Wearable Device Heart Monitor Systems
US-2017215743-A1 · Aug 3, 2017 · US
US9615762B2 · US · B2
| Field | Value |
|---|---|
| Publication number | US-9615762-B2 |
| Application number | US-201414566873-A |
| Country | US |
| Kind code | B2 |
| Filing date | Dec 11, 2014 |
| Priority date | Dec 11, 2014 |
| Publication date | Apr 11, 2017 |
| Grant date | Apr 11, 2017 |
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A coordinating interface for electrophysiological signals provides inputs for ECG and intra-cardiac electrodes and provides a computer controllable processing path outputting data using a shareable digital data output. Requests received over a digital control line allow the computer to control a multiway switch and analog filter set to arbitrate among different uses of the electrophysiological signals by different devices. A single coordinating interface helps reduce interference from competing uses. Pre-stored configuration data simplifies the connection of different devices having different uses of the physiological data.
Opening claim text (preview).
What we claim is: 1. An interface for electrophysiological signals comprising: a set of electrode electrical connectors adapted to connect to electrical leads communicating between a patient and the interface; an analog-to-digital converter system providing multiple independent analog-to-digital converters; a computer controllable multiway switch connecting signals of the electrical connectors to different inputs of different analog-to-digital converters according to a computer signal for conversion of analog signals from the electrical connectors to digital signals; a data network receiving the digital signals and providing connectors adapted to connect the digital signals to medical devices requiring electrical signals from given sets of electrode electrical connectors; a control network system receiving requests from at least two given medical devices describing needed electrical signals from the set of electrode electrical connectors; and an electronic computer communicating with the control network system and executing a program stored in non-transitory medium to receive the requests from the given medical devices and to arbitrate among the requests to provide the computer signal to the computer controllable multiway switch to connect the given medical devices through the multiway switch to selected electrodes of the set of electrode electrical connectors. 2. The interface for electrophysiological signals of claim 1 wherein at least one of the data network and control network provides a serial communication protocol. 3. The interface for electrophysiological signals of claim 1 wherein at least one of the data network and control network provides an optical fiber link. 4. The interface for electrophysiological signals of claim 1 further including a monitor output connectable to an ECG monitor and receiving output directly from the independent filters without analog-to-digital conversion. 5. The interface for electrophysiological signals of claim 1 further including computer-controllable bypass switches having input terminals connectable to sources of electrical power and outputs connected to ones of the electrode electrical connectors, the computer-controllable bypass switches communicating with the electronic computer to be closed or opened by signals from the electronic computer. 6. The interface for electrophysiological signals of claim 5 wherein the computer-controllable bypass switches are electromechanical relays. 7. The interface for electrophysiological signals of claim 5 further including signal sensors positioned in series along an electrical path between the input terminals connectable to sources of electrical power and those sources of electrical power for providing monitoring signals to the analog-to-digital converter system. 8. The interface for electrophysiological signals of claim 1 further including a right leg drive circuit for providing a drive current to one of the electrode electrical connectors connectable to a ground pad and receiving signals from the data network to determine the drive current. 9. The interface for electrophysiological signals of claim 1 wherein the requests are associated with priorities and an arbitration provides the computer signals according to a priority so that the multiway switch selects the electrodes of the set of electrode electrical connectors required for a request of highest priority. 10. The interface for electrophysiological signals of claim 9 wherein the arbitration allows simultaneous service of requests of different priority that do not require conflicting settings of the multiway switch. 11. The interface for electrophysiological signals of claim 9 wherein the priorities are stored in non-transitory medium indexed to a particular medical device and wherein the requests identify the medical device. 12. The interface for electrophysiological signals of claim 9 wherein the priorities are stored in the non-transitory medium and indexed to a particular process of a particular medical device and wherein the requests identify the medical device and the process of the medical device. 13. The interface for electrophysiological signals of claim 1 wherein the requests identify a particular process and the device data structure stored in non-transitory medium further link processes to process duration and wherein the arbitration grants priority to a given process for the duration in the data structure. 14. The interface for electrophysiological signals of claim 1 wherein the requests identify a particular process and wherein the non-transitory medium holds a configuration data structure linking processes to configurations and wherein the electronic computer executes the program to receive requests identifying particular process and to use the configurations from the configuration data structure to provide the computer signal to the computer controllable multiway switch. 15. The interface for electrophysiological signals of claim 14 wherein the configuration data structure provides configurations identifying a given set of electrode electrical connectors according to functions of associated electrodes and wherein the non-transitory medium further includes a lead function table relating electrode electrical connectors to particular lead functions and wherein the electronic computer executes the program to compare the configurations against lead functions per the lead function table. 16. The interface for electrophysiological signals of claim 15 in which the lead function table includes functions of ECG electrode, intra-cardiac electrode, stimulating electrode, and pacing electrode. 17. The interface for electrophysiological signals of claim 1 further including at least one digital-to-analog converter communicating with the data network to provide an output signal derived from at least one of the signals received by the electrode electrical connectors. 18. The interface for electrophysiological signals of claim 1 further including a multiplexer for multiplexing an output of the independent analog-to-digital converters to the data network. 19. The interface for electrophysiological signals of claim 1 further including a set of electrodes selected from ECG surface electrodes and intra-cardiac electrodes attached to at least some of the electrode electrical connectors. 20. An interface for electrophysiogical signals comprising: a set of electrode electrical connectors adapted to connect to electrical leads communicating between a patient and the interface; an analog-to-digital converter system providing multiple independent analog-to-digital converters; a computer controllable multiway switch connecting signals of the electrical connectors to different inputs of different analog-to-digital converters according to a computer signal for conversion of analog signals from the electrical connectors to digital signals; a data network receiving the digital signals and providing connectors adapted to connect the digital signals to medical devices requiring electrical signals from given sets of electrode electrical connectors; a control network system receiving requests from at least two given medical devices describing needed electrical signals from the set of electrode electrical connectors; and an electronic computer communicating with the control network system and executing a program stored in non-transitory medium to receive the requests from the given medical devices and to arbitrate among the requests to provide the computer signal to the computer controllab
by passing a current through the tissue to be heated, e.g. high-frequency current · CPC title
for electrocardiography [ECG] · CPC title
Switching circuits · CPC title
Human Necessities · mapped topic
Human Necessities · mapped topic
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