34results about How to "Broad illumination" patented technology

A vehicle light can form a synthetic light distribution pattern with an area where a surrounding vehicle exists being made darker than an area(s) surrounding that area. The synthetic light distribution pattern can allow a sufficient illumination range and a center light intensity required for a running beam to be compatible. The vehicle light can also form a light distribution pattern with only an area where a farther surrounding vehicle exists is made dark. The vehicle light can form the light distribution pattern by overlaying a plurality of first nearby illumination areas, a plurality of first farther illumination areas, a plurality of second nearby illumination areas, and a plurality of second farther illumination areas with the respective illumination areas being divided in a horizontal direction and individually controlled in terms of light intensity so that respective vertical division lines of the illumination areas appear in predetermined order in the horizontal direction.

The invention provides a drawer type cooking device having an operation unit disposed on an upper portion of a drawer body so as to increase the height of the drawer body within a cooking device body as much as possible, capable of facilitating power supply and signal transmission between the control unit within the cooking device body and the operation unit when the drawer body is opened and closed. Slide mechanisms 4 disposed on left, right and bottom portions enabling the drawer body 2 to be moved into and out of the cooking device body 1 are composed of conductive materials, so as to provide a slidable state with constant conduction. By transmitting data via serial communication and supplying power to the operation unit from the cooking device body 1 to the drawer body 2, it becomes possible to dispose the operation unit on a door 2a being opened and closed. By forming the operation unit including a microcomputer for communication on the drawer body 2, it becomes possible to increase the ceiling height of the drawer body 2, increase the ceiling height and capacity of the heating chamber 3, and enlarge the height limitation of an object to be cooked. An illuminating light source 25 disposed on the door 2a of the drawer body 2 can also receive power supply via the arrangement described above to illuminate food loaded in the drawer body 2.

LED lighting lamps provide improved heat dissipation efficiency, wide illumination beam angles, and substantially uniform illumination intensity. Generally, the disclosed LED lamps comprise at least one LED lighting element mounted on at least one stand and a two-level heat dissipation mechanism.

Described herein are methods, devices and systems for effective, adjustable wide-field illumination. In particular resonant engines for illuminating a broad area by resonant oscillation, and methods of moving at least one mirror at or near a resonance are described. A resonant engine includes one or more mirrors that may be oscillated to reflect light from a light source(s) to create a target illumination pattern. Devices and systems in which the mirror or mirrors are oscillated at an energy-efficient manner are described. Also described are optics, control features, and techniques that may be utilized to enhance the energy efficiency of the resonant engines and system described.

A first lamp unit includes a plurality of first light-emitting elements arranged in a vehicle width direction. A second lamp unit includes a plurality of second light-emitting elements arranged in the vehicle width direction. A wiring channel of a first type lights at least one of the first light-emitting elements by supplying power thereto, thereby forming a light distribution pattern of a first type. A wiring channel of a second type connects at least one of the first light-emitting elements in series with at least one of the second light-emitting elements, and lights these by supplying power thereto, thereby forming a light distribution pattern of a second type. The position of a light-dark boundary that extends vertically in the light distribution pattern of the first type is different from the position of a light-dark boundary that extends vertically in the light distribution pattern of the second type.

A device for determining control parameters to adjust the light distribution of a vehicle headlight when driving through a curve, from a first or second angle relative to a longitudinal axis of the vehicle, the first angle determined from first information,

• • namely measurements and/or parameters to be adjusted via actuators of the vehicle, such as speed, steering angle, yaw rate, steering angle of the front wheels, distance from a second vehicle, or road progression ahead of the vehicle,
  • with a control means to determine the first angle the second angle,
  • with an interface to connect the device with actuators to adjust the light distribution of the headlights, where control parameter-signals can be provided.

An image capture device, which illuminates a subject and receives light reflected from the subject to capture an image of the subject, is provided to achieve a small-size configuration and easy assembly. A plurality of light-emitting elements are mounted in positions on the periphery of an image sensor, and a light-guiding member guides light from the plurality of light-emitting elements to the image capture range for illumination. And protrusions of the light-guiding member are pressed by the lower end of a hood which blocks light from outside the image capture range, and the hood upper end is pressed by a filter. Slits are provided in the hood lower end. Even in assembly where a visible light filter is installed on the hood and fixed to an outer case, the occurrence of gaps between the hood and the visible light filter can be prevented through the spring action of the slits.

A laser transmitter projects a beam of laser light outward while raising and lowering the beam. The beam may define a conical surface of varying inclination. The transmitter includes a laser source that directs a beam generally vertically, and a beam diverting element. The beam diverting element is positioned in the path of the beam, intercepting the beam and redirecting it. The beam emerges from the transmitter as a non-vertical beam that is raised and lowered. The diverting element may include a pair of mirrors configured as a pentaprism, with one of the mirrors pivotable. Alternatively, the diverting element may include a plurality of micro mirrors. Also, the diverting element may include a conical reflector and an annular lens which is cyclically raised and lowered. The beam may be raised and lowered cyclically according to a predetermined schedule, or it may be raised and lowered non-cyclically.

An imaging device includes: an illumination portion which includes a light-transmitting transmission region and a light-shielding non-transmission region, has a plurality of simultaneous light-emitting elements that have a light-transmitting property, include a plurality of first light-emitting elements in which turning-on and turning-off are simultaneously controlled and a plurality of second light-emitting elements in which turning-on and turning-off are simultaneously controlled, and are provided in the transmission region, and has a plurality of individual light-emitting elements in which turning-on and turning-off are individually controlled and which are provided in the non-transmission region; an imaging portion which receives light that is reflected from a subject illuminated by the illumination portion and is transmitted through the transmission region; and a switching portion which selectively turns on the plurality of first light-emitting elements and the plurality of second light-emitting elements in a first period in which the plurality of individual light-emitting elements are turned off, and turns off the plurality of simultaneous light-emitting elements in a second period in which the plurality of individual light-emitting elements are turned on.

A light unit for a bicycle includes a main light which has a detector and a micro-calculator located therein. The detector is electrically connected to the micro-calculator. The detector detects the turning angle and the lateral force of the bicycle when the bicycle turns, and sends the turning angle and the lateral force to the micro-calculator. Two secondary lights are located on two sides of the main light. Each of the two secondary lights is electrically connected to the micro-calculator which controls the operation of each of the two secondary lights to provide wider illumination when the bicycle turns.

An image measuring system comprises a projection optical system, having a light source for emitting and projecting an illumination light through a light projection optical axis. The system further comprises a photodetection optical system, having an image pickup element, which receives a retroreflection light from an object to be measured through a photodetection optical axis, and a control arithmetic device for processing the data taken by the image pickup element. The projection optical system comprises a light projection unit for directing the light projection optical axis toward the object to be measured and projecting the illumination light, a projection angle changing means for rotating the light projection unit in an elevating and a horizontal direction and for changing a projection angle of the illumination light, and a direction detecting means for detecting a direction angle of the light projection optical axis with respect to the photodetection optical axis.

A light guide for endoscopes constituted by a plurality of bundled optical fibers is formed such that it is flexible at portions where flexibility is required, and such that the durability thereof is improved. The light guide for endoscopes is constituted by a plurality of bundled optical fibers, for propagating an illuminating light beam that enters from a light input end facet thereof to a light output end facet thereof, to emit the illuminating light beam onto a portion to be observed. The light guide includes: a plurality of comparatively large diameter optical fibers; and a plurality of comparatively small diameter optical fibers which are provided at the side of the light guide toward the light output end facet thereof. Each of the comparatively large diameter optical fibers is connected to a plurality of the comparatively small diameter optical fibers.

A light emitting element is mounted on the surface of a board. The light emitting element emits light. The light passes through a translucent optical member. The light enters the translucent optical member through a incident surface. The lines of protrusions make the incident surface jagged. The jagged surface resulting from the protrusions enables diffusion of the light entering through the incident surface. The light spreads along the surface of the board. Simultaneously, the emitted light is partly reflected on the incident surface. The reflected light is reflected on a reflecting surface placed behind the light emitting element. The reflected light then enters the translucent optical member. The translucent optical member is thus allowed to illuminate over a wide range with a sufficient brightness. An impressive illumination can be realized.