Abstract:
A jewelry lamp is provided, wherein when white light illuminants and chromatic light illuminants emit light at the same time, light emitted from the white light illuminants is a white light with a constant range of spectrum, which turns into a full spectrum white light after mixing with chromatic light with specific spectra emitted from the chromatic light illuminants. When the full spectrum white light is shining on an object, it has a superior chromogenesis and color rendering, so as to enable the object viewed by a human eye or a camera to manifest a vivid color. On the other hand, when the full spectrum white light is shining on an object such as a diamond, a reflection effect with a chromatic color can be generated due to a variation of angles of incidence of each chromatic light.
Abstract:
This invention discloses a portable rechargeable night light, which comprises a replaceable luminous decorative object, a night light with an electric accumulator for emergency lighting, a base including an embedding module; a control circuit including a transformer for providing an operating power supply and a charge power supply through an electrically connected device with different voltages and setting a plurality of operating modes by a programmable control unit, and users select the setting through the module switch; a light emitting component electrically connected to and controlled by said control circuit to emitting light from a light emitting device from an end surface of the base to a luminous decorative object; and a luminous decorative object embedded on the base, of which the light emitting mode can be changed to select different operations and sensing effects of the light.
Abstract:
A lamp for growing plants includes a first set of orange light emitting diodes that have a peak wavelength emission of about 612 nanometers, a second set of red light emitting diodes that have a peak wavelength emission of about 660 nanometers and a third set of blue light emitting diodes that have a peak wavelength emission of about 465 nanometers. The lamp also includes a green light emitting diode that has a wavelength emission that is between 500 and 600 nanometers. The green light emitting diode provides a human observer with an indication of general plant health.
Abstract:
A high performance color mixing system combines colored light beams from three primary color sources into a composite light beam. Each light source assembly can be individually dimmed to control the color of the composite beam. Each primary color beam can be varied in hue and saturation by the use of pivoting dichroic filters, thereby providing improved performance and increased capability. This system is capable of producing deeply saturated colors in all hues, and does not comprise performance in white, provides good color balance and sufficient intensity when the dichroic filters are pivoted to a position parallel to the light rays of the beam.
Abstract:
The invention provides a light generating device (1000) configured to generate device light (1001), wherein the light generating device (1000) comprises: a first light source (110) configured to generate one or more of UV and blue first light source light (111), wherein the first light source (110) is a first laser light source (10); a second light source (120) configured to generated green second light source light (121), wherein the second light source (120) is a second laser light source (20); a third light source (130) configured to generate red third light source light (131), wherein the third light source (130) is a third laser light source (30); a fourth light source (140) configured to generate blue fourth light source light (141), wherein the fourth light source (140) is a fourth laser light source (40); a first luminescent material (210) configured to convert at least part of the first light source light (111) into first luminescent material light (211) having an emission band having wavelengths in one or more of (a) the green spectral wavelength range and (b) the yellow spectral wavelength range, wherein the first luminescent material (210) comprises a luminescent material of the type A3B5O12:Ce, wherein A comprises one or more of Y, La, Gd, Tb and Lu, and wherein B comprises one or more of Al, Ga, In and Sc; an optical element (430) configured to combine (i) optionally unconverted first light source light (111), (ii) the second light source light (121), (iii) the third light source light (131), (iv) the fourth light source light (141), and (v) the first luminescent material light (211), to provide device light (1001), wherein the light generating device (1000) is configured to provide in an operational mode white device light (1001) comprising at least the luminescent material light (211) and the fourth light source light (141); and a control system (300) configured to control one or more of the light sources (110, 120, 130, 140).
Abstract:
A lighting device (100) for illuminating a surface (110). The lighting device comprises at least one first light source (120) configured to emit a first light beam (140) in a first direction and at least one second light source (130) configured to emit a second light beam (150) in a second direction that is not parallel to the first direction. The first light beam (140) has a first spectral power distribution, the second light beam (150) has a second spectral power distribution and the second spectral power distribution is different from the first spectral power distribution. The lighting device further comprises at least one light-delimiting element (160) adjustable relative to at least one of the at least one first light source and the at least one second light source. The at least one light-delimiting element is further configured to delimit the first light beam and the second light beam thereby modify an area of overlap on the surface (110) of the first light beam (140) and the second light beam (150) by forming a boundary of the light (170) separating the first light beam and the second light beam, such that the first light source is configured to illuminate at least a first region (180) of the surface, and the second light source is configured to illuminate at least a second region (190) of the surface adjoining the at least one first region of the surface.
Abstract:
An overhead lighting fixture containing both visible light sources and UV light sources is disclosed herein. UV light can sanitize/disinfect the surrounding environment after the environment over a period of about 30-45 minutes. In this way, viruses, germs, bacteria, mold, and the like can be destroyed to clean the air and/or surfaces (e.g., furniture). Accordingly, embodiments of the present invention provide a controllable UV lighting assembly that can produce UV light to sanitize/disinfect an area and can be automatically disabled to prevent UV light exposure to those in the area using a motion sensor. The lighting assembly can produce visible light while the UV light source is disabled. According to some embodiments, the duration of UV light production is controlled by a timer for power savings.
Abstract:
A light sensing module includes a substrate, a light sensing unit, a first light-transmissive component, and a light shielding layer. The light sensing unit is disposed on the substrate to sense an intensity of a working light beam, and has an upper light receiving surface and a lateral surface perpendicular to the upper light receiving surface. The first light-transmissive component covers the light sensing unit, and has a first refractive index between a refractive index of the light sensing unit and a refractive index of air. The light shielding layer surrounds the lateral surface and is covered by the first light-transmissive component.
Abstract:
A lighting system for illuminating an environment is provided. The lighting system comprises at least one controllable light source for generating a light with at least one controllable light parameter, at least one light sensor for detecting a current lighting level in the environment, and a control unit for controlling the at least one light source, wherein the control unit is configured to evaluate sensor data received from the at least one light sensor to determine a current daylight level and to control the at least one controllable light source using a predefined HCL target curve and based on the determined current daylight level. Furthermore, a method for illuminating an environment is provided.
Abstract:
A combination for illuminating the interior of a building comprises a fixture and a retrofit kit. The fixture has a base attached to a building ceiling, the fixture having a first tombstone, and a second tombstone. The first and second tombstones are configured to receive between them a fluorescent light tube. The retrofit kit is connected to the base. The retrofit kit includes a light panel, the light panel having a first side facing the fixture and an opposite second side. The light panel resides between the first tombstone and the second tombstone, and the fixture resides above the light panel. The combination is devoid of a fluorescent light tube. The base and the light panel define between them a raceway. A light emitting diode is disposed on the second side of the light panel.