Abstract: A method for the manufacture of a light emitting device is provided. The method comprises the steps of: providing a substrate (102) on which at least one light emitting diode (101) is arranged and; arranging a collimator (103), at least partly laterally surrounding said at least one light emitting diode, by bonding said collimator to said at least one light emitting diode and said substrate using a transmissive bonding material (104). By using the inventive method, the collimator can be arranged after the placement of the LED, which facilitates the placement of the LED.

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 light guide (200), arranged to collimate light source light (111). The light guide (200) has an entrance window (210), an edge window (220), a first light guide surface (201), a second light guide surface (202), a first side edge (230) and a second side edge (240). One or more of the first light guide surface (201) and the second light guide surface (202) comprise a plurality of grooves (300). In this way, latitudinal collimation is obtained.

Abstract: The present invention relates to a silicone rubber like material and a printing device including a stamp layer (100;201) comprising such a material. The material is suitable for use in soft lithography as it enables stable features having mensions in the nanometer range to be obtained on a substrate, and also allows for the accommodation onto rough and non-flat substrate surfaces. The invention also relates to methods for manufacturing the silicone rubber like material and stamp layer (100;201) and use thereof in lithographic processes.

Abstract: A physical uncloneable function (PUF) pattern is used for verifying a physical condition of an item. The PUF pattern is arranged to be damaged in the event that said item is exposed to a predetermined environmental condition. Verification of the physical condition of the item, is carried out by obtaining a measured response from the PUF pattern, and comparing the measured response with a stored response in respect of the PUF.

Abstract: There is a process for reducing the sheet resistance of phosphorus-implanted poly-silicon. In an example embodiment, there is an MOS transistor structure. The structure has a gate region, drain region and a source region. A method for reducing the sheet resistance of the gate region comprises depositing intrinsic amorphous silicon at a predetermined temperature onto the gate region. An amorphizing species is implanted into the intrinsic amorphous silicon. Phosphorus species are then implanted into the gate region of the MOS transistor structure. A feature of this embodiment includes using Ar+ as the amorphizing species.

Abstract: A light source (1) includes at least one light emitting device (2) capable of emitting electromagnetic radiation in the range from near ultraviolet to blue in response to a driving signal of a driving means (6). A luminescent cover (3) includes at least a first activator (A1) and a second activator (A2) to convert the electromagnetic radiation into visible light. The first activator and second activator have different response characteristics and the driver is adapted to vary the driving signal to control the spectrum of said visible light for the light source.

Abstract: The invention relates to a pressure sensor comprising a flexible membrane deformable in response to a pressure, which covers a cavity (2) and which comprises a strain gauge (21) that produces signals corresponding to the deformation of the flexible membrane, wherein the flexible membrane is a flexible monolithic integrated circuit foil (10). In this way the semiconductor integrated circuit itself serves as the flexible membrane, leading to a less complex fabrication process.

Abstract: The invention relates to a method and an apparatus for the optical characterisation of a three-dimensional surface. The method and apparatus are an improvement over the known photogoniometer and Parousiameter, as it enables a more reliable characterisation of three-dimensionally shaped surfaces. The technique is particularly useful for the characterisation of surfaces with a complex optical appearance such as the human skin.

Abstract: It is disclosed an appearance-modifying device (10), for modifying the visual appearance of a surface covered thereby. The appearance-modifying device (10) comprises two oppositely arranged substrates (11, 12), which are spaced apart by a spacer structure (13). The spacer structure (13) spaces apart the two substrates (11, 12) in such a way that a space between the two substrates (11, 12) is divided into a plurality of cells (15, 16), the shapes of the individual cells (15, 16) being such that an aperiodic cell pattern (14) is formed by the cells (15, 16). Each cell (15, 16) may comprise an optically transparent fluid having a plurality of particles dispersed therein. The particles are moveable in the fluid through application of an electric field. An appliance at least partly covered by the appearance-modifying device (10) is also disclosed. Furthermore, it is disclosed a method for manufacturing the appearance-modifying device.

Abstract: The present invention relates to a data processing system based on a multithreaded operating system. The data processing system comprises at least one processor (PROC) for processing data based on multiple threads, at least one controller unit (CU) for controlling the communication between said at least one processor (PROC) and an external peripheral device (PD) connected to said at least one controller unit (CU). Said at least one controller unit (CU) comprises at least one buffer memory (BM) for buffering data from said peripheral device (PD) connected to said at least one controller unit (CU), and at least one memory managing unit (MMU) for managing the access to said at least one buffer memory (BM) by mapping said at least one buffer memory (BM) into N banks (C0-C3) each with a dedicated prefetch register (Addr.0-Addr.3). At least one of said multiple threads (T0-T3) is mapped to one of said N banks (C0-C3) and its dedicated prefetch register (Addr.0-Addr.3).

Abstract: A hair-clipping device comprises a stationary cutter member (2; 52; 102; 152; 202; 252; 302; 352), at least one movable cutter member (7; 57; 407; 457), and a drive (9, 14, 15; 465) coupled to the movable cutter member (7; 57; 407; 457) for driving movement of the movable cutter member (7; 57; 407; 457). The stationary cutter member (2; 402 52; 102; 152; 202; 252; 302; 352) has an outer surface (3; 53; 103), a chamber (4) bounded by an inner surface (5) and at least one hair-catching opening (6; 56; 406) extending from the outer surface (3; 53; 103) to the inner surface (5). The movable cutter member (7; 57; 407; 457) comprises at least one cutting edge (8), fits in the chamber (4) with a free, close fit and includes a continuous carrier (15; 465) oriented in longitudinal direction of the movable cutter member (7; 57; 407; 457). The cutting edges (8) are provided on cutters (16) projecting radially from the carrier (15; 465). A set of cutter members for such a hair-clipping device is also described.

Abstract: An imaging system includes a radiation source (106, T1, T2, T3) that rotates about an examination region and emits radiation that traverses the examination region. The radiation source (106, T1, T2, T3) emits radiation having an energy spectrum that is selectively alternately switched between at least two different energy spectra during an imaging procedure. The system further includes an energy-resolving detector array (116, D1, D2, D3) that detects radiation traversing the examination region. The energy-resolving detector array (116, D1, D2, D3) resolves the detected radiation over at least two different energy ranges and produces energy-resolved output signals as a function of both emission energy spectrum and energy range. The system further includes a reconstructor (126) that performs a spectral reconstruction of the energy-resolved output signals. In another embodiment, the detector array (116) includes a photon-counting detector array (116).

Abstract: Memory storage requirements for digital signal processing operations, for example, motion-compensated video scan rate conversion, that produce intermediate output data, which is then used as an input to the operation, are reduced by reordering operations and organizing memory allocations in a special manner to allow intermediate output at a particular execution time, to substantially share the same memory space as the intermediate output of a previous execution time. Such a reduction in the amount of memory required for processing operations advantageously reduces cost and power consumption.

Abstract: A method of manufacturing an optical data storage medium, comprising at least one substrate (11) and a plurality of layers deposited on the substrate (11) is described. The medium includes at least one of a transparent spacer layer and transparent cover layer (12). The layer (12) is provided by applying a liquid onto the rotating substrate (11) and rotating the substrate (11) further in order to spread out the liquid into a layer substantially uniformly between an inner radius ri and an outer radius ro, and solidifying the liquid layer (12) by means of exposure to UV radiation. After applying the liquid onto the rotating substrate the liquid layer (12) is heated by heating means (14) in such a way that the temperature rise of the liquid layer (12) at ri has a value ?Tri, while the temperature rise of the liquid layer (12) between ri and ro gradually increases, and the temperature rise of the liquid layer (12) at ro has a value ?Tro>?Tri.

Abstract: An ultrasonic imaging system produces a sequence of images of the heart during a cardiac cycle. The images are analyzed to determine the motion, displacement, or change in size of segments of the myocardium. In a preferred embodiment the values determined are radial, longitudinal, or circumferential myocardial strain values. The displacement of the myocardial segments may be tracked during the cardiac cycle by speckle tracking or border detection. The motion, displacement, or change in size values for the segments are analyzed to produce a recruitment curve and anatomical display showing the relative times of recruitment of the different segments in the contractile and relaxation motion of the heart. Participation in and achievement of full recruitment may be determined by comparison against an initial recruitment threshold criterion and against a predetermine maximal recruitment milestone level.

Abstract: The present invention discloses an optical device comprising a container enclosing a first liquid (A) and an electrically susceptible second liquid (v2), said liquids (A; B) being immiscible and being in contact with each other via an interface (14); at least one of the liquids (A; B) being at least partially placed in a light path through the container; said liquids having an averaged kinematic viscosity V (in m2/s) and an averaged density D (in kg/m3). said liquids experiencing a surface tension S (in N/m), the optical device having a diameter d (in m) in at the contact line of said interface (14) with an inner wall of the container, the optical device obeying the relationship, (Formula I) Such an optical device has a critically damped or a near-critically damped interface, thus yielding a device that can be subjected to high switching frequencies.

Abstract: The present invention relates to a hydrogel-containing temperature indicating element for use in ultrasound therapy. The temperature indicating element of the present invention and the therapeutic device and method making use of the same enable in some embodiments an automated adaptation of the power output as a function of the tissue temperature, avoiding therefore overheating or burning of the skin.

Abstract: A fingerprint recognition system in which a user's finger (3) is scanned over a strip sensor (1) until it is determined that sufficient image data samples have been obtained, then an indication is provided that the scanning operation is complete.

Abstract: The invention relates to an improved EUV reflecting element comprising a) a first layer essentially made out of a highly reflective material b) a second layer having a thickness of ?5 nm and essentially made out of a material with a sputter resistance of ?10 nm per 108 shots and whereby the second layer is provided in the path of the incident and/or reflected EUV light.

Abstract: The present invention relates to an imaging apparatus for generating an image of a region of interest. The imaging apparatus comprises a radiation source (2), a detection unit (6) for generating detection data and a moving unit (1, 7, 8) for moving the radiation source (2) and the region of interest relative to each other, while the detection data are generated. The imaging apparatus further comprises an identification unit (13) for identifying in the detection data high density detection data and non-high density detection data. A density weighting unit (14) density weights the detection data, wherein at least a part of the high density detection data has a smaller density weight than the non-high density detection data, and a reconstruction unit (15) reconstructs an image of the region of interest from the weighted detection data.