Biotronik Crm Patent Ag

Biotronik Se Co. Kg

Joachim Elsner

Henning Ebert

Andreas Bitzer

Martin Lang

Thomas Doerr

Olaf Skerl

Thomas Dörr

Bernhard Gromotka

Carsten Hennig

Alois Pfenniger

Andre Van Ooyen

Jens Philipp

Julian Merlin

Dawn Gayle Flakne

David Kosokowsky

Richard Berthelsdorf

Sarah Biela

Gary Rolison

Björn Henrik Diem

Jörn Bungartz

Torsten Dodt

Enrico Stephan

Uwe Kamenz

Kai Hensen

André Van Ooyen

Wolfgang Gartz

Emanuel Bierschneider

Gunnar Gorecki

Jürgen KÖPPEL

Uwe STÜRMER

Andrè Van Ooyen

The invention describes an implantable pressure sensor having a housing, wherein the housing has walls and two or more pressure transfer membranes bounding an internal volume, wherein the pressure transfer membranes are not coplanar.

Implantable pressure sensor

An implantable pressure sensor device () has a housing () which is at least partially made of a pressure transmitting membrane (), and which includes one or more regions which can reversibly deform while maintaining the surface area of the membrane () when the internal volume of the housing () is changed. The housing () has a non-circular cross-section which can deform to a more circular shape when pressure in the internal volume increases. An inner housing is preferably situated within the housing, with its exterior spaced from the interior of the housing, and has its inner volume in fluid communication with the space between the housing and inner housing.

Implantable pressure sensor device

A universal programming device for individualized patient medical devices such as implants has an RF transceiver (transmitter/receiver), a control unit, and a man-machine interface (or a connection for a man-machine interface). The RF transceiver is configured to receive and transmit data in the MICS frequency band. The control unit is connected to the transceiver and has preconfigured software interfaces, such that the programming device can be expanded by addition of control software modules. The preconfigured software interfaces define a uniform interface for triggering the transceiver, which the control software modules can access. The man-machine interface, e.g., a keyboard and/or a display (and/or the connection for such a man-machine interface) is connected to the control unit.

Modular universal programming device

The invention relates to a therapy system and a therapy device having at least one data communication interface which can operate in various data transmission modes and cooperates with a data communication control unit. The data communication interface can change from one data transmission mode to another without interruption of an existing data link. The change is controlled by the data communication control unit as a function of predefined selection criteria.

Electric therapy system and therapy device

A patient device (PD) for wireless data communication with an implant. The PD can be at least in an unpaired state or a paired state. In the paired state the PD is paired to a specific implant specified by an implant's identification code (IIC). The IIC is stored in PD memory. Automatic pairing of the PD to a specific implant is performed upon receiving an incoming data packet containing an IIC when the PD is in its unpaired state with no valid IIC stored in memory. Thus, the PD is tentatively paired to an implant identified by the IIC contained in the incoming data packet by storing the IIC in the memory. Tentative pairing is cancelled if no further communication occurs within a predetermined period of time. A soft paired state is entered if further data communication does occur.

Patient device for bidirectional data communication with an implant

A method of making a wireless communication connection between a patient device and an electromedical implant as communication partners is disclosed, wherein a transmitting unit of the patient device is continually switched on and off, so that the transmitting unit is alternately in an activity phase and an activity pause and during its activity pause at least once sends a recognition signal and wherein a receiving unit of the electromedical implant is continually switched on and off so that the receiving unit is alternately in an activity phase and an activity pause and during its activity phase checks whether the transmitting unit is just then in its activity phase and sends a recognition signal, wherein switching on and off of the receiving unit is so effected that an activity phase and an activity pause of the receiving unit together give an overall duration which differs from the overall duration of an activity phase and an activity pause of the transmitting unit so that within a foreseeable period of time the activity phases of the transmitting unit and the receiving unit overlap and a wireless communication connection between the two communication partners occurs.

Communication module and method of operation thereof

Growing community of inventors

Berlin, Germany

Joachim Elsner