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    • 9. 发明公开
    • MULTIFUNCTIONAL MODULE-TYPE LIGHT
    • EP3153764A4
    • 2017-11-22
    • EP15799363
    • 2015-05-26
    • CHINOLITE (HK) LTD
    • IP POK SUM
    • F21S2/00F21V21/14F21Y101/00
    • F21S2/005F21S2/00F21V3/00F21V21/14F21V21/30F21V23/008F21V29/76F21V29/763F21W2131/10F21Y2115/10
    • Disclosed is a multifunctional module-type light, comprising a light-emitting module (1) and a supporting assembly (2). The light-emitting module (1) is composed of at least one LED module (10), and a plurality of the LED modules (10) are connected via a connecting assembly (3). The supporting assembly (2) comprises a supporting frame (21) and a positioning assembly (22), wherein the supporting frame (21) is installed on the light-emitting module (1) in the manner that the angle thereof is adjustable via the positioning assembly (22), and the supporting frame (21) has installation feet (211) for connecting the light-emitting module (1) and a supporting surface (212) for connecting the two installation feet (211). The supporting surface (212) is a flat surface or an inclined surface, and the light-emitting module (1) is secured on the flat surface via the supporting surface (212). Such multifunctional module-type light uses a modularized designed unit structure, which breaks the power constraints that a conventional lamp has only a single-housing. The light-emitting module (1) can be formed by connecting a plurality of the independent LED modules (10) via the connecting assembly (3), and a suitable number of the LED modules (10) can be chosen according to the requirements of the outdoor environment so as to adapt to different environments. The supporting frame (21) is installed on the light-emitting module (1) in the manner that the angle thereof is adjustable, and the illuminating range can be adjusted according to different using requirements to meet different using demands.
    • 10. 发明公开
    • LAMP FOR VEHICLES
    • EP3109541A4
    • 2017-11-15
    • EP15749612
    • 2015-02-13
    • STANLEY ELECTRIC CO LTD
    • YATSUDA YASUSHIHIRASAWA HIROSHI
    • F21S8/12
    • B60Q1/0023B60Q1/0076B60Q2300/112B60Q2300/42B60Q2300/45F21K9/64F21S41/14F21S41/16F21S41/255F21S41/675F21S45/47F21S48/1145F21S48/1258F21S48/1757F21S48/328F21V29/763G02B26/0858G02B26/105
    • A vehicle lamp using a light polarizer that two-dimensionally scans excitation light forms a light intensity distribution having relatively high light intensity in a partial region (such as a region near the center), the light intensity distribution being required for a vehicle lamp. The vehicle lamp configured to form a predetermined light distribution pattern includes: an excitation light source; a light polarizer that two-dimensionally scans the excitation light, and that includes a mirror unit that reflects excitation light incident from the excitation light source, a first actuator that oscillates the mirror unit around a first axis by using resonant drive, and a second actuator that oscillates the mirror unit around a second axis orthogonal to the first axis by using nonresonant drive, the light polarizer being arranged while the first axis is included in a vertical plane, as well as the second axis is included in a horizontal plane; a wavelength converter having a scan region in which a light intensity distribution is formed by drawing a two-dimensional image with the excitation light that is two-dimensionally scanned by the mirror unit; a control unit that controls the first actuator by using the resonance drive as well as the second actuator by using the nonresonant drive so that the two-dimensional image is formed in the scan region with the excitation light that is two-dimensionally scanned by the mirror unit; and an optical system that projects the light intensity distribution formed in the scan region to form the prescribed light distribution pattern. The control unit controls the second actuator to relatively reduce an oscillation rate around the second axis of the mirror unit, while the two-dimensional image is drawn in a partial region in the scan region with the excitation light that is two-dimensionally scanned by the mirror unit, to form the light intensity distribution having relatively high light intensity in the partial region in the scan region.