Abstract:
The invention relates to a sensor (102, 202, 402, 502) for detecting bubbles in gas phase present in a liquid (208, 408, 527) flowing through a flow path (204, 406, 508). The sensor comprises a heating element (106, 210) for heating the liquid, which heating element is provided with a predetermined level of power at least during detecting, and a transducer arrangement (108, 112, 212) arranged for generating a measurement signal (114) indicative for the temperature of the heating element. The sensor furthermore comprises a comparator arrangement (116) for comparing a measurement value of the measurement signal with a predetermined threshold level, which predetermined threshold level corresponds to a reference temperature attainable by the heating element in response to said predetermined level of power and a minimum velocity attainable by the liquid in the flow path. Based on the latter comparison, the comparator arrangement generates an output signal (118) indicative for a possible presence of bubbles in gas phase.
Abstract:
A device (1) for monitoring motion sequences of a person, comprises a flexible tube (2) with a proximal and a distal end, the tube being adapted to receive a limb of a person; a loop (3) disposed at the proximal end of the tube (2), the loop (3) being adapted to be worn around a body part of the person; and at least one sensor (4) connected to the tube (2), the sensor (4) being selected from the group comprising motion sensors and/or physiological parameter sensors. A system (10) for monitoring motion sequences of a person, comprises such a device (1) and a data processing unit (11). A sensor (4) of the device (1) is adapted to transmit sensor data to the data processing unit (11) and the data processing unit (11) is adapted to perform calculations on the received sensor data. In the method, such a system (10) is provided and sensor data is compared to stored data.
Abstract:
The present invention relates to a method for producing an ultrasound image with a variable refractive lens (6) by transmitting a plurality of transmit beams (Txl-Tx4) from an array of transducers (5) and receiving echo signals with the array of transducers (5) through the variable refractive lens (6) with an associated lens shape. By combining echo signals of receive lines from different transmit beams which are spatially related, the invention enable producing an image using image data. The invention is beneficial for high frequency ultrasonic imaging with the transducers being relatively larger sized than hitherto needed for high frequency applications. The array of transducers does not need to be "well- sampled"; i.e. having the width or size being comparably to the center wavelength of the ultrasonic signals to be received. This is particularly important at very high frequencies where well- sampled arrays would require very small elements that would be very challenging to manufacture.
Abstract:
Mirror device (1) comprises a display device (3) and a camera (2) to record an image. The device comprises means for determining (4, 41) the position of a body part. Said means put out a signal (S) indicative of the position of the body part with respect to the a display screen of a display device (3) for a viewer in front of the mirror device. In dependence of this signal (S) the view point from which the to be displayed image is recorded is changed.
Abstract:
A system of processing of three dimensional [3D] image data for display on a 3D display for a viewer is described. 3D display metadata defines spatial display parameters of the 3D display such as depth range supported by the 3D display. Viewer metadata defines spatial viewing parameters of the viewer with respect to the 3D display, such as viewing distance or inter-pupil distance. Source 3D image data arranged for a source spatial viewing configuration is processed to generate target 3D display data for display on the 3D display in a target spatial viewing configuration. First the target spatial configuration is determined in dependence of the 3D display metadata and the viewer metadata. Then, the source 3D image data is converted to the target 3D display data based on differences between the source spatial viewing configuration and the target spatial viewing configuration.
Abstract:
The invention provides a carpet unit comprising a laminate of a tufted primary backing layer providing a carpet unit top face, an intermediate adhesive layer, and a backing layer providing a carpet unit back face, wherein the carpet unit is selected from the group consisting a carpet and a carpet tile, wherein the carpet unit further comprises an optical sensor, arranged to generate a sensor signal, wherein, seen from carpet unit top face, the optical sensor is arranged behind the primary backing layer, and wherein the carpet unit is arranged to transmit light from the carpet unit top face to the optical sensor.
Abstract:
This invention relates to a method and device for reconstructing images of an object of interest. According to the invention, the device comprises a plurality of transmitting coils (102, 103, 115, 116) for generating a primary magnetic field; a plurality of measurement coils (121, 122, 129, 136); and means (150) for selecting and exciting a first pair of transmitting coils (102, 116) among the plurality of transmitting coils, wherein the first pair of transmitting coils (102, 116) are selected and excited in a way such that the primary magnetic field generated by the first pair of transmitting coils is minimized at the location of at least one measurement coil among the plurality of measurement coils (121, 129). By minimizing the primary magnetic field at the location of the measurement coil(s), the device can reduce the dynamic range of measurement coils, resulting in simplified hardware design for magnetic induction tomography systems.
Abstract:
In summary, the present invention relates to a device, a system, a method and a computer program enabling a thermally improved packaging of a plurality of light emitting diodes (110, 112, 114) and at least one integrated circuit (116). A most temperature sensitive light emitting diode (110) of the plurality of light emitting diodes is located between less temperature sensitive light emitting diodes (112, 114) of the plurality of light emitting diodes and the at least one integrated circuit. Further, various additional measures such as e.g. varying at least one mounting area (102, 104, 106) of at least one light emitting diode, providing at least one thermal shielding (118), etc. can be taken in order to thermally optimize the packaging.
Abstract:
Disclosed are work machine vehicles (10) having an adjustable seatbar assembly (50; 150) in the operator protective structure (20). The adjustable seatbar assembly is suspended from a seat (30; 130) in the operator protective structure. Vehicle controls (55; 155) are integrated with the adjustable seatbar assembly such that the vehicle controls and the operator sitting on the seat are maintained at constant relative positions with respect to each other even as the work machine vehicle moves over rough terrain and the seat moves up and down on a seat suspension (52; 152).
Abstract:
The present invention relates to a monitoring apparatus(101) for monitoring an ablation procedure. The monitoring apparatus (101) comprises an ultrasound signal providing unit for providing an ultrasound signal that depends on received echo series of an object (4) that is ablated. The monitoring apparatus (101) further comprises an ablation depth determination unit (103) for determining an ablation depth from the provided ultrasound signal. The ablation depth can be determined directly from the ultrasound signal and is an important parameter while performing an ablation procedure. For example, it can be used for determining the progress of ablation within the object (4) and for determining when the ablation has reached a desired progression.