Abstract: A system includes at least one medical device (7), a remote monitoring server (RMS, 1) and at least one patient remote device (PR, 5). The the PR is configured to establish a first bidirectional communication connection (12, 14) of the PR and the RMS and a second bidirectional communication connection (13, 14) of the PR and one chosen medical device, wherein the PR is further configured to manage remote processes associated with the chosen medical device comprising remote interrogation of the chosen medical device and remote programming of the chosen medical device using the second bidirectional communication connection as well as data exchange with the RMS concerning interrogation data and/or program data with regard to the chosen medical device using the first bidirectional communication connection.

Abstract: A method for remote programming a therapy device for neurostimulation comprises: generating a stimulation program for the therapy device by means of a clinician programmer; transferring the stimulation program to a patient programmer; loading the stimulation program on the therapy device from the patient programmer; and increasing a stimulation amplitude of the stimulation program by means of the patient programmer. An initial stimulation amplitude setting of the stimulation program is limited to a minimal dose amplitude.

Abstract: A method for remote programming a therapy device for neurostimulation comprises: generating a stimulation program for the therapy device by means of a clinician programmer; transferring the stimulation program to a patient programmer; loading the stimulation program on the therapy device from the patient programmer; and increasing a stimulation amplitude of the stimulation program by means of the patient programmer. An initial stimulation amplitude setting of the stimulation program is limited to a minimal dose amplitude.

Abstract: An implantable medical device contains a hermetic battery. The hermetic battery contains a hermetically sealed battery housing defining an internal chamber, an electrochemical cell disposed within the internal chamber, and an electronic module disposed within the internal chamber. The electronic module is electrically conductively connected to the electrochemical cell, and the electronic module is arranged in the electrochemical cell.

Abstract: A system includes at least one medical device (7), a remote monitoring server (RMS, 1) and at least one patient remote device (PR, 5). The the PR is configured to establish a first bidirectional communication connection (12, 14) of the PR and the RMS and a second bidirectional communication connection (13, 14) of the PR and one chosen medical device, wherein the PR is further configured to manage remote processes associated with the chosen medical device comprising remote interrogation of the chosen medical device and remote programming of the chosen medical device using the second bidirectional communication connection as well as data exchange with the RMS concerning interrogation data and/or program data with regard to the chosen medical device using the first bidirectional communication connection.

Abstract: A header for an implantable medical device includes at least an antenna and a receptacle for receiving a signal transmission line. Either one or a combination of the antenna and the receptacle are encased in a dielectric material. The dielectric material can be one of or include one of a polymer, a ceramic material, polyoxymethylene, polysulfone, polybutylene terephthalate. A medical device and a method for assembling a medical device are also provided.

Abstract: A method for remote programming a therapy device for neurostimulation comprises: generating a stimulation program for the therapy device by means of a clinician programmer; transferring the stimulation program to a patient programmer; loading the stimulation program on the therapy device from the patient programmer; and increasing a stimulation amplitude of the stimulation program by means of the patient programmer. An initial stimulation amplitude setting of the stimulation program is limited to a minimal dose amplitude.

Abstract: An implantable medical device contains a hermetic battery. The hermetic battery contains a hermetically sealed battery housing defining an internal chamber, an electrochemical cell disposed within the internal chamber, and an electronic module disposed within the internal chamber. The electronic module is electrically conductively connected to the electrochemical cell, and the electronic module is arranged in the electrochemical cell.

Abstract: A header for an implantable medical device includes at least an antenna and a receptacle for receiving a signal transmission line. Either one or a combination of the antenna and the receptacle are encased in a dielectric material. The dielectric material can be one of or include one of a polymer, a ceramic material, polyoxymethylene, polysulfone, polybutylene terephthalate. A medical device and a method for assembling a medical device are also provided.

Abstract: A pacing system, which is particularly suitable for implantable leadless pacemakers, applies passively-balanced voltage-based pacing pulses, and periodically performs capture verification (evoked response detection) by following a pacing pulse with a current-based active balancing pulse, and then measuring any evoked response provoked by the pacing pulse. The active balancing pulse reduces residual charge on the electrodes used for pulsing, and thereby reduces polarization artifacts that could obscure measurement of the evoked response at the electrodes. The amplitude and pulse width of the active balancing current pulse are defined by measurements made in a few preceding pulses. The pacemaker preferably detects indicia of cardiac contractility, and performs capture verification only when contractility indicates that the patient is physically inactive and emotionally stable.

Abstract: An implantable pulse generator configured to deliver first and second stimulation pulse trains wherein the first and second trains are delivered simultaneously, are delivered at different frequencies, and are each biphasic, including a stimulation phase followed by a balancing phase.

Abstract: An external device and a medical device communicate wirelessly with each other. In order to provide for a reliable and low-power method and system providing secure communication between a medical device, in particular an implant, and an external device, the external device has a sound signal transmitter and the medical device has a sound signal receiver. The medical device is configured such that if the sound signal receiver of the medical device detects a predetermined sound signal sent by the sound signal transmitter of the external device, the medical device activates a predetermined operating sequence with a wireless data transmission between the medical device and the external device. There is also described a novel medical device, a novel method for operating a medical device using an external device, and a novel computer program product for operating a medical device using an external device.

Abstract: An implantable stimulation system includes a pulse generator having at least one implantable lead (200) with a proximal end (301) electrically connected to the pulse generator, and a distal end bearing at least one stimulation electrode (201.1, 201.2) electrically connected to the proximal end (301), and thus to the pulse generator. The distal end of the lead (200) includes at least one expandable member (202) configured to laterally extend from the lead (200) in its expanded state, and that carries the stimulation electrode(s) (201.1, 201.2).

Abstract: A pacing system, which is particularly suitable for implantable leadless pacemakers, applies passively-balanced voltage-based pacing pulses, and periodically performs capture verification (evoked response detection) by following a pacing pulse with a current-based active balancing pulse, and then measuring any evoked response provoked by the pacing pulse. The active balancing pulse reduces residual charge on the electrodes used for pulsing, and thereby reduces polarization artifacts that could obscure measurement of the evoked response at the electrodes. The amplitude and pulse width of the active balancing current pulse are defined by measurements made in a few preceding pulses. The pacemaker preferably detects indicia of cardiac contractility, and performs capture verification only when contractility indicates that the patient is physically inactive and emotionally stable.

Abstract: An implantable pulse generator system includes a stimulation unit delivering vagal nerve stimulation pulses, an activity sensor determining an exertion level of the user and generating a signal representing metabolic demand, an autonomic tone sensor determining an autonomic status of the user and generating a signal representing autonomic status, and a control unit in communication with the foregoing components, and which is adapted to control the stimulation unit depending on both the signal representing metabolic demand and the signal representing autonomic status.

Abstract: An implantable stimulation system includes a pulse generator having at least one implantable lead (200) with a proximal end (301) electrically connected to the pulse generator, and a distal end bearing at least one stimulation electrode (201.1, 201.2) electrically connected to the proximal end (301), and thus to the pulse generator. The distal end of the lead (200) includes at least one expandable member (202) configured to laterally extend from the lead (200) in its expanded state, and that carries the stimulation electrode(s) (201.1, 201.2).

Abstract: An implantable pulse generator system includes a stimulation unit delivering vagal nerve stimulation pulses, an activity sensor determining an exertion level of the user and generating a signal representing metabolic demand, an autonomic tone sensor determining an autonomic status of the user and generating a signal representing autonomic status, and a control unit in communication with the foregoing components, and which is adapted to control the stimulation unit depending on both the signal representing metabolic demand and the signal representing autonomic status.

Abstract: A portable holder for a monitor is taught, whereby a flat-panel monitor can be suspended in a portable holder from a ceiling or from a vertical object. The holder comprises a body, a mechanism for holding a monitor and the body together, a stem with a ball-type terminus, an optional attachment, and a mechanism for suspending the monitor holder from a ceiling, using the stem, or a vertical object, using the optional attachment.

Abstract: A portable easily transportable computer classroom having a plurality of separate areas, each area having a pair of computer desks and electrical outlets for providing lighting, heat, air conditioning and powering the computers installed at the desks when hooked up to a remote source of electricity, such as a school site. The classroom can thus be used by a school not having resources or space to afford the computer equipment or a separate computer classroom.