Abstract: A telecommunications box includes a back panel, outer sidewalls that adjoin the back panel and form an enclosed loop around an interior volume, and a bulkhead that divides the interior volume into first and second cable storage regions. The bulkhead includes a generally planar lower panel that is fixedly attached to the back panel, a generally planar upper panel having an opening that is dimensioned to receive one or more standardized fiber optic connectors, and a connection mechanism that is configured to permit the upper panel to be positioned in a first position and a second position. The first and second positions are different angular orientations of the upper panel relative to the back panel. The connection mechanism mechanically couples an upper edge side of the lower panel with a lower edge side of the upper panel in both of the first and second positions.

Abstract: Systems, devices and methods for controlling one or more lights are disclosed. In some aspects, systems for controlling one or more lights can include an interface and a remote sensing device that is separate from and is in electrical communication with the interface. The remote sensing device can additionally include at least one sensor, for example an ambient light sensor. Each of the remote sensing device and the interface can be configured to attach to support structures via retaining features. In one aspect, the remote sensing device can include a first and a second retaining member that rotatably thread onto a main body of the sensing device and adjust according to the thickness and structure of the support structure. In another aspect, the interface can include a retention feature utilizing flexible tabs with integrated detents to accommodate variable sizes of openings of the support structure.

Abstract: A sensor module is integrated into a lighting fixture. The sensor module includes one or more environmental sensors and can be readily installed in or removed from the lighting fixture. In one embodiment, a heatsink of the lighting fixture is configured to receive the sensor module. Readings from the environmental sensors may be passed to control electronics associated with the lighting fixture and used to control the light output of the lighting fixture. The readings may also be passed on to other lighting fixtures, which may also use the readings to control their light output.

Abstract: A sensor module is integrated into a lighting fixture. The sensor module includes one or more environmental sensors and can be readily installed in or removed from the lighting fixture. In one embodiment, a heatsink of the lighting fixture is configured to receive the sensor module. Readings from the environmental sensors may be passed to control electronics associated with the lighting fixture and used to control the light output of the lighting fixture. The readings may also be passed on to other lighting fixtures, which may also use the readings to control their light output.

Abstract: Systems, devices and methods for controlling one or more lights are disclosed. In some aspects, systems for controlling one or more lights can include an interface and a remote sensing device that is separate from and is in electrical communication with the interface. The remote sensing device can additionally include at least one sensor, for example an ambient light sensor. Each of the remote sensing device and the interface can be configured to attach to support structures via retaining features. In one aspect, the remote sensing device can include a first and a second retaining member that rotatably thread onto a main body of the sensing device and adjust according to the thickness and structure of the support structure. In another aspect, the interface can include a retention feature utilizing flexible tabs with integrated detents to accommodate variable sizes of openings of the support structure.