Abstract: The present disclosure involves a method of communicating with an implantable medical device. A programmer is provided. The programmer has a plurality of diversity antennas. The diversity antennas are configured to send wireless signals to the implantable medical device. A subset of the diversity antennas is selected. A communications link is established between the programmer and the implantable medical device through the selected subset of the diversity antennas. A link quality of the communications link is measured. A different subset of the diversity antennas is selected to communicate with the implantable medical device if the link quality falls below a predetermined threshold.

Abstract: The present disclosure involves a method of communicating with an implantable medical device. A programmer is provided. The programmer has a plurality of diversity antennas. The diversity antennas are configured to send wireless signals to the implantable medical device. A subset of the diversity antennas is selected. A communications link is established between the programmer and the implantable medical device through the selected subset of the diversity antennas. A link quality of the communications link is measured. A different subset of the diversity antennas is selected to communicate with the implantable medical device if the link quality falls below a predetermined threshold.

Abstract: The present disclosure involves a programmer configured to program an implanted medical device. The programmer includes a circuit board and first and second wireless communication devices located on the circuit board. The first wireless communication device is configured to operate in a first frequency band. The second wireless communication device is configured to operate in a second frequency band different from the first frequency band. The first and second wireless communication devices are each configured to communicate wirelessly with the implanted medical device. The programmer includes a first group of antennas coupled to the first wireless communication device. The antennas in the first group have first different positions on the circuit board. The programmer includes a second group of antennas coupled to the second wireless communication device. The antennas in the second group have second different positions on the circuit board.

Abstract: The present disclosure involves a programmer configured to program an implanted medical device. The programmer includes a circuit board and first and second wireless communication devices located on the circuit board. The first wireless communication device is configured to operate in a first frequency band. The second wireless communication device is configured to operate in a second frequency band different from the first frequency band. The first and second wireless communication devices are each configured to communicate wirelessly with the implanted medical device. The programmer includes a first group of antennas coupled to the first wireless communication device. The antennas in the first group have first different positions on the circuit board. The programmer includes a second group of antennas coupled to the second wireless communication device. The antennas in the second group have second different positions on the circuit board.

Abstract: Provided is a micropower impulse radar (MIR) pneumothorax detector. The detector includes a processor and a handheld MIR scanner. The handheld MIR scanner includes a device housing, an antenna located within the device housing, circuitry that generates MIR signals, and circuitry that processes received echoes of the MIR signals and provides the processed received echoes to the processor. The processor automatically determines whether a pneumothorax is present based on the processed received echoes of the MIR signals.

Abstract: A head mounted medical device for obtaining and processing EEG, EKG, and EOG/EMG signals from a wearer. The device utilizes electrodes organized into multiple electrode assemblies for ease of use and replacement, with the electrode assemblies being removably connected to the headband. The device includes processing and conditioning circuitry in the headband, the processing and conditioning including amplification, filtering, A/D conversion, and multiplexing of the analog signals generated by the electrodes, reducing noise influences and improving the handling and mobility of the device. The device connects to an external receiving device that then monitors and/or records the resulting serial, digital, and multiplexed data signal. The external device might also provide power and/or commands to the medical device.