Biotronik Se & Co. Kg

Biotronik Crm Patent Ag

Rolls-royce Deutschland Ltd & Co Kg

Dyconex Ag

Biotronik Ag

Biotronik Se & Co Kg

Biotronik Mess- Und Therapiegeraete Gmbh & Co. Ingeniuerbuero Berlin

Thomas Doerr

Ingo Weiss

Torsten Radtke

Sergey Ershov

Michael Diebold

Martin Roemer

Torsten Oertmann

Dirk Muessig

Carsten Clemen

Rolf Klenner

Ulrich Feese

Ulrich Tietze

Gernot Kolberg

Marc Hauer

Leif Rackwitz

Peter Schneider

Erhard Flach

Volker Lang

Ulrich Busch

Stefan Paule

Andreas Neumann

Frank Becker

Joachim Reinke

Andreas Kucher

Waldemar Lazik

Sebastian Bake

Frank Tscherch

Torsten Lang

Miklos Gerendas

Alexander Borck

R Hollis Whittington

Tim Traulsen

Imon-Kalyan Bagchi

Alan Fryer

Stefan Penz

Ravi Kiran Kondama Reddy

Shayan Guhaniyogi

Joachim Elsner

Miklós Gerendás

Carsten Hennig

Georg Nollert

Thilo Dauch

Rainer Koch

Hans-Joerg Bauer

Kai Hensen

Torsten Dodt

Rainer-Michael Schmidt

Torsten Voigt

Peter Blachut

André Burch

Guenter Breithardt

Thomas Fetsch

Uwe Stuermer

Joerg Fregien

Tino Hauser

Gregory Jay Delmain

Steffen Kibbel

An implantable leadless pacemaker configured to provide antibradycardia pacing of a human or animal heart, comprising: an electrical energy source, a sensor configured to sense intracardiac potentials of the heart, a pulse generator configured to generate electrical pacing pulses, a control unit for controlling the pulse generator, wherein the control unit is configured to inhibit generation of an electrical pacing pulse when an intracardiac potential is sensed, wherein the control unit is further configured to permanently switch off the pulse generator after passing of a predetermined timespan and/or after a pre-defined event detected by the pacemaker, an electrode pole for electrical stimulation and sensing intracardiac potentials, at least one fastening element for fastening the pacemaker to heart tissue, wherein the implantable leadless pacemaker is adapted such that a lifetime of the implantable leadless pacemaker is smaller than one year, particularly smaller than one month, particularly smaller than two weeks.

Temporary implantable leadless pacemaker

The disclosure relates to an implant comprising an electronics module and an electronic component, wherein an electrical connection between the electronics module and the electronic component is formed by a straight plug-in connection. A method for producing an electrical connection between an electronics module and an electronic component of an implant is also disclosed.

Implant and method for producing an electrical connection between an electronics module and an electronic component of an implant

The present invention relates an implantable pulse generator comprising an electric circuit, wherein the electric circuit comprises: a primary energy store, at least one secondary energy store, and a control unit, wherein the control unit is configured to activate an electric switch in the electric circuit in such a way that, in a first interval of a first phase of a pulse delivery, the primary energy store is discharged via a therapeutic current path, and to activate an electric switch in the electric circuit in such a way that, in a second interval of the first phase of the pulse delivery, the secondary energy store is discharged via the therapeutic current path, wherein the primary energy store and the at least one secondary energy store are fixedly connected, or connectable, in series, and wherein the implantable pulse generator is designed to deliver a shock having an approximately rectangular pulse waveform.

Implantable pulse generator having rectangular shock waveform

An implantable medical device comprises a functional device for carrying out a therapeutic or diagnostic function, and a communication device for communicating with a remote monitoring system. The communication device, at a start of initial operation of the implantable medical device, is enabled to establish a communication with said remote monitoring system. In this way an implantable medical device is provided which allows for including the implantable medical device in a remote monitoring while reducing a risk for a patient involved with attending to the patient for activating a remote monitoring function within the implantable medical device.

System for generating an alert for a systemic infection

An implantable medical device which performs the following steps during operation: a) performing a detection of whether the implantable medical device is in an implanted state; b) if it is detected that the implantable medical device is in an implanted state, activating a first diagnostic or therapeutic function of the implantable medical device, and subsequently activating a second diagnostic or therapeutic function of the implantable medical device, wherein the second diagnostic or therapeutic function is activated only after the fulfillment of at least one activation criterion selected from the group consisting of an elapse of a first time period from the activation of the first diagnostic or therapeutic function, an elapse of a second time period from the detection that the implantable medical device is in an implanted state, and a passing of a function test.

Implantable medical device

An implantable medical device for stimulating a human or animal heart. In operation, the device performs the following steps: a) sensing an atrial electric signal a the first detection unit; b) sensing an electric signal at the His bundle with a second detection unit upon termination of a first time period starting upon sensing the atrial electric signal with the first detection unit and/or starting upon applying a stimulation pulse, wherein the first time period lies in a range of from 10 ms to 100 ms; c) classifying the electric signal sensed with the second detection unit as His bundle activity signal or as ventricular activity signal.

Implantable medical device for stimulating the His bundle of a human or animal heart employing an improved distinction between atrial and ventricular signals detected at the His bundle

The disclosure relates to an implant comprising a housing, in which there are arranged an energy store and an electronics module, wherein a feedthrough to an electrode connection device is formed on the housing, wherein a first contact forms an electrical connection between the energy store and the electronics module, wherein a second contact forms an electrical connection between the electronics module and the feedthrough, and wherein the first contact and the second contact are oriented in the same contact direction. A method for assembling an implant is also disclosed.

Implant and method for assembling an implant

An active medical device, comprising a processor, a memory unit, and at least one of an accelerometer and a detection unit configured to detect a body impedance. During operation, the active medical device carries out the following steps: a) measuring a body impedance of a patient with the detection unit during a first period of time to obtain time-dependent impedance data and calculating a power spectral density of the impedance data; b) alternatively or additionally to step a), measuring an acceleration of a body of the patient with the accelerometer during the first period of time to obtain time-dependent acceleration data and calculating a power spectral density of the acceleration data; c) identifying coughing of the patient on the basis of the calculated power spectral density if at least 1% of all values of the power spectral density have a frequency of at least 1 Hz.

Active medical device capable of identifying coughing

A device housing for an IMD is suggested, the device housing having: wherein the ratio R of maximum width (Bmax) to maximum height (Hmax), i.e., Bmax/Hmax, is between 1.05 and 1.35.

Housing for an implantable medical device

An implantable medical device for stimulating a human/animal heart having a stimulation unit which stimulates the His bundle and a detection unit which detects an electrical signal at the His bundle. The device performs: a) determining a first value of a parameter of a first measuring pulse measured between a first electrode pole and a housing; b) determining a second value of the same parameter of a second measuring pulse measured between the first electrode pole and a second electrode pole; c) comparing the first and second values; d) determining, based on the comparing step, whether the first or second measuring pulses enables a higher available level control range of the analog-to-digital converter; e) measuring an impedance in a unipolar manner between the first electrode pole and the housing or in a bipolar manner between the first electrode pole and the second electrode pole depending on the determining step.

Implantable medical device for stimulating a human or animal heart employing an automatic choice between different impedance measuring modes

An implantable system for the diagnostic and/or therapeutic treatment of a human or animal patient contains a processor, a memory, a treatment unit and a remote data transmission unit. The system is characterized in that the memory includes a computer-readable program which prompts the processor to carry out the following steps when the program is being executed on the processor: a) ascertaining whether a treatment functionality of the treatment unit could jeopardize a patient in whom the system was implanted if a diagnostic and/or therapeutic treatment of the patient corresponding to the treatment functionality were to be carried out; b) deactivating the treatment functionality when a potential risk for the patient was ascertained; c) receiving reactivation data by way of the remote data transmission unit; and d) reactivating the deactivated treatment functionality based on the received reactivation data.

Implantable system for the diagnostic and/or therapeutic treatment of a human patient or an animal patient

An implantable device for implantation in a human body or animal body. The device includes an energy source, an energy storage device, and an electronics unit. Further, an actuator is coupled with the energy storage device and it is configured to emit electromagnetic waves by discharging the energy storage device.

Device and method to activate cell structures by means of electromagnetic energy

The disclosure relates to an implant comprising an electronics module and an energy store, wherein the volume of the electronics module is less than 25% of the volume of the energy store.

Implant

An implantable system stimulates a human or animal heart. The system contains a processor, a memory unit, an atrial stimulation unit, a ventricular stimulation unit, and a detection unit for detecting atrial tachycardia. The memory unit stores a computer-readable program that prompts the processor to: a) detect by the detection unit whether atrial tachycardia to be treated is present in the heart; b) when atrial tachycardia to be treated is present, carrying out a ventricular conditioning stimulation by way of the ventricular stimulation unit; and c) applying atrial antitachycardia pacing in the form of a stimulation pulse sequence of 2 to 20 pulses or a high-frequency burst having a frequency of up to 50 Hz and a duration of up to 60 seconds by way of the atrial stimulation unit as the ventricular conditioning stimulation is being carried out and/or thereafter.

Implantable system for stimulating a human heart or an animal heart

The disclosure relates to an implant comprising an electrode connection device and a housing, wherein a cover for closing the housing is formed on the electrode connection device. A method for producing an implant is also disclosed.

Implant and method for producing an implant

Growing community of inventors

Berlin, Germany

Thomas Doerr