Abstract: An interventional device includes a sensor interconnection region (101) for making electrical contact to a sensor (102) disposed on the interventional device. The interventional device includes an electrically conductive elongate shaft, a sensor strip (104), electrical conductors (105, 106), and an electrical shield layer (109). The electrical conductors (105, 106) extend along the sensor strip between a sensor region (111) and a window (112) within which the electrical conductors (105, 106) are exposed. The sensor strip (104) is wrapped around the elongate shaft (103) in a spiral such that the electrical conductors (105, 106) extend along the longitudinal axis (A-A?) within the window (112), and such that an electrical shield contact portion (109?) adjacent the window (112), the window (112), and an exposed portion of the electrically conductive elongate shaft (103?) beyond the wrapped sensor strip provide the sensor interconnection region (101).

Abstract: An interventional device includes an elongate shaft and a transducer strip. The transducer strip includes a first edge and an opposing second edge. The first edge and the second edge are separated by a width dimension, and the first edge and the second edge each extend along a length direction of the transducer strip. The transducer strip also includes a piezoelectric transducer that extends along a transducer direction that forms an acute angle with respect to the length direction. The transducer strip is wrapped in the form of a spiral around the elongate shaft of the interventional device such that the piezoelectric transducer forms a band around the elongate shaft. The width dimension is defined such that the adjacent first and second edges of consecutive turns of the spiral abut or overlap one another.

Abstract: An interventional device (100, 200, 300) includes an elongate shaft (101) having a longitudinal axis A-A?, an ultrasound transducer (102), an adhesive layer (103), and a protective tube (104) formed from a protective tube (104) formed from a heat-shrink material. The ultrasound transducer (102) is disposed on the elongate shaft (101) such that the ultrasound transducer (102) has an axial extent L along the longitudinal axis A-A?, At least along the axial extent L of the adhesive layer (103) is disposed between the ultrasound transducer (102) and the protective tube (104) surrounds the ultrasound transducer (102) and the adhesive layer (103) is disposed between the ultrasound transducer (102) and the protective tube (104).

Abstract: An interventional device includes a sensor interconnection region (101) for making electrical contact to a sensor (102) disposed on the interventional device. The interventional device includes an electrically conductive elongate shaft, a sensor strip (104), electrical conductors (105, 106), and an electrical shield layer (109). The electrical conductors (105, 106) extend along the sensor strip between a sensor region (111) and a window (112) within which the electrical conductors (105, 106) are exposed. The sensor strip (104) is wrapped around the elongate shaft (103) in a spiral such that the electrical conductors (105, 106) extend along the longitudinal axis (A-A?) within the window (112), and such that an electrical shield contact portion (109?) adjacent the window (112), the window (112), and an exposed portion of the electrically conductive elongate shaft (103?) beyond the wrapped sensor strip provide the sensor interconnection region (101).

Abstract: An interventional device (110) includes an elongate shaft and a transducer strip (112). The transducer strip includes a first edge and an opposing second edge. The first edge and the second edge are separated by a width dimension, and the first edge and the second edge each extend along a length direction of the transducer strip. The transducer strip also includes a piezoelectric transducer (116) that extends along a transducer direction that 5 forms an acute angle with respect to the length direction. The transducer strip is wrapped in the form of a spiral around the elongate shaft of the interventional device such that the piezoelectric transducer forms a band around the elongate shaft. The width dimension is defined such that the adjacent first and second edges of consecutive turns of the spiral abut or overlap one another.

Abstract: A device for measuring a physiological parameter of a user carrying the device that includes a sensor having at least two sensor elements for detecting a sensor signal, a carrier configured to carry the sensor, and electrical contacts of the sensor elements that lead on, into or through the carrier. One or more frames carried by the carrier are formed around the sensor and/or the individual sensor elements, and an insulator material is filled between the one or more frames and the sensor and/or the sensor elements surrounded by a respective frame without covering a top surface of a respective sensor element facing away from the carrier.

Abstract: This invention relates to the field of lighting modules employing light emitting diodes (LEDs), and more particularly to LED modules suitable for exposed lens plate luminaires. There is herein provided an LED module having a printed circuit board comprising at least two layers, wherein the interface between two layers at a side surface of the printed circuit board is covered by a protrusion of an optically transmissive cover plate. The same said optically transmissive cover plate is also adapted to cover at least one LED positioned in or on the printed circuit board.

Abstract: This invention relates to the field of lighting modules employing light emitting diodes (LEDs), and more particularly to LED modules suitable for exposed lens plate luminaires. There is herein provided an LED module having a printed circuit board comprising at least two layers, wherein the interface between two layers at a side surface of the printed circuit board is covered by a protrusion of an optically transmissive cover plate. The same said optically transmissive cover plate is also adapted to cover at least one LED positioned in or on the printed circuit board.

Abstract: The present invention relates to a device for measuring a physiological parameter of a user carrying said device. The device comprises a sensor (22) comprising at least two sensor elements (221, 222, 223) for detecting a sensor signal and a carrier (26) carrying said sensor, wherein electrical contacts (34) of said sensor elements lead on, into or through said carrier. One or more frames (41, 42, 43) carried by said carrier are formed around said sensor and/or said individual sensor elements, and an insulator material (32) is filled between said one or more frames and the sensor and/or the sensor elements surrounded by the respective frame without covering the top surface of the respective sensor element facing away from the carrier.

Abstract: A scintillator pack (2) and a CT X-ray detector array (1) comprising such scintillator pack (2) are proposed. The scintillator pack (2) comprises an array of scintillator pixels (3). At a bottom surface (31) of each scintillator pixel (3), an X-ray absorbing encapsulation (13) is provided. This encapsulation (13) comprises an electrically insulating highly X-ray absorbing material having an atomic number greater than 60 such as, for example, Bismuth oxide (Bi2O3). The X-ray absorbing encapsulation (13) is interposed between the scintillator pixels (3) and an electronic circuit (19). The electronic circuit (19) may be provided as an ASIC in CMOS technology and may therefore be sensitive to X-ray induced damage. The encapsulation (13) provides for good X-ray protection of such electronic circuit (19).

Abstract: A tiled detector assembly (1000) and a method for making a tiled radiation detector (1000) is described. The innovative feature of this method is that the xyz misalignment of the detector tiles (304, 304?), the origin of various image artifacts, can be significantly reduced by accurate sizing and alignment of the detector tiles (304, 304?). Consequently, image quality, yield and reliability of as-produced tiled radiation detectors are considerably improved.

Abstract: A tiled detector assembly (1000) and a method for making a tiled radiation detector (1000) is described. The innovative feature of this method is that the xyz misalignment of the detector tiles (304, 304?), the origin of various image artifacts, can be significantly reduced by accurate sizing and alignment of the detector tiles (304, 304?). Consequently, image quality, yield and reliability of as-produced tiled radiation detectors are considerably improved.

Abstract: A data carrier (1) for contactless communication comprises a first carrier layer (2) and a second carrier layer (3) which are held together by an adhesive layer (15), wherein an integrated circuit (11) is held in a given position between one of the two carrier layers (2, 3) and the adhesive layer (15), the circuit comprising transmission means (13, 14) which can communicate in a contactless manner with transmission means (7, 8) at the carrier layer, and the transmission means (7, 8) of the carrier layer are connected with electrical conduction to further transmission means (5, 6) by which a contactless communication with a communication station can be carried out, and wherein the final, mechanically stable retention of the integrated circuit (11) in the position reserved for it in the data carrier (1) is realized by means of the adhesive layer (15) only.

Abstract: A data carrier (1) for contactless communication comprises a first carrier layer (2) and a second carrier layer (3) which are held together by an adhesive layer (15), wherein an integrated circuit (11) is held in a given position between one of the two carrier layers (2, 3) and the adhesive layer (15), the circuit comprising transmission means (13, 14) which can communicate in a contactless manner with transmission means (7, 8) at the carrier layer, and the transmission means (7, 8) of the carrier layer are connected with electrical conduction to further transmission means (5, 6) by which a contactless communication with a communication station can be carried out, and wherein the final, mechanically stable retention of the integrated circuit (11) in the position reserved for it in the data carrier (1) is realized by means of the adhesive layer (15) only.