Abstract: The disclosure relates to an electrical trial stimulator that stores multiple applications to selectively emulate the operation of different chronically implanted stimulators. Each application corresponds to a different chronically implanted stimulator. Upon selection of a particular application, the stimulator executes a set of instructions to emulate the operation of a chronically implanted stimulator that corresponds to the application. The multi-application stimulator permits a physician to select an application for stimulation therapy, and evaluate efficacy of a particular chronically implanted stimulator. In addition, the physician may select any of the other stimulation applications to emulate other stimulators. The different stimulation applications may correspond to different stimulators that deliver a similar therapy, e.g., stimulators designed to deliver spinal cord stimulation for alleviation of chronic pain.

Abstract: An implantable medical device with a main processor also has a telemetry processor to perform some telemetry processing functions resulting under some circumstances in reducing demands on the main processor, conserving energy, increasing telemetry processing speed, and many other advantages. A wide variety of implantable medical devices can be configured with a telemetry processor including neuro stimulators, pacemakers, defibrillators, drug delivery pumps, diagnostic recorders, and cochlear implants. The telemetry processor includes control logic, a data decoder, a receive buffer, a data encoder, and a transmit buffer. Methods of receiving messages and transmitting messages with a telemetry processor are also disclosed.

Abstract: A medical system and method of establishing communication between a plurality of implantable medical devices and an external device. An identification command is sent transcutaneously to at least one of the plurality of implantable medical devices. The plurality of implantable medical devices respond to the identification command with an uplink response in one of a plurality of uplink time slots. The external device receives the uplink response from each of at least one of the plurality of implanted medical devices. The external device establishes transcutaneous communication to a selected one of the plurality of implanted medical devices based, at least in part, upon a signal strength of said uplink response of at least one of said plurality of implanted medical devices.

Abstract: A medical system and method of establishing communication between a plurality of implantable medical devices and an external device. An identification command is sent transcutaneously to at least one of the plurality of implantable medical devices. The plurality of implantable medical devices respond to the identification command with an uplink response in one of a plurality of uplink time slots. The external device receives the uplink response from each of at least one of the plurality of implanted medical devices. The external device establishes transcutaneous communication to a selected one of the plurality of implanted medical devices based, at least in part, upon an order in time of which the plurality of implanted medical devices respond with the uplink response.

Abstract: A medical system and method of establishing communication between a plurality of implantable medical devices and an external device. An identification command is sent transcutaneously to at least one of the plurality of implantable medical devices. The plurality of implantable medical devices respond to the identification command with an uplink response in one of a plurality of uplink time slots. The external device receives the uplink response from each of at least one of the plurality of implanted medical devices. The external device establishes transcutaneous communication to a selected one of the plurality of implanted medical devices based, at least in part, upon a user selection of one of said plurality of implanted medical devices.