Abstract:
The light-emitting device (100) includes a substrate (101) and a plurality of light-emitting sections. A first light-emitting section is made up of LED chips (102) and a first fluorescent-substance-containing resin layer (107), and a second light-emitting section is made up of LED chips (102) and a second fluorescent-substance-containing resin layer (108). The first fluorescent-substance-containing resin layer (107) and the second fluorescent-substance-containing resin layer (108) are provided in a plurality of locations such that the fluorescent-substance-containing resin layers for the different light-emitting sections are adjacently arranged.
Abstract:
A lighting device may be provided to include a heat sink (400) which includes a receiving recess (470) and a top surface (410) including a hole (411-3); a light source module (200) which includes a substrate (210) disposed on the heat sink (400), a light emitting device (213) disposed on the substrate and a pad (215) disposed on the substrate (210); a power supplier (600) which is disposed in the receiving recess (470) of the heat sink (400) and includes a projection (610) outputting a power signal for driving the light source module (200); and a connector (250) which is coupled to the hole (411-3) of the heat sink (400), includes a contacting part (251-1, 251-2) electrically connected to the pad (215) of the light source module (200), and is electrically connected to the projection (610) of the power supplier (600), wherein the connector includes a recess (253-1) to which the projection (610) of the power supplier (600) is coupled and a connection portion (253-3) which is disposed in the recess and is electrically connected to the contacting part (251-1, 251-2), and the projection (610) of the power supplier (600) includes an electrod plate (611) which outputs the power signal and is connected to the connection portion (253-3).
Abstract:
The present invention is directed to a compact omnidirectional light emitting diode (LED) light. In one embodiment, the compact omnidirectional light includes a metal base including a stalk, a power supply coupled to the metal base, a reflector including one or more reflector cups coupled to the metal base and enclosing the power supply, an LED circuit board including one or more LEDs coupled to the reflector and a lens coupled to the metal base and enclosing the LED circuit board and the reflector, wherein the lens surface is smooth.
Abstract:
A device according to embodiments of the invention includes a light emitting diode (LED) mounted on an electrically conducting substrate. A lens is disposed over the LED. A polymer body is molded over the electrically conducting substrate and in direct contact with the lens.
Abstract:
Provided is a light-emitting diode (LED) lighting device having a block assembly structure that makes it easy to design and manufacture a variety of light distribution characteristics. The LED lighting device includes: a housing body whose bottom is open in which a number of assembly holes are respectively formed on assembly planes that are formed on a lateral surface of the housing body; a number of light source blocks including a number of LED modules, angle control portions each of which has a multistage slope plane on which each LED module is mounted, and a number of radiating fins that are provided at the rear surface of the multistage slope plane, in which the respective light source blocks are disposed and combined in the respective assembly holes of the housing body so as to realize a predetermined light distribution type; and a protective cover that covers the lower portion of the housing body.
Abstract:
A lighting apparatus (100) is provided including a base portion (102) defining an axial opening (200), a main portion (104) located above the base portion (102) and having a generally-cylindrical upper portion (128), and a light module (106) secured to a top portion of the generally-cylindrical upper portion (128) of the main portion (104). The axial opening (200) of the base portion (102) is sized to receive at least a light module of another lighting apparatus therein in a stacked position.
Abstract:
A lighting device may be provided to include a heat sink (400) which includes a receiving recess (470) and a top surface (410) including a hole (411-3); a light source module (200) which includes a substrate (210) disposed on the heat sink (400), a light emitting device (213) disposed on the substrate and a pad (215) disposed on the substrate (210); a power supplier (600) which is disposed in the receiving recess (470) of the heat sink (400) and includes a projection (610) outputting a power signal for driving the light source module (200); and a connector (250) which is coupled to the hole (411-3) of the heat sink (400), includes a contacting part (251-1, 251-2) electrically connected to the pad (215) of the light source module (200), and is electrically connected to the projection (610) of the power supplier (600), wherein the connector includes a recess (253-1) to which the projection (610) of the power supplier (600) is coupled and a connection portion (253-3) which is disposed in the recess and is electrically connected to the contacting part (251-1, 251-2), and the projection (610) of the power supplier (600) includes an electrod plate (611) which outputs the power signal and is connected to the connection portion (253-3).
Abstract:
The invention relates to an explosion-proof luminaire (1) comprising a luminaire housing (2), at least one light source (3) arranged in the luminaire housing (2), a reflective device (4) assigned to the light source (3) for deflecting light emitted by the light source (3) in the direction of a light exit opening (5) in the luminaire housing (2) and a cooling device (6) assigned to the light source (3) and/or the luminaire housing (2). In particular, an inner side (7) of the luminaire housing (2) is formed, at least pointwise, as a reflective device (4) and/or the cooling device (6) is formed in one piece with the luminaire housing (2).