Abstract: The invention provides a lighting module for use in a reflector which comprises at least one first light source emitting first light having a first light distribution with a first main direction and at least one second light source emitting second light having a second light distribution with a second main direction opposite to the first main direction. A base connects the lighting module to a luminaire socket. The base has a longitudinal axis extending from the base. The first light source is positioned on the longitudinal axis and the second light source is positioned at a non-zero distance to the longitudinal axis. The first main direction and the second main direction are substantially perpendicular with respect to the longitudinal axis.

Abstract: A retrofit light bulb (1) is disclosed. The retrofit light bulb (1) comprises a substantially flat heat spreader (2) having an opening (5); first and second cover members (7, 8) sandwiching the heat spreader (2), each cover member (7, 8) having a protruding portion (9, 10) directed away from the heat spreader (2) and aligned with the opening (5), the two protruding portion (9, 10) together forming a compartment (11); and one or more solid state lighting devices (18) mounted on a carrier (19) arranged in said compartment (11), in thermal contact with the heat spreader (2), wherein said one or more solid state lighting devices (18) are arranged so that each protruding portion (9, 10) receives light directly from each solid state lighting device (18). The compartment thus forms a single light mixing chamber in which light emitted by all of the SSL devices is mixed.

Abstract: A method for manufacturing a rotationally adjustable lamp (1) is disclosed. The method comprises: molding a shell (6) having a guiding slot (7a); providing a base (2) configured to receive the shell (6) and connect to a lamp socket; inserting the shell (6) into the base (2) so as to enclose the guiding slot (7a) by the base (2); and forming in the base (2), when the shell (6) is inserted into the base (2), a notch (5) protruding into the guiding slot (7a), the notch (5) being movable along the guiding slot (7a) so as to allow for the shell (6) to be rotated relative to the base (2).

Abstract: A lighting device comprising at least one light source (4) adapted for, in operation, emitting light, a heat sink element (3) comprising a first part (31) on which the at least one light source is arranged and a second part (32), the second part comprising a plurality of ribs (341, 342, 343, 344) extending from the first part, and a cover element (2) comprising an outer surface (21) adapted for forming a light exit surface of the lighting device, the cover element (2) comprising a first plurality of grooves (231, 232, 233) comprising a V-shaped cross-section and being provided in the outer surface of the cover element, the cover element being arranged such as to extend over the heat sink element in such a way that the first plurality of grooves extends over the plurality of ribs of the second part of the heat sink element.

Abstract: The invention provides a lighting module for use in a reflector which comprises at least one first light source emitting first light having a first light distribution with a first main direction and at least one second light source emitting second light having a second light distribution with a second main direction opposite to the first main direction. A base connects the lighting module to a luminaire socket. The base has a longitudinal axis extending from the base. The first light source is positioned on the longitudinal axis and the second light source is positioned at a non-zero distance to the longitudinal axis. The first main direction and the second main direction are substantially perpendicular with respect to the longitudinal axis.

Abstract: The present invention relates to a flat lighting device (1) comprising a carrier (2) including a thermally conductive layer (7), at least one solid state light source (3) arranged on a front side of the carrier (2), and an electrically insulating cover member (5a, 5b) in thermal contact with said front side and a back side opposite said front side. The cover member (5a, 5b) is adapted to transfer heat from said carrier (2) out of the lighting device. The cover member (5a, 5b) comprises an optical structure (4) arranged on the carrier (2) in front of the at least one light source (3) and adapted to direct the light emitted by the at least one solid state light source (3).

Abstract: An illumination device includes a carrier, at least two light sources mounted on a first side of a carrier, and an envelope at least partially enclosing light sources and the carrier. At least one of the light sources is mounted on a portion of the carrier and at least another one of the light sources is mounted on a different portion of the carrier, and the carrier is folded such that the second side of the first portion of the carrier at least partially faces the second side of the second portion of the carrier.

Abstract: A lighting device (100, 400) comprising a cover having an inside (128) and an outside (129). The cover defines a light emitting portion (112), a driver circuitry chamber (114), a transition portion (113) between the light emitting portion (112) and the driver circuitry chamber (114), and a cap portion (115) at the opposite end of the driver circuitry chamber (114) compared to the transition portion (113). The lighting device (100, 400) further comprises a carrier (104) arranged in the light emitting portion (112) and solid state light sources (106) mounted on the carrier (106). The lighting device (100, 400) further comprises a thermally conductive inlay (120, 121, 420, 421) in thermal contact with the cover and arranged along the inside of the cover for transferring heat from the light emitting portion (112) to at least one of the transition portion (113), the driver circuitry chamber (114) and the cap portion (115).

Abstract: The present invention relates to an end cap (104) for a tubular light source the tubular light source configured to be arranged in a lighting fixture comprising a socket, wherein the end cap (104) comprises a housing portion having a connection end, two connector pins (116) at least partly arranged on an outside of the housing portion at the connection end, wherein the connector pins (116) are configured to fit in the sockets of the lighting fixture, a first spring loaded switching element (110) configured to be alternately positioned in an actuated state and a non-actuated state, wherein the first spring loaded switching element (110) protrudes at the connection end of the housing portion in the vicinity of the connector pins (116) when positioned in its non-actuated state, and a second spring loaded switching element (112) configured to be positioned in an actuated state and a non-actuated state, wherein the switching elements (110, 112) are configured to be individually positioned in their respective actua

Abstract: A lighting device includes a first and second opposed light sources, a first and second electrically insulating heat sink elements having overlapping portions separated by a distance, and a first and second flexible electrically conducting layers arranged in contact with the first and second light sources, respectively. The first and second electrically conducting layers are mounted to the first and second heat sink elements, respectively. The first and second heat sink elements each include a recess having shape of the first and second electrically conducting layers, respectively.

Abstract: The present invention relates to a flat lighting device (1) comprising a carrier (2) including a thermally conductive layer (7), at least one solid state light source (3) arranged on a front side of the carrier (2), and an electrically insulating cover member (5a, 5b) in thermal contact with said front side and a back side opposite said front side. The cover member (5a, 5b) is adapted to transfer heat from said carrier (2) out of the lighting device. The cover member (5a, 5b) comprises an optical structure (4) arranged on the carrier (2) in front of the at least one light source (3) and adapted to direct the light emitted by the at least one solid state light source (3).

Abstract: The invention provides a lighting module for use in a reflector which comprises at least one first light source emitting first light having a first light distribution with a first main direction and at least one second light source emitting second light having a second light distribution with a second main direction opposite to the first main direction. A base connects the lighting module to a luminaire socket. The base has a longitudinal axis extending from the base. The first light source is positioned on the longitudinal axis and the second light source is positioned at a non-zero distance to the longitudinal axis. The first main direction and the second main direction are substantially perpendicular with respect to the longitudinal axis.

Abstract: A retrofit light bulb (1) is disclosed. The retrofit light bulb (1) comprises a substantially flat heat spreader (2) having an opening (5); first and second cover members (7, 8) sandwiching the heat spreader (2), each cover member (7, 8) having a protruding portion (9, 10) directed away from the heat spreader (2) and aligned with the opening (5), the two protruding portion (9, 10) together forming a compartment (11); and one or more solid state lighting devices (18) mounted on a carrier (19) arranged in said compartment (11), in thermal contact with the heat spreader (2), wherein said one or more solid state lighting devices (18) are arranged so that each protruding portion (9, 10) receives light directly from each solid state lighting device (18). The compartment thus forms a single light mixing chamber in which light emitted by all of the SSL devices is mixed.

Abstract: A lighting device comprising a housing (102) with a driver electronics module (104) including driver circuitry for driving light sources and an electronics connector (106). The lighting device further comprising a circuit board (108) arranged in the housing, including a board connector (110). Furthermore lighting device comprises at least one light source (109) arranged on the circuit board and being in connection with the board connector, wherein the electronics connector and the board connector extend transverse to a planar extension of the circuit board. The board connector and the electronics connector are aligned so that they have an area of overlap, wherein the board connector and the electronics connector are biased against each other such that there is at least a line of contact which provides a galvanic connection, and wherein a heat induced electrical interconnection is provided along the line of contact. Such a connection is time- and cost efficient to assemble compared to a wire connection.

Abstract: The present invention relates to a lighting device (11) comprising a light emitting portion with at least two solid state light sources, SSL (18). The light emitting portion includes a first cover member (12a) with a first light source carrier (13a) and a first light transmitting portion (14), a second cover member (12b) with a second light source carrier (13b) and a second light transmitting portion (14). The first and second cover member are arranged such that a first light transmitting portion is aligned with the second SSL to allow transmission of light emitted from the second SSL through the first cover member, and a second light transmitting portion is aligned with the first SSL to allow transmission of light emitted from the first SSL through the second cover member. According to this design, light emitted from an SSL on one cover member will be transmitted through the other cover member. Dissipation of heat from each SSL may be provided in the other direction, i.e.

Abstract: The present invention relates to a lighting device (100) (100), comprising at least one light emitting element (102) configured to emit light, a housing (300) having an elongated hollow base portion (302) and a light exit portion (304), wherein the elongated hollow base portion (302) has a polygonal cross section, and a heat transferring arrangement (200) formed from a folded sheet of a thermo conducting material inserted into and fixed inside of the housing (300), the heat transferring arrangement (200) comprising a first section (202) onto which the light emitting element (102) is arranged and adapted to receive heat generated from the at least one light emitting element (102) when emitting light, and a second section (204) having an outer surface which once fixed inside of the housing (300) is formed to be in abutment with an inner surface of the elongated hollow base portion (302) of the housing (300), so that the generated heat is thermally transferred to the housing (300).

Abstract: The present invention relates lamp (10), comprising: a carrier (12); a series (28a) of solid state light sources (30) mounted on the carrier; and a cover member (32a) covering the series of solid state light sources, wherein openings (40) are provided in the carrier between the solid state light sources of said series of solid state light sources, such that light emitted from the series of solid state light sources and reflected back towards the carrier by the cover member is allowed to pass the carrier through the openings. The present invention also relates to a lighting fixture comprising at least one such lamp.

Abstract: A lighting device comprising a housing (102) with a driver electronics module (104) including driver circuitry for driving light sources and an electronics connector (106). The lighting device further comprising a circuit board (108) arranged in the housing, including a board connector (110). Furthermore lighting device comprises at least one light source (109) arranged on the circuit board and being in connection with the board connector, wherein the electronics connector and the board connector extend transverse to a planar extension of the circuit board. The board connector and the electronics connector are aligned so that they have an area of overlap, wherein the board connector and the electronics connector are biased against each other such that there is at least a line of contact which provides a galvanic connection, and wherein a heat induced electrical interconnection is provided along the line of contact. Such a connection is time- and cost efficient to assemble compared to a wire connection.

Abstract: A method for manufacturing a rotationally adjustable lamp (1) is disclosed.

Abstract: A lighting device (1) is provided comprising a light source (5), an electronic carrier (20) comprising a first portion (21) for carrying the light source and a second portion (22) for providing an electrical connection to the light source, and a heat sink structure (10) arranged for a dissipation of heat from the electronic carrier. The heat sink structure comprises at least one lid portion (11, 12) arranged at an opening (14) of the heat sink structure, wherein the opening is at least partially closed by the at least one lid portion. Further, the first portion of the electronic carrier is supported by at least one of the at least one lid portion, and the second portion of the electronic carrier is at least partially enclosed by the heat sink structure. The invention hereby provides improved heat dissipation and a facilitated manufacturing of the lighting device.