Abstract: The present invention relates to a system for guiding a medical instrument in a patient body. Such a system comprises means for acquiring a 2D X-ray image of said medical instrument, means for acquiring a 3D ultrasound data set of said medical instrument using an ultrasound probe, means for localizing said ultrasound probe in a referential of said X-ray acquisition means, means for selecting a region of interest around said medical instrument within the 3D ultrasound data set and means for generating a bimodal representation of said medical instrument detection by combining said 2D X-ray image and said 3D ultrasound data set. A bimodal representation is generated on the basis of the 2D X-ray image by replacing the X-ray intensity value of points belonging to said region of interest by the ultrasound intensity value of the corresponding point in the 3D ultrasound data set.

Abstract: A system for measuring distances includes a display for displaying a three-dimensional (3D) ultrasound dataset, a user interface for translating a slice plane through the 3D ultrasound dataset to define a first image plane at a first location and a second image plane at a second different location, and a processor for automatically determining a distance between the first and second image planes. A method of measuring distances and a non-transitory computer readable medium are also described herein.

Abstract: Systems and methods for ultrasound image rendering are provided. One system includes a user interface having a display configured to display ultrasound images for a volume data set and a content detection module configured to detect an object within the volume data set. The system also includes an image-processing module configured to receive ultrasound signals from a diagnostic probe and process the signals to generate the ultrasound images. The image-processing module is further configured to locally change an opacity function of the displayed ultrasound image based on the detected object to change an opacity of a subset of voxels in the volume data set.

Abstract: An ultrasound imaging system and method include acquiring first ultrasound data, the first ultrasound data comprising data of a first plane through a structure of interest. The ultrasound imaging system and method include tracking the motion of a landmark based on the first ultrasound data. The ultrasound imaging system and method acquiring second ultrasound data, the second ultrasound data including data of a second plane through the structure of interest, the second plane being distinct from the first plane, where the position of the second plane is adjusted to track the motion of the landmark. The ultrasound imaging system and method also includes generating an image based on the second ultrasound data.

Abstract: An ultrasound imaging system and method includes acquiring data including a first plane and a second plane. The system and method includes adjusting a first orientation of the first plane and automatically adjusting a second orientation of the second plane in order to maintain a fixed relationship between the second plane and the first plane.

Abstract: Image processing system for displaying information relating to the amplitude of displacements of wall regions of a deformable 3-D object under study, comprising acquisition means to acquire an image sequence of the simplified 3D object wall; and processing means to process the image data for defining region(s) of interest on the simplified 3D object wall, and computing the maximal amplitudes of displacement of said region(s) of interest over a period of time; constructing two 2D simplified representations (bull's eye representations) of the 3D simplified object wall with projection of the region(s) of interest in respective segments of said 2D simplified representations, respectively denoted by 2D simplified amplitude and phase representations; and further comprising display means to display color coded indications of the maximal amplitudes of displacements of the region(s) of interest over a period of time in the respective segments of the 2D simplified amplitude representation; and the display of color code

Abstract: The invention relates to the use of a composition comprising at least one volatile molecule specific to the estrus of cows in order to improve the reproductive function of a bull. In particular, the composition according to the invention makes it possible to act on the libido of the bull, but also on the production of semen by the bull. Preferably, the composition used comprises at least one molecule from among coumarin, squalene, 6-amino undecane, 2-butanone, 9-octadecenoic acid and 1,2-dichloroethylene.

Abstract: An ultrasound imaging system and method include displaying a first sequence of images generated from first ultrasound data, where the first ultrasound data includes volumetric ultrasound data. The system and method include selecting an acquisition target from the first sequence of images and automatically configuring an acquisition parameter based on the selected acquisition target. The system and method include implementing the acquisition parameter to acquire second ultrasound data of the acquisition target. The system and method include displaying a second sequence of images generated from the second ultrasound data, wherein the second sequence of images is of a higher frame rate than the first sequence of images.

Abstract: A system and method are provided for determining at least one torsion angle of a left ventricle. The method includes the steps of collecting three-dimensional ultrasound data of the left ventricle (36) to obtain at least one first two-dimensional view and at least one second two-dimensional view thereof, wherein the first two-dimensional view is obtained at about the beginning of a cardiac phase and the second two-dimensional view is obtained at about the end of the cardiac phase, placing at least two tracking points (40, 42) on the at least one first two-dimensional view to draw a first torsion line (44), tracking the at least two tracking points to extrapolate the position thereof on the at least one second two-dimensional view and to draw a second torsion line (46), and calculating the at least one torsion angle by measuring an angle (A) formed by the intersection of the first and second torsion lines (44, 46).

Abstract: A system for measuring distances includes a display for displaying a three-dimensional (3D) ultrasound dataset, a user interface for translating a slice plane through the 3D ultrasound dataset to define a first image plane at a first location and a second image plane at a second different location, and a processor for automatically determining a distance between the first and second image planes. A method of measuring distances and a non-transitory computer readable medium are also described herein.

Abstract: An ultrasound imaging system and method include acquiring first ultrasound data, the first ultrasound data comprising data of a first plane through a structure of interest. The ultrasound imaging system and method include tracking the motion of a landmark based on the first ultrasound data. The ultrasound imaging system and method acquiring second ultrasound data, the second ultrasound data including data of a second plane through the structure of interest, the second plane being distinct from the first plane, where the position of the second plane is adjusted to track the motion of the landmark. The ultrasound imaging system and method also includes generating an image based on the second ultrasound data.

Abstract: The present invention relates to an ultrasonic imaging system for evaluating and displaying a deformation of a body organ. A sequence of image data sets comprising at least a first image data set and a second image data set of echographic data is acquired. A motion vector field is calculated between image points of the second image data set and image points of the first image data set. A reference point is chosen within or outside the first and second image data sets. A first scanline is defined, which comprises said reference point. A motion vector of an image point is projected onto the defined first scanline, which provides a projected tissue velocity along the first scanline. The projected tissue velocity is used for evaluating a ID component of a deformation of the body organ at the image point along the direction of the first scanline.

Abstract: An ultrasound imaging system and method include generating an image from ultrasound data of an anatomical structure and fitting a model to the image, the model including a standard view of the anatomical structure. The system and method include calculating a quality-of-fit of the image to the model. The system and method include displaying an indicator based on the quality-of-fit of the image to the model.

Abstract: An ultrasound imaging system and method include acquiring ultrasound data of an anatomical structure, generating a live image based on the ultrasound data, and displaying the live image. The system and method include displaying a target image of the anatomical structure. The system and method include comparing the live image to the target image.

Abstract: In an ultrasound imaging system (UIS), an image capturing arrangement (ICA) captures a sequence of ultrasound images (IMS) of a body (BDY) while an object (NDL) is introduced into the body. A displacement detector (DD) generates a map of displacement indications (DM) from the sequence of ultrasound images. A displacement indication relates to a particular portion of the body and indicates a displacement that the portion has undergone. An object locator (OL) provides an indication (OLI) relating to the location of the object in the body on the basis of the map of displacement indications.

Abstract: Elasticity variation within biological tissue is often correlated with its pathology. Variation of elasticity can be assessed by specific ultrasound acquisition sequences during which pressure is applied. The tissue motion and deformation during those sequences is correlated to the tissue stiffness. The present invention describes a hybrid method that combines a real-time monitoring mode during acquisition and a non-real-time fine analysis after acquisition. This method allows early identification and fair assessment of pathology from elastographic analysis to obtain the best possible result for elastography assessment.

Abstract: The invention relates to an ultrasound images acquisition system. First, a first sequence of ultrasound images (I1) of an organ (LV) is acquired at a first image rate (IR1). Then a second sequence of ultrasound three-dimensional images (I3D—1) of a sub-volume (S_V1) covering a part of interest (RI/VI) in the first sequence (I1) is acquired at a second image rate (IR2) and a third sequence of ultrasound three-dimensional images (I3D—2) of a reference sub-volume (S_V0) is acquired at the second image rate (IR2). Finally the second and third sequences of three-dimensional images sequences (I3D—1, I3D—2) are compared.

Abstract: The invention relates to a medical imaging system. First, a sequence of images (SQ) of an organ (HRT) is acquired. Then, a region of tissue (PT) on said sequence of images and a parameter (P) characteristic of the motion of said region of tissue (PT) are defined. A set of phases (PH) characteristic of a cardiac cycle based on said parameter (P) is then defined. Finally, a local myocardial performance index (LMPI) for said region of tissue (PTR) based on said set of phases (PH) is computed.

Abstract: The invention relates to a structure usable in electronic, optical or optoelectronic engineering which comprises a substantially crystalline layer made of an alloy consisting of at least one element of the column II of the periodic elements system and/or at least one element of the column IV of the periodic elements system and of N2 (said alloy being noted N-IV-N2), wherein said structure also comprises an InN layer. A method for producing an indium nitride layer, a substrate forming plate and the use thereof for indium nitride growth are also disclosed.

Abstract: The present invention relates to an ultrasonic imaging system for evaluating and displaying a deformation of a body organ. A sequence of image data sets comprising at least a first image data set and a second image data set of echographic data is acquired. A motion vector field is calculated between image points of the second image data set and image points of the first image data set. A reference point is chosen within or outside the first and second image data sets. A first scanline is defined, which comprises said reference point. A motion vector of an image point is projected onto the defined first scanline, which provides a projected tissue velocity along the first scanline. The projected tissue velocity is used for evaluating a ID component of a deformation of the body organ at the image point along the direction of the first scanline.