Siemens Healthcare Gmbh

Siemens Aktiengesellschaft

Siemens Gamesa Renewable Energy A/s

Kuka Roboter Gmbh

Siemens Healthineers Ag

Kuka Deutschland Gmbh

Philip Mewes

Holger Mönnich

Peter Fischer

Rainer Alfred Kuth

Peter Mountney

Abhinav Gulhar

Gunter Müller

Michael Wiets

Lutz Blohm

Robert Divoky

Thomas Fuchs

Martin Rube

Sabine Thürauf

Gunter Mueller

Ankur Kapoor

Thomas Engel

Claus Seisenberger

Thomas Pheiffer

Aleksandar Juloski

Parmeshwar Khurd

Henrik Keller

Patrick Kugler

Michael Martens

Robert Brauweiler

Manish Sahu

Maximilian Allan

Elli Angelopoulou

Karl-Ernst Strauss

Tamäs Ujvári

Angelika Zinecker

Elizaveta Stepina

The disclosure relates to devices, systems, and methods for controlling acquisition parameters when carrying out a medical x-ray examination, wherein the device includes a lever. The lever includes a deflectably supported lever arm, which is embodied to be deflected from a rest position to a first end point, in particular a kick-down stop point, and to a second end point, by a force, in particular the force of a foot and/or the force of a hand, wherein a first value of at least one acquisition parameter of the medical x-ray examination is determined by the deflection, wherein the first value is dependent on a measure of deflection of the deflection of the lever arm from the rest position to the first end point, wherein a second value of at least one acquisition parameter of the medical x-ray examination is able to be determined by a deflection of the lever arm to the second end point, and wherein the second value is independent of the measure of deflection of the deflection of the lever arm from the rest position.

Devices, systems, and methods for controlling acquisition parameters when carrying out a medical x-ray examination

The disclosure relates to a system for tracking the position of a target object. A marker arranged on the target object and an additional control marker are tracked by a tracking device secured to the robot arm. The control marker is arranged in a known specified three-dimensional positional relationship with the tracking device. During the tracking of the position of the target object, the specified three-dimensional positional relationship between the tracking device and the control marker is measured. In the event of a difference between the measured and the real specified three-dimensional positional relationship, a corresponding signal is generated depending on the difference.

System and method for tracking the position of a target object

A method is provided for running a collision protection system for a medical operating device, which has a patient bed for a patient to be operated on, an image recording device having at least one movable image recording component for recording image data of the patient during the operation, and an assistance robot having a movable assistance component which during the operation is situated at least temporarily inside the patient and/or is coupled in terms of movement to an instrument situated inside the patient. In the method, an item of criticality information is determined which describes the criticality of possible collisions of components of the operating device and/or movements of the patient with regard to the interaction of the assistance robot with the patient. Depending upon the criticality information, when a criticality criterion indicating a raised criticality, (e.g., a criticality exceeding a threshold value), is met, a safe mode of operation of the collision protection system is activated, which meets higher safety requirements than a normal mode of operation.

Method for running a collision protection system for a medical operating device, medical operating device, computer program, and data storage medium

A method for recording image data of a moving, (e.g., cyclically moving), region of interest of a patient by a medical imaging system with an X-ray source and an X-ray detector, wherein a robotic device with a kinematic chain of moving components has a tactile connection with the patient, and wherein, the tactile connection is maintained at least for a prespecified period. The method includes acquiring measured values by sensors of the robotic device, evaluating the measured values and forwarding to the medical imaging system, wherein the evaluated measured values include information on the movement and/or position of the region of interest, and irradiation of the region of interest by the radiation source and recording of image data of the irradiated region of interest by the X-ray detector, and wherein the evaluated measured values are used to actuate the imaging system.

Method for recording image data and medical imaging system

In an embodiment, a method includes acquiring a first image data set of the patient, via an X-ray apparatus, at a first time point during the operative intervention, the first image data set including the reference structure, the anatomical structure and the reference system between the reference structure and the anatomical structure; acquiring a second image data set of the patient at a second time point, the second image data set including at least the reference structure; registering the second image data set to the first image data set. As a result of the registering of the second image data set to the first image data set, a registered second image data set is determined. Finally, an embodiment of the method includes determining the validity of the reference system by a comparison of the registered second image data set with the first image data set.

Validity of a reference system

A method of constructing a tower is provided, the method including the steps of providing an elevation mechanism including a dynamic engaging mechanism realized to engage with a tower surface, arranging a 3D printing device on the elevation means, actuating the dynamic engaging mechanism to effect a vertical elevation of the elevation mechanism, actuating the 3D printing device to deposit an essentially horizontal material layer including at least a tower body region, and repeating the steps to obtain a tower structure. A tower constructed using such a method, and a 3D tower printing apparatus, is also provided.

Method of constructing a tower

A method is for controlling a system including an imaging modality. The method includes receiving an image and/or a series of images of a portion of a patient from the imaging modality, the field of view of the image and/or of the series of images covering at least a part of an instrument; determining whether the part of the instrument is located within a defined portion of the field of view and/or in a given state selected from a plurality of first states and/or the part of the instrument executes a given movement selected from a plurality of movements; and generating a control command for performing an action depending on whether the part of the instrument is located within the defined portion of the field of view and/or the part of the instrument is in the given state and/or the part of the instrument executes the given movement.

Device and method for controlling a system comprising an imaging modality

A method is provided for controlling a robotic device, of which the end effector arranged on a kinematic chain interacts with an object, and including an ultrasound apparatus registered to the robotic device for movement capture of the object. Ultrasound image data of the object is captured. The relative movement of the object is determined on the basis of the ultrasound image data using a mathematical method. The absolute movement is determined through registration to a planning data set. Movements of the object are compensated for in the context of the interaction of the end effector of the robotic device with the object. Future movements of the object and a positioning of the end effector of the robotic device adapted thereto are predicted and the robotic device is controlled accordingly. In the calculation of the adapted positioning of the end effector of the robotic device, a temporal delay relative to the movement of the object is included.

Control method for a robotic device with an ultrasound apparatus and robotic device

A method for calibrating a medical imaging device in terms of an image acquisition geometry, a method for performing a two-dimensional-three-dimensional registration based on corresponding calibration data, and a corresponding system are provided. Multiple images of a phantom are acquired using the imaging device in different positions of the phantom. A corresponding motion of the phantom from one position to a respective next position is tracked by a tracking device to keep continuous track of a spatial relation between the phantom and the imaging device. The medical imaging device is then calibrated based on the acquired images, corresponding recorded poses of the imaging device, and the tracked motion of the phantom.

Method for calibrating a medical imaging device, method for performing a 2D-3D registration, and system including a medical imaging device

A method is disclosed for registration on setting an alignment of an instrument relative to an object during a processing or treatment of the object by the instrument. A working image is registered to a planning image. The working image is recorded in a viewing direction that is selected dependent upon relevant degrees of freedom of the instrument such that the relevant degrees of freedom are the degrees of freedom with the greater registration accuracy. In addition, a robot system is provided which is configured for carrying out the method.

Registration on setting an alignment of an instrument

A method calculates a calibration parameter for a robot tool. The method is based on the reception of an image dataset from medical imaging of an image volume via a first interface. The image volume contains a part of the robot tool and the robot tool is attached to a robot. A robot dataset is received by a second interface. The robot dataset contains a position of a movable axis of the robot during the recording of the image dataset. The position and/or orientation of a marking in the image dataset are determined by a computing unit. An image-based position and/or orientation of the tool center point of the robot tool are calculated by transforming the position and/or orientation of the marking. The calibration parameter is calculated based on the robot dataset and on the image-based position and/or orientation of the tool center point via the computing unit.

Calculating a calibration parameter for a robot tool

A method for assisting navigation of an endoscopic device using a controller with the aid of a digital image data record of an imaging examination modality is provided. The digital image data record describes an image of an object to be examined with the aid of the endoscopic device in a cavity element. A digital two-dimensional or multi-dimensional model of the object to be examined is determined based on the image data record. An operating action that predetermines a relative location of a sensor of the endoscopic device in relation to the object based on the model is received. The model is registered with the endoscopic device and/or a digital endoscopic data record supplied by the endoscopic device. An initial location of the sensor is compared with the predetermined location, and a navigation signal for navigating the endoscopic device is generated taking into account the predetermined relative location.

Method for assisting navigation of an endoscopic device

The embodiments relate to a method for operating a medical robotic device with an end effector for performing a diagnostic and/or therapeutic measure, involving predetermining at least one position to be reached by the end effector, evaluating at least two movement sequences of the medical robotic device, by which the end effector reaches the respectively predetermined at least one position, using an optimization criterion to select the movement sequence with the best evaluation result as the optimum movement sequence and implementing the optimum movement sequence, so that the respective predetermined position is reached by the end effector, in order to improve the reaching of the predetermined position.

Medical robot and operation thereof

A method is provided for operating a robotic device having a kinematic chain of movable components. The method includes: detecting respective values at least one characteristic of a plurality of the movable components by sensors arranged on the kinematic chain or in the vicinity of the kinematic chain; ascertaining a maximum value based on the detected values; comparing the ascertained maximum value with a predefined first safety limit by a controller of the robotic device; and adjusting the at least one characteristic or a further characteristic of the kinematic chain when the ascertained maximum value has a predefined relationship with the first safety limit, in order to increase the operating safety of the robotic device.

Robotic devices and methods of operating robotic devices

In order to improve depth perception for an image displayed during a laparoscopic surgery, a representation of a shadow of a tool included in the image and used in the laparoscopic surgery is identified and introduced into the image. A processor augments a three-dimensional (3D) model including a 3D representation of a surface of an object included in the image, and a representation of the tool by introducing a virtual light source into the 3D model to generate a virtual shadow within the 3D model. The processor subtracts the representation of the shadow out of the augmented 3D model and superimposes the representation of the shadow on the image to be displayed during the laparoscopic surgery.

Growing community of inventors

Nuremberg, Germany

Philip Mewes