Abstract: The present invention provides a transceiver (1) for a local lighting system (L1), preferably a local lighting system based on the DALI-2 industry standard, comprising a bus (2) and a control unit (3) electrically connected to the bus (2) for controlling communication via the bus (2). The transceiver (1) comprises a transmitter (1a) configured to transmit wireless signals to a global lighting system (14) comprising one or more luminaires (L2 . . . LN), a receiver (1b) configured to receive wireless signals from the global lighting system (14), and a processing unit (1c) configured to process the received wireless signals from the global lighting system (14). The processing unit (1c) of the transceiver (1) is configured to convert the received wireless signals into bus signals such that the transceiver (1) behaves as an input device of the local lighting system (L1) when electrically connected to the bus (2).

Abstract: The present invention provides a transceiver (1) for a local lighting system (L1), preferably a local lighting system based on the DALI-2 industry standard, comprising a bus (2) and a control unit (3) electrically connected to the bus (2) for controlling communication via the bus (2). The transceiver (1) comprises a transmitter (1a) configured to transmit wireless signals to a global lighting system (14) comprising one or more luminaires (L2 LN), a receiver (1b) configured to receive wireless signals from the global lighting system (14), and a processing unit (1c) configured to process the received wireless signals from the global lighting system (14). The processing unit (1c) of the transceiver (1) is configured to convert the received wireless signals into bus signals such that the transceiver (1) behaves as an input device of the local lighting system (L1) when electrically connected to the bus (2).

Abstract: CT system including: an X-ray source and an X-ray detector arranged opposite the X-ray source, wherein the X-ray detector and the X-ray source may be mutually rotated around at least one rotation center through a rotator, wherein the distances between the at least one rotation center and the X-ray source and between the at least one rotation center and the X-ray detector are different.

Abstract: Radiation detector for measuring one or more characteristics of a radiation, comprising one or more detector pixels, a clock pulse generator, each detector pixel comprising a sensor producing an electrical signal in response to an event of a photon or charged particle of said radiation impinging on said sensor; a pixel electronics adapted for receiving and processing said electrical signal, comprising an analog processing unit for amplifying and shaping said electrical signal and producing a shaped pulse said pixel electronics comprises time determination unit for counting the TOT-count, the TOT-count being the number of clock pulses occurring during the time interval when said shaped pulse is above a threshold. Said pixel electronics comprises a plurality of event counters, each event counter counting the number of events having a TOT-count in a predefined ranges.

Abstract: The present invention relates to a device and method for determining one or more characteristics of radiation using a sensor comprising one or more detector units capable of counting the number of photon or charged particle of said radiation impinging on said sensor in or above a determined energy range.

Abstract: The present invention relates to a device and method for determining one or more characteristics of radiation using a sensor comprising one or more detector units capable of counting the number of photon or charged particle of said radiation impinging on said sensor in or above a determined energy range.

Abstract: Radiation detector (1) for measuring one or more characteristics of a radiation, comprising one or more detector pixels (3), a clock pulse generator, each detector pixel (3) comprising a sensor (20) producing an electrical signal in response to an event of a photon or charged particle of said radiation impinging on said sensor (20); a pixel electronics (24) adapted for receiving and processing said electrical signal, comprising an analog processing unit (62) for amplifying and shaping said electrical signal and producing a shaped pulse said pixel electronics (24) comprises time determination unit (51) for counting the TOT-count, the TOT-count being the number of clock pulses occurring during the time interval when said shaped pulse is above a threshold. Said pixel electronics comprises a plurality of event counters (82), each event counter (82) counting the number of events having a TOT-count in a predefined ranges.