Physiological measurement communications adapter
View Patent ↗A sensor interface is configured to receive a sensor signal. A transmitter generates a transmit signal. A receiver receives the signal corresponding to the transmit signal. Further, a monitor interface is configured to communicate a waveform to the monitor so that measurements derived by the monitor from the waveform are generally equivalent to measurements derivable from the sensor signal.
1. A wireless communications adapter configured to provide a monitor-compatible signal to a patient monitor that is useable by the patient monitor to determine a physiological parameter measurement, the wireless communications adapter comprising:
a receiver configured to receive a wirelessly transmitted signal from a physiological sensor, the wirelessly transmitted signal including information from which a physiological parameter measurement may be derived; and
a processor configured to obtain characterization information specific to a patient monitor and adapt the received wirelessly transmitted signal to a monitor-compatible signal utilizing the characterization information, the monitor-compatible signal adapted for compatibility with the patient monitor, the monitor-compatible signal usable by the patient monitor to determine a physiological parameter measurement consistent with physiological data collected by the physiological sensor.
2. The wireless communications adapter of claim 1 further comprising:
a monitor interface configured to output the monitor-compatible signal to a sensor port of the patient monitor.
3. The wireless communication adapter of claim 2 , wherein the processor is configured to obtain the characterization information from the monitor interface.
4. The wireless communications adapter of claim 1 further comprising:
an adapter housing that houses the receiver and the processor and which further includes a monitor connector configured to electrically and mechanically connect the wireless communications adapter to the patient monitor via a sensor port of the patient monitor.
5. The wireless communications adapter of claim 4 , wherein the monitor-compatible signal is output, by the processor, to the sensor port of the patient monitor via the monitor connector.
6. The wireless communications adapter of claim 1 , wherein the characterization information is provided by the patient monitor.
7. The wireless communications adapter of claim 1 further comprising:
an adapter housing that houses the receiver and the processor and which further includes a monitor connector configured to electrically and mechanically connect the wireless communications adapter to one end of an auxiliary cable, wherein another end of the auxiliary cable may be connected to a patient monitor via a sensor port of the patient monitor.
8. The wireless communications adapter of claim 7 , wherein the processor is configured to further adapt the received wirelessly transmitted signal based on calibration information provided by the auxiliary cable.
9. The wireless communications adapter of claim 1 , wherein the physiological sensor comprises a noninvasive physiological sensor configured to provide a signal responsive to optical radiation attenuated by a tissue site of a patient.
10. A physiological measurement method comprising:
receiving, at a wireless communications adapter, a wirelessly transmitted signal from a physiological sensor, the wirelessly transmitted signal including information from which a physiological parameter measurement may be derived; and
adapting, utilizing characterization information specific to a patient monitor and by a processor of the wireless communications adapter, the received wirelessly transmitted signal to a monitor-compatible signal, the monitor-compatible signal adapted for compatibility with the patient monitor, the monitor-compatible signal usable by the patient monitor to determine a physiological parameter measurement consistent with physiological data collected by the physiological sensor.
11. The physiological measurement method of claim 10 further comprising:
outputting, by a monitor interface of the wireless communications adapter, the monitor-compatible signal to a sensor port of the patient monitor.
12. The physiological measurement method of claim 11 further comprising:
accessing, by the processor of the wireless communication adapter and from the monitor interface, the characterization information specific to the patient monitor.
13. The physiological measurement method of claim 10 , further comprising:
providing a wireless communications adapter housing that houses the processor and which further includes a monitor connector; and
electrically and mechanically connecting, by the monitor connector, the wireless communications adapter to the patient monitor via a sensor port of the patient monitor.
14. The physiological measurement method of claim 13 further comprising:
outputting the monitor-compatible signal to the sensor port of the patient monitor via the monitor connector.
15. The physiological measurement method of claim 10 , wherein the characterization information is provided by the patient monitor.
16. The physiological measurement method of claim 10 further comprising:
providing a wireless communications adapter housing that houses the processor and which further includes a monitor connector; and
electrically and mechanically connecting, by the monitor connector, the wireless communications adapter to one end of an auxiliary cable, wherein another end of the auxiliary cable may be connected to a patient monitor via a sensor port of the patient monitor.
17. The physiological measurement method of claim 16 , wherein adapting the received wirelessly transmitted signal is further based on calibration information provided by the auxiliary cable.
18. The physiological measurement method of claim 10 , wherein the physiological sensor comprises a noninvasive physiological sensor configured to provide a signal responsive to optical radiation attenuated by a tissue site of a patient.