Patent classifications
A61M60/465
NOVEL NANOTECHNOLOGY-DRIVEN PROTOTYPES FOR AI-ENRICHED BIOCOMPATIBLE PROSTHETICS FOLLOWING EITHER RISK OF ORGAN FAILURE OR MODERATE TO SEVERE IMPAIRMENT
Three groups of biocompatible implants were created, to leverage physiological impairment caused by (i) cardiovascular, (ii) renal, and (iii) neuronal diseases. Each group of implants is subdivided into three categories according to extra functionality added plus integrated additions. The first generation contains basic functionality and the second and third generations contain extra functions. Finally, further additions can be combined and integrated. Therefore, the first group comprises of the “First Generation of Cardiovascular Implants” plus the “Second Generation of Cardiovascular Implants” plus the “Third Generation of Cardiovascular Implants” plus additional integrations named “Additions”. Equally, the second group comprises of the “First”, the “Second” and the “Third” Generation of Renal Prosthetics plus Additions. The same categorisation applies to Neural Implants, which are three generations plus additions. This can be found in the description of claims presented in the Austrian Prio (provisional patent application) number A 60273/2019, from 11 Dec. 2019.
IMPLANTABLE CARDIAC VALVE IMPROVEMENT DEVICE AND PROCEDURE FOR TREATING INSUFFICIENT CLOSING OF A CARDIAC VALVE
An implantable medical device for transcatheter delivery, which includes an anchor unit (100) configured to be anchored at an annulus of a cardiac valve of a patient, at least one coupling unit (200) that extends along a first length radially from said anchor unit (100) towards a coaptation line of said valve and including an extension unit (400) extending along a second length. The extension unit (400) is configured to cross between the leaflets of the cardiac valve in order to fill out for an insufficient closing of the valve leaflets of said cardiac valve.
IMPLANTABLE CARDIAC VALVE IMPROVEMENT DEVICE AND PROCEDURE FOR TREATING INSUFFICIENT CLOSING OF A CARDIAC VALVE
An implantable medical device for transcatheter delivery, which includes an anchor unit (100) configured to be anchored at an annulus of a cardiac valve of a patient, at least one coupling unit (200) that extends along a first length radially from said anchor unit (100) towards a coaptation line of said valve and including an extension unit (400) extending along a second length. The extension unit (400) is configured to cross between the leaflets of the cardiac valve in order to fill out for an insufficient closing of the valve leaflets of said cardiac valve.
IMPLANTABLE CARDIAC VALVE IMPROVEMENT DEVICE AND PROCEDURE FOR TREATING INSUFFICIENT CLOSING OF A CARDIAC VALVE
An implantable medical device for transcatheter delivery, which includes an anchor unit (100) configured to be anchored at an annulus of a cardiac valve of a patient, at least one coupling unit (200) that extends along a first length radially from said anchor unit (100) towards a coaptation line of said valve and including an extension unit (400) extending along a second length. The extension unit (400) is configured to cross between the leaflets of the cardiac valve in order to fill out for an insufficient closing of the valve leaflets of said cardiac valve.
MECHANICAL CIRCULATORY SUPPORT SYSTEM WITH INSERTION TOOL
- Marvin Mitze ,
- Hans Christof ,
- Vladimir Popov ,
- Martin Schwarz ,
- Leon Wenning ,
- Johannes Bette ,
- Attila Fabiunke ,
- Julian Görries ,
- Jan Schöfer ,
- Valentin Rex ,
- Johannes Berner ,
- Johannes Ferch ,
- Hans-Baldung Luley ,
- Tom Döhring ,
- Jens Burghaus ,
- Inga Schellenberg ,
- Hardy Baumbach ,
- Annika Bach ,
- Ingo Stotz ,
- Julian Kassel ,
- Armin Schuelke ,
- Stefan Henneck ,
- David Minzenmay ,
- Thomas Alexander Schlebusch ,
- Tobias Schmid ,
- Tjalf Pirk ,
- Martina Budde ,
- Ricardo Ehrenpfordt ,
- Marc Schmid ,
- Ahmad Mansour ,
- Niko Baeuerle ,
- Peter Wassermann ,
- Fabian Eiberger ,
- Kenneth M. Martin ,
- Thomas Friedrich ,
- Mario Heintze
A minimally invasive miniaturized percutaneous mechanical circulatory support system for transcatheter delivery of a pump to the heart that actively unloads the left ventricle by pumping blood from the left ventricle into the ascending aorta and systemic circulation. The pump may include a tubular housing, a motor, an impeller configured to be rotated by the motor. The impeller may be rotated by the motor, via a shaft with an annular polymeric seal around the shaft, or via a magnetic drive. The system may have an insertion tool having a tubular body and configured to axially movably receive the circulatory support device, and an introducer sheath configured to axially movably receive the insertion tool.
MECHANICAL CIRCULATORY SUPPORT SYSTEM WITH INSERTION TOOL
- Marvin Mitze ,
- Hans Christof ,
- Vladimir Popov ,
- Martin Schwarz ,
- Leon Wenning ,
- Johannes Bette ,
- Attila Fabiunke ,
- Julian Görries ,
- Jan Schöfer ,
- Valentin Rex ,
- Johannes Berner ,
- Johannes Ferch ,
- Hans-Baldung Luley ,
- Tom Döhring ,
- Jens Burghaus ,
- Inga Schellenberg ,
- Hardy Baumbach ,
- Annika Bach ,
- Ingo Stotz ,
- Julian Kassel ,
- Armin Schuelke ,
- Stefan Henneck ,
- David Minzenmay ,
- Thomas Alexander Schlebusch ,
- Tobias Schmid ,
- Tjalf Pirk ,
- Martina Budde ,
- Ricardo Ehrenpfordt ,
- Marc Schmid ,
- Ahmad Mansour ,
- Niko Baeuerle ,
- Peter Wassermann ,
- Fabian Eiberger ,
- Kenneth M. Martin ,
- Thomas Friedrich ,
- Mario Heintze
A minimally invasive miniaturized percutaneous mechanical circulatory support system for transcatheter delivery of a pump to the heart that actively unloads the left ventricle by pumping blood from the left ventricle into the ascending aorta and systemic circulation. The pump may include a tubular housing, a motor, an impeller configured to be rotated by the motor. The impeller may be rotated by the motor, via a shaft with an annular polymeric seal around the shaft, or via a magnetic drive. The system may have an insertion tool having a tubular body and configured to axially movably receive the circulatory support device, and an introducer sheath configured to axially movably receive the insertion tool.
IMPLANTABLE CARDIAC VALVE IMPROVEMENT DEVICE AND PROCEDURE FOR TREATING INSUFFICIENT CLOSING OF A CARDIAC VALVE
An implantable medical device for transcatheter delivery, which includes an anchor unit (100) configured to be anchored at an annulus of a cardiac valve of a patient, at least one coupling unit (200) that extends along a first length radially from said anchor unit (100) towards a coaptation line of said valve and including an extension unit (400) extending along a second length. The extension unit (400) is configured to cross between the leaflets of the cardiac valve in order to fill out for an insufficient closing of the valve leaflets of said cardiac valve.
VESSEL COMPRESSION WITH HEMODYNAMIC WAVE REFLECTION TO CONTROL VASCULAR WAVE DYNAMICS AND ENHANCE BLOOD FLOW
A system configured to be at least partially implanted along an aorta includes an inelastic, static member and a pinching member. The pinching member is configured to receive an activation signal at an activation rate and in response to the activation signal, repeatedly compress the aorta at the second location at the activation rate to pump fluid within the aorta in a desired pumping direction. The system is configured to selectively control wave reflections in order to achieve both improved wave dynamics to reduce cardiac load and increased (or at least non-diminished) blood flow to targeted organs within the cardiovascular system.
VESSEL COMPRESSION WITH HEMODYNAMIC WAVE REFLECTION TO CONTROL VASCULAR WAVE DYNAMICS AND ENHANCE BLOOD FLOW
A system configured to be at least partially implanted along an aorta includes an inelastic, static member and a pinching member. The pinching member is configured to receive an activation signal at an activation rate and in response to the activation signal, repeatedly compress the aorta at the second location at the activation rate to pump fluid within the aorta in a desired pumping direction. The system is configured to selectively control wave reflections in order to achieve both improved wave dynamics to reduce cardiac load and increased (or at least non-diminished) blood flow to targeted organs within the cardiovascular system.
IMPLANTABLE CARDIAC VALVE IMPROVEMENT DEVICE, SYSTEM AND PROCEDURE
An implantable medical device for transcatheter delivery is disclosed including: an anchor unit configured to be permanently anchored at a cardiac valve of a patient. At least one locking unit is provided for fixation of tissue of the cardiac valve and/or fixation of at least a part of a shape of the anchor unit and/or for connection to a further unit via the at least one coupling unit. The further unit is preferably a cardiac valve replacement or repair unit and/or a driving unit such as of a cardiac assist device. The device further includes at least one coupling unit of fixed permanent length or non-reversibly adjustable length before locking the coupling unit to the fixed permanent length for connecting the anchor unit to at least one of the locking unit. The coupling unit has a first end portion and a second end portion. The first end portion is connectable to the anchor unit, and the second end portion includes the locking unit.