Abstract: A light-emitting diode module includes a printed circuit board with a light-emitting diode array mounted on first surface. A secondary lens array is positioned over the light-emitting diode array and includes a secondary lens element for each light-emitting diode element in the light-emitting diode array. A lens holder is mounted to the printed circuit board and configured to retain each secondary lens element of the secondary lens array in alignment in an x-y plane with respect to each light-emitting diode element of the light-emitting diode array. The printed circuit board further includes a first locating feature corresponding to a second locating feature of either the secondary lens array or the lens holder. The locating features align the secondary lens array with respect to the light-emitting diode array on the printed circuit board.

Abstract: Described herein is a surge protection device for protecting luminaires from high surge voltages. The surge protection device comprises shunt impedance elements positioned in connections between a driver and a light-emitting diode module to direct current generated by differential mode surges and/or common mode surges to ground so that light-emitting diode elements in the light-emitting diode module are not destroyed. Series impedance elements may also be provided between the driver and the shunt impedance elements.

Abstract: A method of providing power for non-lighting related loads in which operate during daylight hours when a lighting dedicated switched mains network (220) is switched off is described. The method comprises charging a battery (240) at night from the mains network when the luminaire is switched on so that the energy/power stored in the battery can be used during the day. A luminaire (200) comprises a luminaire light engine (210) connected the mains network (220), an AC/DC down converter (230) also connected to the mains supply so that the battery (240) is charged during the hours of darkness. The battery (240) is connected to provide power to a DC non-lighting related load (250) which is operable both during daylight hours and hours of darkness.

Abstract: A light-emitting diode module includes a printed circuit board with a light-emitting diode array mounted on first surface. A secondary lens array is positioned over the light-emitting diode array and includes a secondary lens element for each light-emitting diode element in the light-emitting diode array. A lens holder is mounted to the printed circuit board and configured to retain each secondary lens element of the secondary lens array in alignment in an x-y plane with respect to each light-emitting diode element of the light-emitting diode array. The printed circuit board further includes a first locating feature corresponding to a second locating feature of either the secondary lens array or the lens holder. The locating features align the secondary lens array with respect to the light-emitting diode array on the printed circuit board.

Abstract: Described herein is modular luminaire assembly which is readily assembled and installed in the field while providing rigidity, structural integrity and water-tightness. The assembly comprises a plurality of luminaire modules mounted on a supporting pole. The plurality of luminaire modules comprises three luminaire modules which are connected to one another by respective module connectors and to the supporting pole by module connector. Each luminaire module has at least one interface for engaging with a complementary interface of an adjacent luminaire module or the supporting pole to provide a water-tight connection, each pair of modules being fixed together by a module connector.

Abstract: A a system for a luminaire comprising a lighting and a non-lighting module. A controller is provided for controlling the operation of a communication unit and a signalling unit in accordance with environmental parameters sensed by a sensor unit, the sensor unit generating an event signal when the environmental parameters exceed a predetermined threshold and the signalling unit providing an alarm.

Abstract: An LED module is formed using a method of mounting secondary lens arrays over light-emitting diode arrays on a printed circuit board. In the LED module, a lens array assembly is mounted to a printed circuit board. The lens array assembly comprises a silicone free form lens array which is mounted in a lens holder by aligning markings on the lens holder with markings on the free form lens array. The lens array assembly is correctly positioned, in an x-y plane, on the printed circuit board by the engagement of positioning pins formed on a surface of the free form lens array with corresponding recesses formed in the printed circuit board and is retained in the correct position by clips integrally formed with the lens holder. The positioning pins are shaped to allow for thermal changes due to the operating temperature range of the LED module.

Abstract: Method for the operation and the expansion of a network of lights, each light in the network including a control module which is assigned to a group, each control module being in communication with a group controller as well as control modules in the same group. The network can be expanded by installing (19) new lights with their associated control modules, and each new control module scans (20) its environment and transmits environmental information to a central server where the environmental information is analyzed and the new control modules are allocated (21) into groups. After allocation to a group in which control modules may be moved from one group to another or a new group is formed, the new control modules are available for normal operation. This process is repeated for each new light and associated control module.

Abstract: Method for controlling the light distribution of a traffic route luminaire (1) in a network of luminaires, which is preferably also organized as a mesh network. The luminaire has a luminaire head having a settable light module and a controller, the light distribution of the luminaire being variable. The luminaire communicates luminaire data to at least one server, the luminaire data being luminaire-specific and including the installation location of the luminaire. The method comprises the steps of: —automatically allocating a light distribution to the luminaire (1) in accordance with the communicated luminaire data; —automatically setting the light module on the basis of the allocated light distribution; and determining, by said at least one server, a light distribution class of the traffic route luminaire on the basis of a traffic route topology (2,3,4,5,6).

Abstract: Described herein is a light array for luminaires which comprises a plurality of coloured light-emitting diode (LED) elements that are arranged within the array to provide better uniformity of illumination. The light array may be rectangular and include equal numbers of colored LED elements of four colors. The red LED elements are grouped towards the center of the light array with the other colors dispersed throughout the array. Two or more light arrays can be placed adjacent one another to increase the illumination produced whilst maintaining the benefit of better uniformity of illumination.

Abstract: Described herein is a luminaire controller which is mountable within a luminaire head by means of fastening areas provided in a wall forming part of an upper housing part and/or a baseplate, the upper housing part and the baseplate forming a body for the luminaire controller. A flexible light guide is provided for transmitting light from the exterior of the luminaire head to a light sensor located within the controller. A lens may be provided at one end of the light guide at the wall of the luminaire head with the other end of the light guide being adjacent the light sensor. A terminal strip and an antenna jack are provided to which respective electrical connections can be made and an antenna can be connected by means of an antenna cable.

Abstract: Described herein is an LED module (500) comprising a PCBA (200) having an array of LED elements, a secondary lens array (300) and a lens holder (510). The secondary lens array (300) has a peripheral lip (360) and a plurality of boss portions (330a) which are compressed between the lens holder (510) and the PCBA (200) to form water-tight gaskets. The secondary lens array (300) also forms gaskets around wires connecting with terminal blocks on the PCBA (200) and effectively seals with a base plate (100) on which the PCBA (200) is mounted.

Abstract: Described herein is a luminaire controller for a luminaire in which dimming signals can be provided to control the operation of the luminaire. The controller also includes an energy measurement module connected to a mains supply, a sensor module, a power switch, a central processing module and a ZigBee transceiver module. The controller, in addition to providing dimming signals in accordance with ambient lighting conditions sensed by a photocell in the sensor module, provides efficient energy metering. In one embodiment, the luminaire controller is directly mountable on a luminaire for control thereof.

Abstract: Described herein is a dual-mode luminaire controller for a luminaire in which dimming signals can be provided to control the operation of the luminaire using signals in accordance with either ‘0-10V’ or DALI protocols. The controller includes a central processing module, an isolated supply in which both a DALI interface and a ‘0-10V’ interface are provided. The luminaire controller also includes a ZigBee transceiver module through which signals can be provided for selecting one of the interfaces in accordance with the operating protocol of the luminaire with which the luminaire controller is associated.