Abstract: An ultrasound imaging system includes an imaging probe having an array of transducer elements that is flat and relatively elongated in the azimuth direction and is curved outwardly in the elevation direction. As a result, when the transducer elements are scanned in a step-wise manner, the acoustic pattern of the probe diverges in the elevation direction. The probe therefore provides a large field of view in the near field despite using relatively few transducer elements. The probe also includes sub-array beamformers to delay signals transmitted and received from the transducer elements in respective sub-arrays. The received signals are coupled to an imaging system which includes a signal path that processes the received signals into signals corresponding to a volumetric image. A display coupled to the signal path can then show a volumetric image of anatomical features in a volumetric region adjacent the array of transducer elements.

Abstract: A display arrangement comprises a plurality of pixel elements (FLCD) that have controllable light-transfer characteristics. A display driver controls the plurality of pixel elements in accordance with a color component (R) during a control interval (TO) that is assigned to the color component. The display driver causes a color-light source (RL1, RL2) to apply a color light, which corresponds to the color component, to the plurality of pixel elements during a main interval (RMO). The main interval is comprised in the control interval that is assigned to color component. The light-source controller also causes the color-light source to apply the color light during a spillover interval (RS1, RS2). The spillover interval is comprised in another control interval (T1) that is assigned to another color component (G).

Abstract: An information storage system is described which comprises a reading device (6) and an optical record carrier (5) having at least two information planes (1, 2, 3). The radiation from the record carrier is converted in a detection system (15) into a detection signal (16) which is applied to a detection circuit (17). In order that this circuit can derive the read information from the detection signal in a reliable manner, the interference signals generated by the information planes which are not to be read should comply with a requirement, referred to as the interference requirement, which is characteristic of the detection circuit. Values for the parameters of the record carrier, such as the thickness of the layers between the information planes and the reflection and transmission coefficients of the information planes then follow from this interference requirement.

Abstract: A ceramic body is disposed in a path of light emitted by a light source. The light source may include a semiconductor structure comprising a light emitting region disposed between an n-type region and a p-type region. The ceramic body includes a plurality of first grains configured to absorb light emitted by the light source and emit light of a different wavelength, and a plurality of second grains. For example, the first grains may be grains of luminescent material and the second grains may be grains of a luminescent material host matrix without activating dopant.

Abstract: When monitoring a patient, acoustic events (e.g., coughs, snores, impact sounds, verbalizations, etc.) relevant to the patient's status are detected by a microphone array (12) and timestamped. Detected event signals generated by the microphone array (12) are filtered to identify signatures such as zero crossings, corner frequencies, amplitude, pitch, etc., for classification purposes. The filtered signals are digitized and classified into one of a plurality of acoustic event classes (e.g., snore, cough, wheeze, breath, etc.) and/or subclasses. The classified events are displayed to a user (e.g., graphically, textually, etc.) with their timestamps to indicate chronology. A user can review the acoustic events, select one or more events, and listen to a recording of the selected event (s). Additionally, specified acoustic events can trigger an alarm to alert a nurse or the like that the patient requires immediate attention.

Abstract: The present invention relates to a method for operating a primary station comprising a transceiver for communicating with a plurality of secondary stations, said transceiver including at least two antennas, the method comprising the primary station transmitting to a secondary station for a single spatial channel at least one first set of reference symbols with a first antenna and at least one second set of reference symbols with a second antenna, the second set of reference symbols being orthogonal to the first set of reference symbols.

Abstract: The invention relates to a nuclear magnetic resonance imaging apparatus comprising: a main magnet (122) adapted for generating a main magnetic field; at least one radio frequency receiver coil unit (144) for acquiring magnetic resonance signals in a receiver coil radio frequency band (202) from an examined object (124); means (140) for inductively (wirelessly) supplying electric power to an electric component of the apparatus, wherein the electric component is adapted to be powered by inductively supplied electric power, wherein the power transfer frequency (200) and the higher-harmonics (206) of the power transfer frequency (200) for inductively supplying the electric power are located outside the receiver coil radio frequency band (202).

Abstract: The invention concerns an illumination system for generation of colored, especially amber or red light, comprising a radiation source and a fluorescent material comprising at least one phosphor capable of absorbing a part of light emitted by the radiation source and emitting light of wavelength different from that of the absorbed light; wherein said at least one phosphor is a amber to red emitting a rare earth metal-activated oxonitridoalumosilicate of general formula (Ca1-x-y-zSrxBayMgz)1-n(Al1-a+bBa)Si1-bN3-bOb:Ren, wherein 0?x?1, 0?y?1, 0?z?1, 0?a?1, 0<b?1 and 0.002?n?0.2 and RE is selected from europium(II) and cerium(III).

Abstract: The present invention relates to a method for communicating in a network comprising a primary station and at least one secondary station, said secondary station comprising a buffer containing data packets to be transmitted to the primary station, the method comprising the step of the secondary station transmitting an indication of the buffer status to the primary station, said indication comprising information about history of said buffer.

Abstract: A rotary beater is provided which comprises a drive shaft (2) adapted to be coupled to a drive arrangement and defining a longitudinal axis (16) about which the beater is rotatable. The beater has a beater body (6), comprising a wire loop (8) which is coupled to the drive shaft (2) and which extends from the drive shaft in the direction of the longitudinal axis (16) and is led back to the drive shaft (2). The wire loop (8) comprises a first section, (I) a second section (II) comprising two upper segments (8b, 8g) and two lower segments (8c, 8f). Each upper segment (8b, 8g) is connected to the first section (I), and to a respective lower segment (8c, 8f) of the second section (II). The wire loop (8) further comprises a third section (III) for connecting the lower segments (8c, 8f) of the second section (II). Mutually connected upper (8b, 8g) and lower segments (8c, 8f) of the second section (II) define a plane (xa, xb) which is substantially parallel to the longitudinal axis (16).

Abstract: A method for the manufacture of a wavelength converted light emitting device is provided. A light curable coating material is arranged on the outer surface of a wavelength converted light emitting diode. The light curable coating material is cured, in positions where a high intensity of unconverted LED-light encounters the curable coating material. The method can be used to selectively stop unconverted light from exiting the device, leading to a wavelength converted LED essentially only emitting converted light.

Abstract: LED epitaxial layers (n-type, p-type, and active layers) are grown on a substrate. For each die, the n and p layers are electrically bonded to a package substrate that extends beyond the boundaries of the LED die such that the LED layers are between the package substrate and the growth substrate. The package substrate provides electrical contacts and conductors leading to solderable package connections. The growth substrate is then removed. Because the delicate LED layers were bonded to the package substrate while attached to the growth substrate, no intermediate support substrate for the LED layers is needed. The relatively thick LED epitaxial layer that was adjacent the removed growth substrate is then thinned and its top surface processed to incorporate light extraction features.

Abstract: The present invention relates to the amplification and detection of amplified nucleic acid sequences employing methods and devices with distinct temperature zones. The methods and devices of the present invention may be used for quantitative analysis of target nucleic acid sequences, for simultaneous quantitative analysis of multiple target nucleic acid sequences or for analyzing a sample for the presence of a target nucleic acid.

Abstract: The invention relates to a user interface device for controlling an electrical consumer, in particular, a light system (545). Further, it relates to light system using such user interface device. To provide a user interface device for controlling a light system (545), which could be easily operated and provides the possibility to recognize a selected preset in all areas of the display device (112), a user interface device for controlling a consumer load (545) is proposed, comprising: an input device (111); and a display device (112), wherein the input device (111) and the display device (112) are arranged interested to each other in one common layer or in two layers respectively stacked on each other.

Abstract: The invention relates to an illumination system (10), a backlighting system and a display device. The illumination system comprises a light source (20) configured to emit light via a light guide (30) to a light exit window (40) of the illumination system. The light guide has a front wall (32) arranged opposite a rear wall (34) so as to guide light in a direction substantially parallel to the front wall. A distance (D) between the light guide (30) and the light exit window (40) reduces towards an edge (42) of the light exit window (40). The light guide (30) further comprises a light entrance window (36) for receiving the light from the light source which is arranged away from the edge of the light exit window. The illumination system according to the invention has, inter alia, the effect that its thickness may be reduced at the edge of the light exit window.

Abstract: The invention provides an illumination device (1) comprising a lighting unit (2). The lighting unit (2) comprises a light source (100) and a substantially flat collimator (200), arranged to collimate light source light (111). The collimator (200) has an entrance window (210), an edge window (220), a top collimator surface (201), a bottom collimator surface (202), a first collimating side edge (230) and a second collimating side edge (240). The lighting unit has an optical axis (O). One or more of the top collimator surface (201), the bottom collimator surface (202), the first collimating side edge (230) and the second collimating side edge (240) comprise n*½ grooves (300), wherein n is a positive integer number, and wherein the grooves (300) independently have a longitudinal axis (301) having a groove direction angle (?) with the optical axis (O) ?0° and & and <90°.

Abstract: A method for manufacturing an appearance-modifying device (2, 6, 9; 10; 30), for modifying the visual appearance of a surface covered thereby is disclosed. The method comprises the steps of: providing a first substrate (11) having, on a first side thereof, a first electrode layer (17) covered by a dielectric layer (21); providing a second substrate (12) opposite the first side of the first substrate (11); arranging a spacer structure (13) between the first (11) and second (12) substrates to form a plurality of-cells (15, 16; 31) in such a way that an area occupied by each cell includes a portion of the first electrode layer (17); providing a second electrode (18) spaced apart from the first electrode layer (17) at least by the dielectric layer (21), forming, in each of the cells (15, 16; 31), a recess in the dielectric layer (21); and providing, in each of the cells(15, 16; 31), an optically transparent fluid (19) having a plurality of particles (20) dispersed therein.