Abstract: A system for telemetrically monitoring a patient includes a remote monitoring device associated with the patient. A location services system tracks a location of the remote monitoring device. A patient tracking computer calculates a distance and a duration of patient ambulation from the tracked location. A method of monitoring an ambulatory patient monitors the location of a remote monitoring device and derives ambulatory event data from the monitored location.

Abstract: A patient monitoring system includes an identification transmitter that transmits an identification signal associated with a patient and a location tracking system having a plurality of identification receivers arranged in a care facility that receive the identification signal from the identification transmitter, wherein the location tracking system determines a patient location within a care facility based on a location of receipt of the identification signal. The patient monitoring system further includes an activity tracking module executable to receive at least one activity threshold for the patient and the patient location, and to determine a patient activity indicator based on the patient location. The activity tracking module is further executable to generate an activity alert based on a comparison between the patient activity indicator and the activity threshold.

Abstract: A patient monitoring system includes an identification transmitter that transmits an identification signal associated with a patient and a location tracking system having a plurality of identification receivers arranged in a care facility that receive the identification signal from the identification transmitter, wherein the location tracking system determines a patient location within a care facility based on a location of receipt of the identification signal. The patient monitoring system further includes an activity tracking module executable to receive at least one activity threshold for the patient and the patient location, and to determine a patient activity indicator based on the patient location. The activity tracking module is further executable to generate an activity alert based on a comparison between the patient activity indicator and the activity threshold.

Abstract: A patient monitoring system includes a sensing device configured to measure physiological parameter data from a patient, an identification transmitter that transmits an identification signal, wherein the identification signal is associated with the patient, and a location tracking system having a plurality of identification receivers arranged in a care facility that receive the identification signal from the identification transmitter and determine a patient location within the care facility based on a location of receipt of the identification signal. The patient monitoring system further includes a contextual alarming module that receives the patient location and selects at least one location-specific alarm rule based on the patient location in the care facility. Physiological parameter data is then assessed by the patient monitoring system based on the location-specific alarm rule.

Abstract: A patient monitoring system includes patient identification transmitters that each transmit a patient identifier and clinician identification transmitters that each transmit a clinician identifier. Identification receivers are arranged in a care facility to receive patient identifiers and the clinician identifiers. A location tracking system determines a patient location within the care facility for each patient identification transmitter based on a location of receipt of the patient identifier, and determines a clinician location for each clinician identification transmitter based on the location of receipt of the clinician identifier. A mapping module is executable to receive the patient locations and the clinician locations, and locate the patient locations and the clinician locations on a map of the care facility. It then displays a patient location indicator for each patient location and a clinician location indicator for each clinician location on the map of the care facility.

Abstract: A patient monitoring system includes a sensing device configured to measure physiological parameter data from a patient, an identification transmitter that transmits an identification signal, wherein the identification signal is associated with the patient, and a location tracking system having a plurality of identification receivers arranged in a care facility that receive the identification signal from the identification transmitter and determine a patient location within the care facility based on a location of receipt of the identification signal. The patient monitoring system further includes a contextual alarming module that receives the patient location and selects at least one location-specific alarm rule based on the patient location in the care facility. Physiological parameter data is then assessed by the patient monitoring system based on the location-specific alarm rule.

Abstract: A system for telemetrically monitoring a patient includes a remote monitoring device associated with the patient. A location services system tracks a location of the remote monitoring device. A patient tracking computer calculates a distance and a duration of patient ambulation from the tracked location. A method of monitoring an ambulatory patient monitors the location of a remote monitoring device and derives ambulatory event data from the monitored location.

Abstract: A system for telemetrically monitoring a patient includes a remote monitoring device associated with the patient. A location services system tracks a location of the remote monitoring device. A patient tracking computer calculates a distance and a duration of patient ambulation from the tracked location. A method of monitoring an ambulatory patient monitors the location of a remote monitoring device and derives ambulatory event data from the monitored location.

Abstract: The system and method of the present application includes a wireless transmitter adapted to receive physiological signals from a patient and to wirelessly transmit the physiological signals to a receiver, where a display device prepares the physiological signal for display on a display monitor. In one embodiment, both the wireless transmitter and receiver further include an estimation algorithm module. The estimation algorithm module in each of the wireless transmitter and the receiver calculate a physiological signal based on a collected signal. The system displays the calculated, estimated signal unless the error of the estimated signal reaches a predetermined threshold. When the estimated signal is being displayed, no transmission from the wireless transmitter is necessary.

Abstract: The present application includes a system and method that provisions at least two (2) receivers in a topology that allows each receiver to acquire wireless communication signals through different diverse antenna fields. Each receiver acquires the signal, and demodulates, decodes and sends data to the data terminal component. The data terminal component resolves packet alignment issues and selects the best data. This improves system reliability and reduces the system susceptibility to data corruption or loss of data due to signal fading that might occur on a single antenna field. Provisioning a wireless system in this manner reduces the likelihood that the same fading phenomena, resulting from either multipath and/or shadowing affects, impair signal reception causing data dropout or loss of data.

Abstract: The present application includes a system and method that provisions at least two (2) receivers in a topology that allows each receiver to acquire wireless communication signals through different diverse antenna fields. Each receiver acquires the signal, and demodulates, decodes and sends data to the data terminal component. The data terminal component resolves packet alignment issues and selects the best data. This improves system reliability and reduces the system susceptibility to data corruption or loss of data due to signal fading that might occur on a single antenna field. Provisioning a wireless system in this manner reduces the likelihood that the same fading phenomena, resulting from either multipath and/or shadowing affects, impair signal reception causing data dropout or loss of data.

Abstract: The system and method of the present application includes a wireless transmitter adapted to receive physiological signals from a patient and to wirelessly transmit the physiological signals to a receiver, where a display device prepares the physiological signal for display on a display monitor. In one embodiment, both the wireless transmitter and receiver further include an estimation algorithm module. The estimation algorithm module in each of the wireless transmitter and the receiver calculate a physiological signal based on a collected signal. The system displays the calculated, estimated signal unless the error of the estimated signal reaches a predetermined threshold. When the estimated signal is being displayed, no transmission from the wireless transmitter is necessary.

Abstract: A system for telemetrically monitoring a patient includes a remote monitoring device associated with the patient. A location services system tracks a location of the remote monitoring device. A patient tracking computer calculates a distance and a duration of patient ambulation from the tracked location. A method of monitoring an ambulatory patient monitors the location of a remote monitoring device and derives ambulatory event data from the monitored location.

Abstract: A system and method for wireless communication. The system can include a transmitter that transmits a data signal having a time period without data transmission. The system can also include a receiver including a first antenna, a second antenna, a switch that activates one of the first antenna and the second antenna, and a processor that estimates a first signal-to-noise ratio for the first antenna and a second signal-to-noise ratio for the second antenna during the time period without data transmission. The processor can control the switch to select one of the first antenna and the second antenna based on a comparison between the first signal-to-noise ratio and the second signal-to-noise ratio.

Abstract: A communication system is presented. The system includes one or more transmitters configured to transmit a signal, where each of the signals generated by the one or more transmitters corresponds to a respective frequency. Further, the system includes a plurality of receiver front-ends configured to receive the signal transmitted by each of the one or more transmitters. The system also includes a plurality of remodulator modules configured to translate each of the received signals to a signal having a respective intermediate frequency. In addition, the system includes a combining module configured to combine each of the signals having respective intermediate frequencies to generate a single composite signal. Also, the system includes a single analog-to-digital converter configured to process the composite signal and generate a digital output. Additionally, the system includes a digital signal processor module configured to extract the signal transmitted by each of the one or more transmitters.

Abstract: A system and method for wireless communication. The system can include a transmitter that transmits a data signal having a time period without data transmission. The system can also include a receiver including a first antenna, a second antenna, a switch that activates one of the first antenna and the second antenna, and a processor that estimates a first signal-to-noise ratio for the first antenna and a second signal-to-noise ratio for the second antenna during the time period without data transmission. The processor can control the switch to select one of the first antenna and the second antenna based on a comparison between the first signal-to-noise ratio and the second signal-to-noise ratio.