic external defibrillator (1) is provided with a self-test executor (10) that executes a self-test for checking a state of the automatic external defibrillator (1), and a display unit (40(41)) that displays the state of the automatic external defibrillator (1). The display unit (40(41)) performs a first display when the automatic external defibrillator (1) is in a normal state, a second display when the automatic external defibrillator (1) is in an abnormal state, and simultaneously or in a predetermined pattern the first display and the second display when the automatic external defibrillator (1) is performing the self-test.

1. Name of the Design Product: Automated External Defibrillator (Household Type). 2. Use of the Design Product: A medical device used for first aid in a household scenario. 3. Design Key Points of the Design Product: The combination of shape, pattern and color. 4. Picture or Photograph Most Indicating the Design Key Points: Front View. 5. The claimed design includes color.

The application belongs to the field of indoor positioning of automatic external defibrillators, and provides an indoor positioning method, system, medium and equipment for automatic external defibrillators to solve the problem of poor positioning accuracy of automatic external defibrillators. The indoor positioning method of the automatic external defibrillator comprises obtaining the pose data of the automatic external defibrillator to be positioned relative to the indoor reference point according to the known correspondence between the spatial positioning sequence and the pose state data relative to the indoor reference point; based on the pose data of the automatic external defibrillator to be positioned relative to the indoor reference point, the actual position information of the automatic external defibrillator to be positioned is analyzed combined with the automatic external defibrillator position database, and the automatic external defibrillator position database is updated, which can quickly and accurately position the position of the indoor automatic external defibrillator.

An automated external defibrillator for performing electrocardiogram analysis and discharge processing on a subject. The automated external defibrillator includes a detection unit configured to detect a body motion of the subject, in a cardiopulmonary resuscitation period after the electrocardiogram analysis and the discharge processing, and an output controller configured to output, to a rescuer, an instruction regarding chest compression on the subject, based on presence or absence of the body motion of the subject, in the cardiopulmonary resuscitation period. The output controller is configured to output a continuation instruction for instructing continuation of chest compression, and in a case where a first time has elapsed from the output of a previous continuation instruction, output the continuation instruction again.

A locked structure emergency access method involves a vital signs sensor (20) (e.g. a wearable smartwatch) communicating an emergency alert to a rescue professional server (60) (e.g., a 911 server), a rescue volunteer device (80) (e.g., a smartphone or a table), and / or a defibrillator (e.g., an automated external defibrillator or a semi-automated external defibrillator). Based on the communication(s) of the emergency alert by the vital signs sensor (20), a virtual key (92) (e.g., a NFS, QR-code or a bar code) may be communicated to the rescue volunteer device (80) whereby a rescue volunteer via the volunteer key may obtain a physical key (91) to gain access to a locked structure (e.g. a home or an office). Additionally, a rescue professional via the volunteer key may obtain an additional physical key (91) to gain access to the locked structure.

The invention discloses an automatic external defibrillator management method and system and a storage medium, and the method comprises the steps: a cloud management system which operates at a cloud platform end receives an equipment binding request, and the equipment binding request is sent by a user terminal; the equipment binding request comprises equipment state information generated by performing self-inspection on the to-be-bound automatic external defibrillation; the cloud platform end analyzes the equipment state information, and binds the user terminal as a management terminal of the automatic external defibrillator under the condition that the equipment state information is normal; and at least opening the management authority of the equipment application data and the equipment state data of the automatic external defibrillator to the management terminal. According to the invention, the management efficiency of the automatic external defibrillator can be improved.

1. The name of the design product: simulation rescue training automatic external defibrillator. 2. The use of the design product: the design product is used for simulation CPR rescue training automatic external defibrillator for cardiopulmonary resuscitation teaching. 3. The design points of the design product: in shape. 4. The picture or photo that best indicates the design points: perspective view.