Fresenius Medical Care Deutschland Gmbh

Fresenius Medical Care Holdings, Inc.

Unicyte Ev Ag

Dejan Nikolic

Alexander Heide

Arne Peters

Christoph Wiktor

Dacey John Ryan

Massimo Earl Fini

Manfred Weis

Martin Lauer

Lynn E Jensen

Joachim Manke

Juergen Haecker

Soeren Gronau

Goetz Guenther

Juergen Klewinghaus

Reinhold Reiter

Joachim Noack

Peter Scheunert

Jiunn Teo

Jürgen Häcker

Alain Veneroni

Elke Schulte

Stefan Kreber

Klaus Balschat

Andreas Wuepper

Tommy Huang

Klaus Metzner

Lothar Leick

Petra Abel

Berthold Breitkopf

Götz Günther

Davide Maria Benelli

Marina Wenke

Franz-Wilhelm Koerdt

Sören Gronau

André Buelau

Christoph König

Brad Yang

Christoph Koenig

Klaus Sauer

Alexander Kühn

Marcus Hartmann

Alexander Kuhn

Jonathan Seybold

Juergen Keck

Daniel Juric

Karl-Peter Fritz

Christoph Konig

Kerstin Glaeser

Dzhuney Terzi

Hendrik Therre

Michele Marini

Mario Konegger

Jurgen Keck

Andre Bulau

Kerstin Glaser

Deepanshu Sodhani

Martin Busen

Sascha Gros-Hardt

Fiete Bohning

The present disclosure relates to a medical pump drive comprising a pump housing and a pump motor provided in the pump housing. The pump drive also includes a rechargeable voltage source for storing electrical energy, or a rechargeable battery, for a voltage supply of the pump motor and a magnetic section for magnetically coupling of further pump sections, and/or for magnetically driving of elements, in particular a magnetically driven pump rotor. The pump also includes an electronic controller. The disclosure further relates to a pump, an induction charging station, a tube set, and a blood treatment apparatus.

Medical pump drive, pump and medical treatment apparatus

The present invention relates to a flow sensor for measuring a flow difference having at least two measurement chambers through which fluid is conductible; at least one means for producing a magnetic field for charge separation in a fluid flowing through the at least two measurement chambers; and at least one means for measuring an electric potential in the fluid flowing through the at least two measurement chambers, with the at least two measurement chambers being arranged such that they are run through by the same magnetic field line of the magnetic field for charge separation.

Flow sensor and method of measuring a flow

Dialyzer systems can consolidate multiple technologies and functionalities of blood treatment systems in a significantly integrated fashion. For example, this disclosure describes dialyzer systems that include a magnetically driven and magnetically levitating pump rotor integrated into the dialyzer. Such a dialyzer can be used with treatment modules that include a magnetic field-generating pump drive unit. In some embodiments, the dialyzers include pressure sensor chambers with flexible membranes with which corresponding pressure transducers of the treatment modules can interface to detect arterial and/or venous pressures.

Blood treatment systems

A filter module provides biotechnological filtration possibilities lessening the danger of contamination while achieving an optimum flow profile. The filter moduleincludes filter housinga filter with a bundle of hollow fibresand a centrifugal pump rotorThe filter is arranged in the filter housingsuch that the centrifugal pump rotorforces a biotechnological liquid into the interior of the hollow fibresvia an inlet flow path where liquid enters the filter module perpendicular to a longitudinal axis of the filter, flows into a hollow centre of the centrifugal pump rotor and is thereafter deflected to flow parallel to the longitudinal axis of the filter before entering the hollow fibers of the filter flowing parallel to the longitudinal axis. A filtration deviceincludes filter moduleand a drive unit for magnetically driving the centrifugal pump rotor

Use of a filter module for filtering a biotechnical liquid and filter module for the filtration of a biotechnical liquid

The present disclosure relates to a medical device with respectively at least one hard part with fluid paths for guiding a medical fluid, for example, blood, through the hard part. The medical device also includes a converter and a device for determining a characteristic of the device. The converter is arranged to measure the characteristic of the fluid, while the fluid is present in one of the fluid paths. The characteristic may be geometric characteristic, for example, a fluid path.

Device including a device for determining a characteristic of the device

The invention relates to a medical device comprising a printable electrical component (), the printable electrical component () comprising a plastic substrate (L) wherein at least electrical component (E) is applied to the plastic substrate, wherein the electrical component (E) comprises a dried conductive ink, wherein the plastic substrate is selected from the group comprising polycarbonate, cycloolefin copolymers, polymethylacrylate, polypropylene and wherein the dried conductive ink comprise silver and/or gold, wherein the electrical component (E) comprises feather-like and/or meander-like and/or spiral-shaped sections, whereby the medical device further comprises a fluid line, wherein the printable electrical component is located on the outside of the fluid line. The invention also relates to a medical device comprising a printable electrical component () the printable electrical component () comprising a plastic substrate (L), wherein at least one electrical component (E) is applied to the plastic substrate, wherein the electrical component (E) comprises a dried conductive ink, wherein the plastic substrate is selected from a group comprising polycarbonate, cycloolefin copolymers, polymethyl-methacrylate, polypropylene and wherein the dried, conductive ink comprises silver and/or gold, wherein the electrical component (E) comprises at least one conductor section or at least two electrodes, characterized in that the electrical component (E) is part of an expansion sensor and/or a pressure sensor and/or a thermal flow sensor.

Printable electrical component comprising a plastic substrate

This disclosure relates to a medical device including, a hard part, a converter, and a conductive path. The hard part has fluid paths for guiding a medical fluid, in particular blood, through the hard part. The converter is arranged to measure a characteristic of the medical fluid while the fluid is present in one of the fluid paths. At least a first section of the converter or of the conductive path is applied to or superimposed on the hard part by a first additive application method. At least a second section of the converter or of the conductive path is applied to the hard part by a second application method. The first and the second additive application methods differ from each other.

Medical device with additively applied converter including a conductive path

This disclosure relates to a medical device including a hard part and a converter. The hard part has fluid paths for conducting a medical fluid through the hard part. The converter is arranged to measure a characteristic of the medical fluid while the medical fluid is present in one of the fluid paths. At least a section of the converter is applied or superimposed to the hard part by at least one additive application method.

Medical device with an additively applied converter

This disclosure relates to a method for determining a fluid balance between a first volume flow in a first section of a fluid circuit and a second volume flow of a second section of the fluid circuit. The method may also include adjusting, assuming or detecting a first temperature in the first section of the fluid circuit and a second temperature in the second section of the fluid circuit, or detecting a temperature difference between the first and the second sections. The method may also include detecting a second volume flow in a second section of the fluid circuit and forming a balance from at least the first volume flow and a corrected value of the second volume flow. The corrected value is determined from the detected second volume flow and the second temperature and/or the temperature difference.

Balancing method and balancing unit being independent of temperature disturbance

The invention relates to a medical treatment apparatus comprising a tube set, a peristaltic pumpfor conveying fluid, and a monitoring apparatusfor monitoring the occlusion of the positive displacement elementsA,B of the peristaltic pump. In addition, the invention relates to a tube setfor a medical treatment apparatus, and to a method for monitoring the occlusion of the occlusion elements of a peristaltic pump for conveying a fluid for a medical treatment apparatus. The invention is based on the fact that the occlusion of the positive displacement elementsA,B of the peristaltic pumpis monitored in order to monitor the fluid flow in the hose line. For this purpose, the electrical resistance or a variable which correlates with the electrical resistance is measured between a first and a second electrodeA,B, the first electrodeA being arranged on the hose lineupstream of the occlusion elementsof the peristaltic pumpand the second electrodebeing arranged on the hose line downstream of the occlusion elements such that an electrical contact is produced between the first and second electrodeA,B and the fluid flowing in the hose line. The electrodesA,B are preferably integral component parts of a connecting piece, by means of which the hose segmentA to be inserted into the peristaltic pumpis fixed in the form of a loop.

Medical treatment device and hose set for a medical treatment device and method for monitoring a peristaltic hose pump

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Frankfurt-am-Main, Germany

Dejan Nikolic