Abstract:
A backlight module and a backlight lamp guide for the backlight module. The backlight lamp guide (5) comprises: a fixed base (3); a lamp clamping portion (2) provided on a first side of the fixed base (3); and a snap-fit structure (4) provided on a second side of the fixed base (3) opposite to the first side, wherein the snap-fit structure (4) comprises a snap-fit resilient structure (44); when the snap-fit structure (4) and a back cover (7) are snap-fitted, the snap-fit resilient structure (44) is elastically deformed, to exert an elastic retaining force on the back cover (7) in a direction away from the fixed base (3). The snap-fit resilient structure (44) facilitates a sufficient snap-fit of the snap-fit structure (4) with the back cover (7) of a backlight module.
Abstract:
There is proposed a lamp support and corresponding connectable swivel assembly for a luminaire. The lamp support comprises a locking arrangement adapted to engage with the interlock element of the swivel assembly. The locking arrangement comprises a deformable portion mounted on a surface of the lamp support. The deformable portion is adapted to be movable relative to the surface of the lamp support so as to move from a first position, in which the swivel assembly is connectable to the locking arrangement so as to permit connection of the swivel member from the lamp support, to a second position, in which the locking arrangement cooperates with the interlock element to prevent removal of the swivel member from the lamp support.
Abstract:
The invention relates to a light-emitting textile element with a free connection system, comprising an electroluminescent lamp comprising a substrate layer (2), a first electrode (3), an active dielectric layer (4), an intermediate electroluminescent layer of zinc sulfide (5), a second electrode (6), a transparent conductive layer (7) and an upper layer (8) which is joined to the substrate layer (2), where the upper layer (8) has holes (9) along the length thereof, designed to receive metal pins (10) of an extractable connecting part (11) which connects to the electronic control system and the power supply. The connecting part (11) is a clip with a system for wirelessly connecting to the electronic control system and the power battery. Preferably, it is a strip which is continuously produced with a non-plastic textile substrate layer (2) and a reflective upper layer (8).
Abstract:
A flipping installation device for LED strip lighting includes an installation frame (10), a house (20), at least one link mechanism (30), and at least one clamping mechanism (40). Each of the at least one link mechanism includes a first link (31) mounted on the installation frame, a second link (32) disposed on the house, and a third link (33) rotatably connected between the first and second links. The first and second and third links is perpendicular to each other in the cross section perpendicular to the axial direction of the house when the house has been installed into the installation frame. Each of the at least one clamping mechanism includes a catch head (41) disposed on the installation frame, and a resilient lock (42) disposed on the house and coupled to the catch head. The link mechanism and the clamping mechanism are located on the opposite side of the house.
Abstract:
Assembly system for attaching a lamp, in particular for attaching an electric cabinet lamp to an electric cabinet, comprising a support structure for the attachment of a lamp, and an attachment device for attaching a lamp to the support structure, wherein the support structure comprises a plurality of shaped elements, wherein the attachment device comprises at least two attaching elements for the connection with at least two shaped elements of the support structure, and wherein at least one of the attaching elements is movable relative to the other attaching element for the tool-free engagement of one of the shaped elements.
Abstract:
A method for increasing the yield of a flowering plant includes positioning a lighting device with respect to a lower minor height of the flowering plant. The method includes irradiating the lower minor height with light in a predetermined range of the electromagnetic spectrum for a duration of a flowering stage of a life cycle of the flowering plant. The lighting device may be an annular clamshell design that circumscribes a stalk of the flowering plant. Such a design may be clamped to the stalk via a spring force of a pair of spring-loaded clamps. The lighting device may include a plurality of red LEDs arranged in an arcuate manner. At least 80 percent of the light from the lighting device is in the predetermined range of 580 nm to 780 nm, and may be in the range of 600 nm to 700 nm.
Abstract:
A cross member of a T bar ceiling system is designed to be part of the ceiling grid system and adapted to releasably receive a strip light beneath the cross T member. The strip light provides support flanges beneath the T member for supporting a. ceiling panel edge at the conventional height. With this arrangement the grid system can be installed in the normal manner with these cross T's at positions where strip lights are to be secured. The strip lights can be installed at a later point in time. Preferably a. push. type releasable connection is used.
Abstract:
A reflecting structure of the invention includes at least one light source (203) emitting light; and at least one reflector (A01) having an inner surface comprising a plurality of strip reflecting surfaces (202a, 202b, 202c ..., 202z) connected to each other, and each of the strip reflecting surfaces (202a, 202b, 202c ..., 202z) having an inclined angle different from the inclined angles of other strip reflecting surfaces (202a, 202b, 202c ..., 202z), wherein the reflector (A01) has an inward reflecting region and an outward reflecting region, wherein the light source (203) is disposed in the inward reflecting region, and the inward reflecting region locates on an upper portion of the reflector (A01) and the outward reflecting surface locates on an lower portion of the reflector(A01); light from the light source (203) is reflected by the inward reflecting region at least once to reach the outward reflecting region and reflected by the outward reflecting region at least once to reach an object