Siemens Aktiengesellschaft

Siemens Healthcare Gmbh

Johns Hopkins University

Siemens Healthineers Ag

Other

Harvard College

Siemens Medical Solutions Usa, Inc.

Siemens Healthcare Diagnostics Products Gmbh

Nanogen, Inc.

Quality Electrodynamics (qed)

University of Michigan

Arne Hengerer

Sebastian Schmidt

Eva Rothgang

David Grodzki

Lars Lauer

Paul Arthur Bottomley

Wesley David Gilson

Jan Fritz

Rainer Schneider

Björn Heismann

Jonathan S Lewin

Clifford R Weiss

Katarzyna J Macura

Klaus Abraham-Fuchs

Bjoern Heismann

Norbert Windhab

Volker Matschl

Martin Requardt

Florian Maier

Elena Nioutsikou

Michael Kaus

Ralph Strecker

Kieran T Gallahue

Greg Gosch

Rainer Alfred Kuth

Rainer Graumann

Ralph Weissleder

Thomas Mertelmeier

Tsinghua Zheng

Bernd Schweizer

Robert Grimm

James P O'Connell

Christopher Jude Amies

Volker Schmidt

Martin Ringholz

Bernhard Roas

Christian Geppert

Matthew Finnerty

Ralph Markus Wirtz

Markus Petsch

Tilo Christ

Annemarie Hausotte

Mark-Aleksi Keller-Reichenbecher

Werner Striebel

Dirk Franger

Carsten Warmuth

Clemens Bulitta

Susanne Schmolke

Stefan Förtsch

Norbert Gläsel

Ludwig Herbst

Randy Buckner

Sven Meyburg

Stefan Zwick

Fabian Kiessling

Bogdan Von Rueckmann

Ralph Gareus

Wilhelm Dürr

Tobias Jochum

J&uuml;rgen Beuthan

James P O'Conell

Gregory Weisberg

Vikas Gulani

An instrument, a magnetic resonance imaging scanner and a method for operating the magnetic resonance imaging scanner with the instrument in which the instrument is aligned with a patient. The medical instrument comprises a first projector for projecting a luminous pointer in a predetermined alignment relative to the medical instrument. The magnetic resonance imaging scanner comprises a positioning aid configured to mark a predetermined position on an inner wall of a patient tunnel in a manner that is visible to a user. In the method, a predetermined alignment of the first projector relative to the medical instrument or position of the positioning aid on the wall of the patient tunnel is ascertained in which the luminous pointer of the first projector coincides with the positioning aid when the medical instrument is aligned parallel to a trajectory through an entry point on the patient and a target point in the patient and the medical instrument is aligned such that the luminous pointer and the positioning aid coincide.

Apparatus and method for guiding an instrument by a luminous pointer

One or more example embodiments relate to a positioning support system for positioning a medical device based on at least one medical image, the positioning support system comprising at least one channel for the medical device and configured to be pierced with the medical device, the channel configured to be at an acute first angle to a normal of a surface, the channel including a water-containing medium including at least one polymerizable component, the water-containing medium being configured to cure after being pierced with the medical device when the medical device is coated with a polymerization catalyst, wherein the positioning support system is configured to be placed on the surface, and the positioning support system permits the medical device in the water-containing medium to be depicted in the at least one medical image.

Positioning support system for positioning a medical device

The disclosure relates to an apparatus and to a method for fixing a target object in place and for orienting an instrument relative to the target object which has been fixed in place. The target object is here fixed in place by a first mask element. A second mask element is arranged on the outside thereof. By an adjusting facility, the second mask element may then be shifted relative to the first mask element, whereby the instrument retained by or passed through the second mask element is oriented.

Apparatus and method for orienting an instrument relative to a target object

In a method for synchronous magnetic resonance (MR) imaging and radiation therapy using a combined system having a radiation apparatus and an MR imaging apparatus, wherein the system is designed to record MR signals of a subject during irradiation of the subject, a three-dimensional MR volume data set of the subject is acquired that contains a target volume for the irradiation, the location of a central beam of the radiation therapy apparatus relative to the subject, is continuously determined, and a second MR image data set is determined, which is positioned essentially perpendicular to the central beam. If the location of the central beam changes, a correspondingly changed second MR image data set is determined perpendicular to the central beam.

Method and magnetic resonance apparatus for synchronous imaging and radiation therapy

A magnetic resonance system that is designed to carry out an examination of an examination object, and has an RF controller, a gradient controller and an image sequence controller, which are designed to acquire MR data of a volume portion of the examination object. An arithmetic unit of the magnetic resonance system is designed to reconstruct MR images from the acquired MR data. A standardized REST-based HTTP radio interface of the magnetic resonance system is designed to establish a standardized wireless connection to at least one external device.

Magnetic resonance apparatus with standardized radio coupling with an external device

In a method and apparatus for identifying an organ structure of an examined object in magnetic resonance image data, magnetic resonance measurement data for the organ structure of the examined object are acquired by operation of a magnetic resonance scanner using a magnetic resonance sequence that specifies a sampling scheme of k-space. Magnetic resonance image data are reconstructed from the magnetic resonance measurement data. The organ structure is identified in the magnetic resonance image data. The sampling scheme of k-space is selected so as to support the subsequent identification of the organ structure in the magnetic resonance image data reconstructed from the magnetic resonance measurement data.

Method and apparatus for identifying an organ structure of an examined object in magnetic resonance image data

Techniques are disclosed for preparing a repeat intervention on the skin of a patient. This may include acquiring first image data of an intervention region during a first intervention on the skin of the patient. At least two landmarks may be identified on the skin of the patient on the basis of the acquired first image data. A position of the first intervention is then determined with the aid of the landmarks as reference points. In addition, the position of the first intervention and of the landmarks may be stored in a data memory unit. A position of the second intervention is subsequently localized on the basis of the stored position and of the at least two landmarks.

Repositioning an intervention unit on the skin of a patient

A medical imaging apparatus is designed to acquire medical imaging data of a patient during a medical imaging examination and has a medical data acquisition scanner, which has a patient reception area at least partially enclosed by the scanner, inside of which a body area of a patient for examination is situated during the medical imaging examination. A positioning unit has a projector and at least one positioning surface situated inside the patient reception area. The projector is designed to project at least one item of anatomical information onto the at least one positioning surface inside the patient reception area.

Medical imaging apparatus with a positioning unit, and a method for determining a position on a positioning surface thereof

A method for determining a change over time in a biomarker in a region to be examined of a patient is provided. The change is determined from magnetic resonance data using a magnetic resonance measuring system with sequences and protocols for measuring the biomarkers by functional resting state connectivity by rsfMRI, perfusion values, magnetic resonance spectra of voxels, or morphometry of organs. A control unit has programs which evaluates the biomarker and a data memory which stores the results of the evaluation and additional data. During a first examination, a quantity result of the biomarkers is determined and stored in the data memory. During a follow-up examination, at least one previous item of the result and additional data from the first examination stored in the data memory are used for determining a quantitative change in the biomarker.

Method and device for determining a change over time in a biomarker in a region to be examined

In a method and magnetic resonance (MR) apparatus for monitoring a radiation therapy of a patient, first MR image data are acquired with a quantitative magnetic resonance method before an irradiation of a target area of the patient, and second MR image data are acquired with the quantitative magnetic resonance method after the irradiation of the target area of the patient. The first MR image data and the second MR image data are compared, and output information is generated on the basis of a result of the comparison.

Method and apparatus for monitoring a radiation therapy of a patient

A magnetic resonance method and system are provided for magnetic resonance (MR) image-guided insertion of an object into a biological tissue along a predetermined trajectory. The trajectory provides a path between a starting point and a target site within the tissue. Sufficiently high resolution images can be generated in real time to precisely guide the needle placement. A compressed sensing approach is used to generate the images based on minimization of a cost function, where the cost function is based on the predetermined needle path, artifact effects associated with the needle, the negligible changes in the images away from the trajectory, and the limited differences between successive images. The improved combination of spatial and temporal resolution facilitates an insertion procedure that can be continuously adjusted to accurately follow a predetermined trajectory in the tissue, without interruptions to obtain verification images.

System and method for real-time MRI-guided object navigation

Sterile RF coil arrangements for use in magnetic resonance imaging are provided. The sterile coil arrangements can be formed by spraying or coating a curable liquid onto an RF coil housing and allowing the liquid to cure or dry to form a continuous sterile layer on the coil housing. The thickness of the sterile layer can be between 100 and 1000 micrometers. The curable liquid can include an antimicrobial or antibacterial agent, such as silver ions or triclosan, to better maintain sterility of the coil arrangement. The curable liquid can be selected such that it adheres to the housing when cured and is also removable without leaving residue behind.

Sterile RF coils for MR imaging systems

In order to provide interventional access during an image-guided interventional procedure, while increasing the signal-to-noise ratio for generated images compared to a single loop coil, a local coil includes a single coil element disposed around an opening through the local coil and two coil elements positioned on opposite sides of the single coil element. The opening provides access for an interventional tool used during the image-guided interventional procedure.

MRI coil for use during an interventional procedure

The embodiments relate to a reconstructing an image of an examination object, a medical imaging apparatus, and a computer program product where a first image data record is acquired with a first imaging modality and at least one further image data record of at least one further imaging modality is provided. At least one first image is reconstructed on the basis of the first image data record using the at least one further image data record.

Reconstruction of an image on the basis of one or more imaging modalities

Growing community of inventors

Möhrendorf, Germany

Arne Hengerer