Abstract: In a wireless docking system a dockee device (120) communicates with a host device (100) that is coupled to at least one peripheral (110, 111, 112). The host device has a host communication unit (102) and a docking processor (101) arranged for docking at least one dockee device. The dockee device has a dockee communication unit (121), and a dockee processor (122) for docking to the host device. The dockee processor is arranged for providing at least one virtual peripheral device in a virtual docking environment, the virtual peripheral device having a privacy level. When docking, the virtual peripherals are mapped on actual peripherals so as to apply the privacy level to the actual peripheral. When docked, data transfer with the actual peripheral is controlled according to the respective peripheral privacy level.

Abstract: Methods and apparatus related to controlling illumination in a space. The method may include determining a heading of a daylight blocking element and/or a lighting fixture (301) and automatically adjusting at least one characteristic of the daylight blocking element and/or the lighting fixture based at least in part on the determined heading (305). The method may additionally or alternatively include proactively determining likely daylight conditions at a future time and beginning to adjust at least one characteristic of a daylight blocking element and/or a lighting fixture prior to the future time (202/203). Daylight blocking elements and/or lighting fixtures are also provided that may facilitate one or more aspect of the methods of controlling illumination.

Abstract: In a wireless docking system a dockee device (120) communicates with a host device (100) that is coupled to at least one peripheral (110, 111, 112). The host device has a host communication unit (102) and a docking processor (101) arranged for docking at least one dockee device. The dockee device has a dockee communication unit (121), and a dockee processor (122) for docking to the host device. The dockee processor is arranged for providing at least one virtual peripheral device in a virtual docking environment, the virtual peripheral device having a privacy level. When docking, the virtual peripherals are mapped on actual peripherals so as to apply the privacy level to the actual peripheral. When docked, data transfer with the actual peripheral is controlled according to the respective peripheral privacy level.

Abstract: A controller for a lighting arrangement is provided, comprising a detector unit having a field of view and a pointing direction. The controller furthermore includes an interface unit for interfacing with the lighting arrangement, and a processing unit connected to the detector unit and the interface unit. The detector unit is arranged to provide detection data including parameters related to one or more identifiable beacons within the field of view of the detector unit. The processing unit is arranged to associate the detection data with a set of lighting parameters for the lighting arrangement and to control the lighting arrangement via the interface unit in accordance with the set of lighting parameters. Also a method of controlling alighting arrangement is provided.

Abstract: The present invention relates to a control unit (108) for a lighting system (100) comprising at least two individually controllable light sources (102, 104), wherein the control unit (108) is connectable to the at least two individually controllable light sources (102, 104) and configured to control the at least two individually controllable light sources (102, 104), wherein the control unit (108) is further configured to control a first lighting system configuration comprising the at least two individually controllable light sources (102, 104) so as to cause it to emit a first illumination pattern (120) provided jointly by the at least two light sources (102, 104) of the first lighting system configuration, detect and store an initial set of illumination parameters being indicative of the first illumination pattern (120), determine a subsequent set of illumination parameters being indicative of a second illumination pattern (122) provided by a second lighting system configuration comprising individually cont

Abstract: Methods and apparatus related to controlling illumination in a space. The method may include determining a heading of a daylight blocking element and/or a lighting fixture (301) and automatically adjusting at least one characteristic of the daylight blocking element and/or the lighting fixture based at least in part on the determined heading (305). The method may additionally or alternatively include proactively determining likely daylight conditions at a future time and beginning to adjust at least one characteristic of a daylight blocking element and/or a lighting fixture prior to the future time (202/203). Daylight blocking elements and/or lighting fixtures are also provided that may facilitate one or more aspect of the methods of controlling illumination.

Abstract: The present invention relates to a control unit (108) for a lighting system (100) comprising at least two individually controllable light sources (102, 104), wherein the control unit (108) is connectable to the at least two individually controllable light sources (102, 104) and configured to control the at least two individually controllable light sources (102, 104), wherein the control unit (108) is further configured to control a first lighting system configuration comprising the at least two individually controllable light sources (102, 104) so as to cause it to emit a first illumination pattern (120) provided jointly by the at least two light sources (102, 104) of the first lighting system configuration, detect and store an initial set of illumination parameters being indicative of the first illumination pattern (120), determine a subsequent set of illumination parameters being indicative of a second illumination pattern (122) provided by a second lighting system configuration comprising individually cont

Abstract: A controller for a lighting arrangement (14) is provided, comprising a detector unit (12) having a field of view (20) and a pointing direction (21). The controller furthermore comprises an interface unit (11) for interfacing with the lighting arrangement (14), and a processing unit (10) connected to the detector unit (12) and the interface unit (11). The detector unit (12) is arranged to provide detection data comprising parameters related to one or more identifiable beacons (2) within the field of view (20) of the detector unit (12). The processing unit (10) is arranged to associate the detection data with a set of lighting parameters for the lighting arrangement (14) and to control the lighting arrangement (14) via the interface unit (11) in accordance with the set of lighting parameters. Also a method of controlling alighting arrangement is provided.

Abstract: A backplane assembly includes a backplane board having a plurality of connector assemblies connected thereto for electrical connection with a header mounted on a backplane. The header includes a plurality of pins defining a pin field on the opposite side of the backplane. The pins extend through a mounting rail providing support for a plurality of cable connectors. The mounting rail is stamped and formed to include alignment slots whereas the cable connector is molded to define alignment ribs. The cable connector housing includes latching arms on opposite sides thereof having locking lugs which lock in place within apertures in the mounting rail. A release mechanism is positioned between the latching arms such that outward movement of the mechanism moves the latching arms together disconnecting the cable connectors from the mounting rail. A twinaxial cable connector inner housing can also be positioned in the cable connector housing, where the inner housing is comprised of outer housings and an inner insert.

Abstract: A backplane assembly includes a backplane board having a plurality of connector assemblies connected thereto for electrical connection with a header mounted on a backplane. The header includes a plurality of pins defining a pin field on the opposite side of the backplane. The pins extend through a mounting rail providing support for a plurality of cable connectors. The mounting rail is stamped and formed to include alignment slots whereas the cable connector is moulded to define alignment ribs. The cable connector housing includes latching arms on opposite sides thereof having locking lugs which lock in place within apertures in the mounting rail. A release mechanism is positioned between the latching arms such that outward movement of the mechanism moves the latching arms together disconnecting the cable connectors from the mounting rail. A twinaxial cable connector inner housing can also be positioned in the cable connector housing, where the inner housing is comprised of outer housings and an inner insert.