Abstract: The invention provides a method for performing an assessment of a placenta. The method includes obtaining a 3D ultrasound image of a uterus (210) and segmenting the placenta (220). A 3D rendering (200) of the uterus is then generated, wherein the generating includes: identifying a position of the placenta within the uterus with respect to an anatomical structure such as the cervix (250); obtaining anatomical reference data relating to a potential risk associated with the position of the placenta within the uterus; and comparing the position of the placenta and the anatomical reference data. A 3D rendering of the uterus is generated that comprises a 3D rendering of the placenta, marked with an indicator that is altered based on the comparison of the position of the placenta and the anatomical reference data. The appearance of the indicator may vary according to e.g. risk type/severity.

Abstract: A computer implemented method is provided for processing a 3D fetal ultrasound image. A 3D fetal ultrasound image is obtained (either acquired or received from memory), and the spine is detected within the image. This enables a first reference axis to be defined. A second reference axis is defined perpendicular to the first reference axis, and the 3D fetal ultrasound image is updated (e.g. rotated in 3D space) using the first and second reference axes and an up/down (elevation) orientation detection. This provides a normalization of the orientation of the image, so that a machine learning approach is better able to identify landmarks within new images.

Abstract: The invention provides an ultrasound imaging method for determining complementary views of interest based on an anomalous feature identified in a region of interest of an ultrasound image. The method includes obtaining an ultrasound image of a region of interest of a subject and identifying an anomalous feature within said region. The identified anomalous feature may then be used to determine one or more available complementary ultrasound images of interest of the subject. The one or more available complementary ultrasound images may then be displayed to a user and the complementary ultrasound views to be reviewed may then be selected by the user from the displayed available complementary ultrasound images.

Abstract: The invention provides a method for guiding the acquisition of an ultrasound image. A 3D ultrasound image is acquired by an ultrasound probe at a first position and an anatomical structure is identified within the 3D ultrasound image. A target imaging plane is estimated based on the identified anatomical structure and it is determined whether the target imaging plane is present within the 3D ultrasound image. If the target imaging plane is present, a displacement between a central plane of the 3D ultrasound image and the target plane is determined. If the displacement is below a predetermined threshold, the target imaging plane is extracted and if the displacement is above the predetermined threshold, an instruction to acquire a 3D ultrasound image with the ultrasound probe at a second position, different from the first position, is generated based on the displacement. The invention further provides a method for estimating a target imaging plane.

Abstract: The invention relates to a device (1) for positioning a marker (2) in a 3D ultrasonic image volume (3), a system for positioning a marker (2) in a 3D ultrasonic image volume (3), a method for positioning a marker (2) in a 3D ultrasonic image volume (3), a computer program element for controlling such device (1) for performing such method and a computer readable medium having stored such computer program element. The device (1) comprises an image provision unit (11), a marker unit (12) and a display unit (13). The image provision unit (11) is configured to provide a 3D ultrasonic image volume (3) showing an object (4). The marker unit (12) is configured to position a marker (2) in the 3D ultrasonic image volume (3). The display unit (13) is configured to display the 3D ultrasonic image volume (3) and the marker (2) in a first imaging view (31) in a first imaging plane and in a second imaging view (32) in a second, different imaging plane.

Abstract: A computer implemented method is provided for processing a 3D fetal ultrasound image. A 3D fetal ultrasound image is obtained (either acquired or received from memory), and the spine is detected within the image. This enables a first reference axis to be defined. A second reference axis is defined perpendicular to the first reference axis, and the 3D fetal ultrasound image is updated (e.g. rotated in 3D space) using the first and second reference axes and an up/down (elevation) orientation detection. This provides a normalization of the orientation of the image, so that a machine learning approach is better able to identify landmarks within new images.

Abstract: The invention relates to a device (1) for positioning a marker (2) in a 3D ultrasonic image volume (3), a system for positioning a marker (2) in a 3D ultrasonic image volume (3), a method for positioning a marker (2) in a 3D ultrasonic image volume (3), a computer program element for controlling such device (1) for performing such method and a computer readable medium having stored such computer program element. The device (1) comprises an image provision unit (11), a marker unit (12) and a display unit (13). The image provision unit (11) is configured to provide a 3D ultrasonic image volume (3) showing an object (4). The marker unit (12) is configured to position a marker (2) in the 3D ultrasonic image volume (3). The display unit (13) is configured to display the 3D ultrasonic image volume (3) and the marker (2) in a first imaging view (31) in a first imaging plane and in a second imaging view (32) in a second, different imaging plane.

Abstract: A wheel of a rotating machine for a fluid includes blades that project on the front surface thereof. On one portion of the front surface which is at least 70% of the diametrical range that defines the blade installation area, the front surface is tangential to a cone, the tip of which is pointed forward and the vertex angle of which is between 154° and 170°. A rotating machine and a turbocompressor that includes such a wheel are described.

Abstract: A compressor housing for accommodating a compressor wheel comprises an inlet and an outlet, each being defined by a wall provided integrally with said compressor housing, wherein at least one acoustic damper element is disposed on the outside of at least one of said walls of the inlet and the outlet. Preferably, the acoustic damper element is integrally formed with the compressor housing by die casting. A compressor or a turbocharger can be equipped with the compressor housing.

Abstract: An exemplary noise damper for a compressor of a turbocharger includes a compressor housing comprising a cavity substantially adjacent a gas flow surface of a conduit to a compressed gas outlet of the compressor housing and an insert that spans the cavity and forms a wall of the cavity where the wall includes one or more openings to the cavity to thereby allow acoustic energy to be damped by the cavity. Various other exemplary technologies are also disclosed.

Abstract: A compressor housing for accommodating a compressor wheel comprises an inlet and an outlet, each being defined by a wall provided integrally with said compressor housing, wherein at least one acoustic damper element is disposed on the outside of at least one of said walls of the inlet and the outlet. Preferably, the acoustic damper element is integrally formed with the compressor housing by die casting. A compressor or a turbocharger can be equipped with the compressor housing.

Abstract: An exemplary noise damper for a compressor of a turbocharger includes a compressor housing comprising a cavity substantially adjacent a gas flow surface of a conduit to a compressed gas outlet of the compressor housing and an insert that spans the cavity and forms a wall of the cavity where the wall includes one or more openings to the cavity to thereby allow acoustic energy to be damped by the cavity. Various other exemplary technologies are also disclosed.