Abstract: A magnetic resonance imaging antenna (114) comprising one or more coil elements (115) is disclosed. The magnetic resonance imaging antenna further comprises a radio frequency system (116) coupled to the one or more coil elements. The magnetic resonance imaging antenna further comprises a gas inlet (200) configured for receiving a pressurized gas. The magnetic resonance imaging antenna further comprises a gas outlet (202) configured for venting the pressurized gas. The magnetic resonance imaging antenna further comprises an electrical generator (117) configured for converting mechanical energy resulting from passing the pressurized gas from the gas inlet to the gas outlet into electricity while in the presence of an external magnetic field. The electrical generator is configured to power the radio frequency system using the electricity.

Abstract: The invention relates to a system for reconstructing an image of an object. The system (100) comprises means (110) providing projection data acquired by an imaging unit, like a CT system, with an FOV, means (120) generating estimated image data indicative of a part of an object (20) located outside the FOV (210), means (130) estimating virtual projection data based on virtual settings of a virtual imaging unit comprising a virtual FOV, means (140) generating fused projection data by fusing the provided projection data with the virtual projection data, and means (150) reconstructing a final image. This allows basing the reconstruction on a complete set of projection information for the object and thus providing an image with a high image quality.

Abstract: The present disclosure is directed to a magnetic coupling system to improve stability at low magnetic docking forces, such as docking between a hand held device (102) and its base (104), where the hand held device and the base each contain a magnet (112, 108) with the same direction of polarity, arranged so that the two magnets attract each other when the hand held device is docked to the base. An auxiliary magnet (114) is included in the magnetic coupling system. In one example, the auxiliary magnet may be arranged within the hand held device at a predetermined distance from the other magnet within the hand held device and is arranged with polarity in the opposite directions as the other two magnets. In another example, the auxiliary magnet may be arranged within the base at a predetermined distance from the other magnet within the base and is arranged with polarity in the opposite direction as the other two magnets.

Abstract: The invention provides a beverage maker comprising a pressure-controlled switching valve (1) that comprises the following components: a valve body (20) comprising an internal switching space (21); a switching device (40) being movably arranged in the internal switching space (21) and comprising two functional valve members (41, 42) that are arranged and configured to seal respective fluid outlet openings (23, 24) of the valve body (20) in respective positions of the switching device (40); a position setting device (30) for displacing the switching device (40) under the influence of fluid pressure acting on the position setting device (30) at one side thereof; and a biasing mechanism (70) acting on the entirety of the switching device (40) and the position setting device (30) coupled thereto. One side of at least a functional portion (31) of the position setting device (30) is open to a conduit system of the beverage maker.

Abstract: A single breast pump device (1) is adapted to enable realization of at least two batches (A, B) of breast milk as a direct result of a single pumping session to be performed on at least one user's breast, which batches (A, B) are different as far as the value of at least one quality parameter of the breast milk is concerned. The single breast pump device (1) comprises a detection unit (50) for performing real-time detection of the at least one quality parameter in a flow of breast milk and outputting a detection signal representing an actual value of the at least one quality parameter, and further comprises a controller (70) for receiving the detection signal from the detection unit (50) and using the signal in a process of determining an appropriate setting of the single breast pump device (1) as far as the choice of a destination position of the milk is concerned. A double breast pump device (2) is also disclosed.

Abstract: A breast shield arrangement (300) for a breast pump comprises a first sealing portion (310), a port (320) and an intermediate portion (330) coupled between the first sealing portion (310) and the port (320). The intermediate portion (330) comprises a circumferentially extending wall defining a first volume (V1) which is adapted to receive a part of a breast, a first end (331), a curved portion (332) and a second end (333). The curved portion (332) comprises a second sealing portion (332c) which is adapted to at least partially seal the curved portion (332) against the nipple (310), the areola (320) or the breast (200) when a vacuum is applied at the port (320) creating a second volume (V2) between the first sealing portion (310, 332c) of the breast (200). The curved portion (332) at the second volume is curved outwardly as seen from the first sealing portion (310).

Abstract: The present invention relates to an ultrasound image acquisition device (46) for use together with a console device (16, 18) to form an ultrasound imaging system (10) and a corresponding method. The ultrasound image acquisition device (46) particularly comprises a recognition device for recognizing an operating mode of the ultrasound image acquisition device, wherein the recognition device is configured to recognize the operating mode depending on a type of the console device (16, 18) and/or an applicable communication standard of the interface (50). By this, a dual purpose image acquisition probe (14) may be provided.

Abstract: The present disclosure describes ultrasound imaging systems and methods configured to identify and remove image artefacts from ultrasound image frames by applying a neural network to the frames. Systems may include an ultrasound transducer configured to acquire echo signals responsive to ultrasound pulses transmitted toward a target region. One or more processors communicatively coupled with the ultrasound transducer may be configured to generate an image frame from the ultrasound echoes and apply a neural network to the image frame. The neural network determines whether an artefact is present in the image frame, and identifies the type of artefact detected. The processors can also generate an indicator conveying the presence of the artefact, which can be displayed on a user interface. The processors can further generate an instruction for adjusting the ultrasound transducer based on the presence and type of artefact present within the image frame.

Abstract: System (10) for determining a position of an interventional device (11) respective an image plane (12) defined by an ultrasound imaging probe (13). The position is determined based on ultrasound signals transmitted between the ultrasound imaging probe (13) and an ultrasound transducer (15) attached to the interventional device (11). An image reconstruction unit (IRU) provides a reconstructed ultrasound image (RUI). A position determination unit (PDU) computes a lateral position (LAPTOFSmax, ?IPA) of the ultrasound transducer (15) respective the image plane (12) based on a time of flight (TOFSmax) of a maximum detected intensity (ISmax) ultrasound signal. The position determination unit (PDU) also computes an out-of-plane distance (Dop) between the ultrasound transducer (15) and the image plane (12).

Abstract: A non-spectral computed tomography scanner includes a radiation source configured to emit x-ray radiation, a detector array configured to detect x-ray radiation and generate non-spectral data, and a memory configured to store a spectral image module that includes computer executable instructions including a neural network trained to produce spectral volumetric image data. The neural network is trained with training spectral volumetric image data and training non-spectral data. The non-spectral computed tomography scanner further includes a processor configured to process the non-spectral data with the trained neural network to produce spectral volumetric image data.

Abstract: The present invention relates to an ultrasound imaging system comprising: an image processor configured to receive at least one set of volume data resulting from a three-dimensional ultrasound scan of a body and to provide corresponding display data, an anatomy detector configured to detect a position and orientation of an anatomical object of interest within the at least one set of volume data, a slice generator for generating a plurality of two-dimensional slices from the at least one set of volume data, wherein said slice generator is configured to define respective slice locations based on the results of the anatomy detector for the anatomical object of interest so as to obtain a set of two-dimensional standard views of the anatomical object of interest, wherein the slice generator is further configured to define for each two-dimensional standard view which anatomical features of the anatomical object of interest are expected to be contained, and an evaluation unit for evaluating a quality factor for e

Abstract: Aspects of the present disclosure provide ultrasound systems and devices that provide for reduction of reverberation artifacts in ultrasound images by automatically changing imaging settings such as PRI or transmit/receive configuration based on detected amounts of reverberation in ultrasound images. In an exemplary embodiment, an apparatus includes a processor circuit in communication with an ultrasound probe. The processor circuit obtains a plurality of ultrasound images obtained using a plurality of different PRIs and/or pulse sequences, calculates an amount of reverberation artifacts in each of the plurality of ultrasound images, selects a pulse repetition interval and/or pulse sequence based on the amounts of reverberation artifacts in each of the plurality of ultrasound images, and controls the ultrasound transducer to obtain a reduced-reverberation ultrasound image using the selected pulse repetition interval or pulse sequence. The reduced-reverberation ultrasound image is then output to a display.

Abstract: An optical vital signs sensor is provided which comprises a PPG sensor (100), a pre-processing unit (130) which adapts the sampling rate or the number of pulses per sample, a processing unit (140) which executes at least one processing algorithm based on an output signal of the pre-processing unit and a sensor control unit (150). The sensor control unit is configured to control the PPG sensor by adapting the sampling rate and/or the number of pulses per sample.

Abstract: An ultrasonic transducer probe comprises an array transducer and a microbeamformer ASIC (46a, 46b) containing transmit amplifiers and receive circuitry for operation of the array transducer. For higher power operation, the drive current of the amplifiers is increased, rather than the transmit voltage. The elements of the array present a low impedance to the transmit amplifiers for increased drive current by their construction of thin layers (12) of piezoelectric material which are electrically coupled in parallel to an amplifier while being mechanically coupled in series for ultrasound transmission.

Abstract: The present invention relates to photon counting. In particular, a photon-counting data acquisition module is provided. The photon-counting data acquisition module comprises a signal input unit and one or more data acquisition channels, each channel adapted for converting at least one train of pulses received from the signal input unit to a counter signal. Each data acquisition channel comprises a pulse maximum identifier and a discriminator/counter pair comprising a discriminator and a counter. The pulse maximum identifier is configured to identify a maximum of a pulse in the at least one received train of pulses. The discriminator is configured to be triggered, by a detection of a maximum of a pulse in the at least one received train of pulses, to compare the pulse with at least one signal threshold to generate the counter signal. Alternatively, the counter is configured to be enabled in response to a detection of a maximum of a pulse to generate the counter signal.

Abstract: A control information sending method and a control information receiving method include: a transmitter determining a first frequency-domain bandwidth occupied by user data to be sent; the transmitter selecting, according to the first frequency-domain bandwidth, from n candidate frequency-domain bandwidths, a second frequency-domain bandwidth occupied by control information corresponding to the user data, wherein n is an integer greater than 1; the transmitter sending the control information to a receiver according to the second frequency-domain bandwidth; the receiver determining that the transmitter sends the n candidate frequency-domain bandwidths of the control information; and the receiver performing blind detection on the control information according to the n candidate frequency-domain bandwidths.

Abstract: The following relates to an improved system and method for displaying medical information. In one aspect, a root concepts circle including at least one clinical concept category is displayed. A children concept ring, which may be built based on a user-selected clinical concept category of the at least one clinical concept categories, may surround or partially surround the root concept circle. A ring fashion timeline may also be displayed, and may be built based on a user-selected clinical concept of the at least one clinical concepts.

Abstract: Some embodiments are directed to a system with a first cryptographic device (10) and second cryptographic device (20). The devices may compute a final seed from a preshared secret known to the devices, and on a pre-seed that exchanged between them. The final seed may be used to derive a common object (a).

Abstract: A system and method for selecting image sequences of echocardiogram studies for visual comparison by a user. The method includes receiving image sequences from a current study and a prior study to be compared. The method includes determining a relevant view of the image sequences of the current and prior studies and selecting an image sequence from one of the current and prior studies to a user via an interactive comparison panel. The method includes determining which image sequence of the relevant view of an other of the current and prior studies that most closely matches the selected image sequence via the interactive comparison panel.