Abstract: A variety of methods, medical devices, responder network servers, emergency services interfaces and call center related processes are described that can help improve responder networks designed to get a medical device such as an automated external defibrillator and/or volunteer responders to the scene of a potential medical incident.

Abstract: Methods, user interfaces and systems are described that enable responder preferences to be considered during deployment of a public responder network. In some embodiments, a user is able to set preferences such as a mobility status, a public accessibility preference, a incidents notifications preference or a geographic preference associated with a medical device that is a part of the public responder network. In some embodiments, the user is able to select or define an area for which incident notifications are desired or are to be restricted in some manner. The described approach is well suited for public responder networks that include medical devices such as defibrillators (e.g., AEDs) in the network.

Abstract: A variety of dispatcher user interfaces, communications architectures, methods, apparatus, APIs and protocols are described that can help facilitate the integration of volunteer responder networks into the workflows of PSAP dispatchers. In one aspect, a dispatcher user interface facilitates activation of the volunteer responder network, as well as tracking and/or communicating notes to medical devices such as AEDs in the responder network that have accepted an incident.

Abstract: System and methods for delivering defibrillator incident information to a PSAP in real-time during emergency use of an AED are described. Such information is utilized by a telecommunicator at a PSAP to provide better guidance to volunteer caregivers during potential cardiac arrest incidents. In another aspect the AED's current instruction state and optionally the time in that state is provided to the PSAP.

Abstract: 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.

Abstract: 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.

Abstract: 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.

Abstract: A variety of dispatcher user interfaces, communications architectures, methods, apparatus, APIs and protocols are described that can help facilitate the integration of volunteer responder networks into the workflows of PSAP dispatchers. In one aspect, a dispatcher user interface facilitates activation of the volunteer responder network, as well as tracking and/or communicating notes to medical devices such as AEDs in the responder network that have accepted an incident.

Abstract: A variety of methods, medical devices, responder network servers, emergency services interfaces and call center related processes are described that can help improve responder networks designed to get a medical device such as an automated external defibrillator and/or volunteer responders to the scene of a potential medical incident.

Abstract: A variety of methods, medical devices, responder network servers, emergency services interfaces and call center related processes are described that can help improve responder networks designed to get a medical device such as an automated external defibrillator and/or volunteer responders to the scene of a potential medical incident.

Abstract: System and methods for delivering defibrillator incident information to a PSAP in real-time during emergency use of an AED are described. Such information is utilized by a telecommunicator at a PSAP to provide better guidance to volunteer caregivers during potential cardiac arrest incidents. In another aspect the AED's current instruction state and optionally the time in that state is provided to the PSAP.

Abstract: Methods, user interfaces and systems are described that enable responder preferences to be considered during deployment of a public responder network. In some embodiments, a user is able to set preferences such as a mobility status, a public accessibility preference, a incidents notifications preference or a geographic preference associated with a medical device that is a part of the public responder network. In some embodiments, the user is able to select or define an area for which incident notifications are desired or are to be restricted in some manner. The described approach is well suited for public responder networks that include medical devices such as defibrillators (e.g., AEDs) in the network.

Abstract: A variety of systems, methods, architectures and devices are described that facilitate quicker responses to potential cardiac arrest incidents in a variety of different circumstances.

Abstract: System and methods for delivering defibrillator incident information to a PSAP in real-time during emergency use of an AED are described. Such information is utilized by a telecommunicator at a PSAP to provide better guidance to volunteer caregivers during potential cardiac arrest incidents. In another aspect the AED's current instruction state and optionally the time in that state is provided to the PSAP.

Abstract: Methods, user interfaces and systems are described that enable responder preferences to be considered during deployment of a public responder network. In various embodiments, a user is able to select or define an area for which incident notifications are desired or are to be restricted in some manner. The described approach is well suited for public responder networks that include medical devices such as defibrillators (e.g., AEDs) in the network.

Abstract: A variety of methods, medical devices, responder network servers, emergency services interfaces and call center related processes are described that can help improve responder networks designed to get a medical device such as an automated external defibrillator and/or volunteer responders to the scene of a potential medical incident.

Abstract: System and methods for delivering defibrillator incident information to a PSAP in real-time during emergency use of an AED are described. Such information is utilized by a telecommunicator at a PSAP to provide better guidance to volunteer caregivers during potential cardiac arrest incidents. In another aspect the AED's current instruction state and optionally the time in that state is provided to the PSAP.

Abstract: A variety of methods, medical devices, responder network servers, emergency services interfaces and call center related processes are described that can help improve responder networks designed to get a medical device such as an automated external defibrillator and/or volunteer responders to the scene of a potential medical incident.

Abstract: System and methods for delivering defibrillator incident information to a PSAP in real-time during emergency use of an AED are described. Such information is utilized by a telecommunicator at a PSAP to provide better guidance to volunteer caregivers during potential cardiac arrest incidents. In another aspect the AED's current instruction state and optionally the time in that state is provided to the PSAP.