31results about How to "Diminished depth dimension" patented technology

A shaft is rotatably supported by an upper housing (base), a raising and lowering gear for a monitor is rotatably supported by the shaft, and a pivot gear and a guide member are unrotatably supported by the shaft. A rack and a guide rail are disposed on the back face of the monitor such that the raising and lowering gear meshes the rack and the guide member slidably engages with the guide rail. When the raising and lowering gear rotates by a drive source of a first motor, the guide rail is guided by the guide member to move upward and downward, and accordingly, the height position of the monitor is adjusted. When the pivot gear rotates by a drive source of a second motor, the guide member rotates along with the shaft, and accordingly, the tilt angle of the monitor is adjusted.

Depth of an inner batten (50C) is reduced and an indoor space (A) is covered with a cover member (60), so that, though the cover member (60) is attached to conceal a lower side of a transom (20C) from an indoor side in a vision portion, the cover member (60) can be omitted in a spandrel portion where the lower side of the transom (20C) cannot be seen in order to reduce production cost, and, even after the inner batten (50C) is attached to the transom (20C), cutoff treatment can be easily conducted before attaching the cover member (60), thereby obtaining stable cutoff performance by checking coating condition of a sealing material (90).

The invention relates to an electronic image pickup system whose depth dimension is extremely reduced, taking advantage of an optical system type that can overcome conditions imposed on the movement of a zooming movable lens group while high specifications and performance are kept. The electronic image pickup system comprises an optical path-bending zoom optical system comprising, in order from its object side, a 1-1st lens group G1-1 comprising a negative lens group and a reflecting optical element P for bending an optical path, a 1-2nd lens group G1-2 comprising one positive lens and a second lens group G2 having positive refracting power. For zooming from the wide-angle end to the telephoto end, the second lens group G2 moves only toward the object side. The electronic image pickup system also comprises an electronic image pickup device I located on the image side of the zoom optical system.

The projection lens of a lamp unit is configured as a toroidal lens. The toroidal lens extends in an arcuate profile having a central axis on a plumb line passing through a predetermined point on the optical axis behind the projection lens. Vertical cross sections of the arcuate profile have the same shape. The vertical cross section profile of the rear surface of the projection lens is configured by a rearward tilted straight line. The vertical cross section profile of the front surface of the projection lens is configured by a convex curved surface formed so as to position the rear focus point of the projection lens on the optical axis.

There is disclosed a refrigeration apparatus including a cascade heat exchanger and capable of reducing the depth dimension of the apparatus itself without being influenced by the thickness dimension of an insulating material for covering the cascade heat exchanger, so that the apparatus can easily be carried indoors through a usual carrying entrance. In a refrigeration apparatus 1 including a high-temperature-side refrigerant circuit 25 and a low-temperature-side refrigerant-circuit 38, an evaporator 34 of the high-temperature-side refrigerant circuit 25 and a condensing pipe 42 of the low-temperature-side refrigerant circuit 25 constitute a cascade heat exchanger 43, and an evaporation pipe 62 of the low-temperature-side refrigerant circuit 38 is configured to cool a storage chamber 4 constituted in an insulating box body 2 to an extremely low temperature. The apparatus includes a mechanical chamber 3 which is constituted by the side of an insulating box body 2 and in which a compressor 10 and the like are installed, and an insulating structure 70 in which the periphery of the cascade heat exchanger 34 is surrounded with an insulating material is arranged in a side wall of the insulating box body 2 on the side of the mechanical chamber 3.

A vehicle lamp is provided which includes a toroidal lens 30 which extends into an arc shape so as to surround a light source 20 from a front side thereof. By adopting this configuration, light emitted from the light source 20 is allowed to emanate from the toroidal lens 30 as it is as diffuse light in a horizontal plane in which the toroidal lens 30 extends, while the light is allowed to emanate from the toroidal lens 30 as parallel light in a vertical plane. Furthermore, a front surface 30Aa of a central portion 30A of the toroidal lens 30 in the direction in which the toroidal lens 30 extends into the arc shape is formed so as to be displaced rearwards relative to an imaginary extensional plane C1 from front surfaces 30Ba of general portions 30B which are situated at both sides of the central portion 30A.

A shaft is rotatably supported by an upper housing (base), a raising and lowering gear for a monitor is rotatably supported by the shaft, and a pivot gear and a guide member are unrotatably supported by the shaft. A rack and a guide rail are disposed on the back face of the monitor such that the raising and lowering gear meshes the rack and the guide member slidably engages with the guide rail. When the raising and lowering gear rotates by a drive source of a first motor, the guide rail is guided by the guide member to move upward and downward, and accordingly, the height position of the monitor is adjusted. When the pivot gear rotates by a drive source of a second motor, the guide member rotates along with the shaft, and accordingly, the tilt angle of the monitor is adjusted.

In existing lamp unit for vehicles, the light from the semiconductor light source can not be effectively used. In the present invention, a shade (5) is arranged between the second focus (F2) of a first reflect surface (9) and a semiconductor light source (4), for cutting off a portion of the reflected light (L4) emitting from the semiconductor light source (4) and reflected by the first reflect surface (9), and using the remaining reflected light (L4) to form a predetermined distributed light pattern (P) having the cutoff lines (CL); a light shutout member (8) is provided with the fourth part (20) of the supplemental reflect surface for reflecting the light (L3) from the semiconductor light source (4) toward the shade (5); a through hole (24) is arranged on the shade (5) for the reflected light (L17) from the fourth part (20) of the supplemental reflect surface illuminating therethrough toward the planar reflect surface (7). As a result, as a distributed light pattern P4 for a overhead sign, the light (L3) from the semiconductor light source (4) can be effectively used.

The invention concerns an adjustable bed (10) having zero wall clearance and zero gravity functionality. The bed comprises a frame (20) and an adjustable mattress support platform (11) having a plurality of articulated support sections (12, 16, 18) pivotally mounted with respect to one another for relative angular adjustment, and actuator means (52) for effecting coordinated movement of the support sections to reconfigure the bed, between a flat lowered configuration and a raised configuration for supporting an occupant in a zero gravity recumbent position. The actuator means comprises a single actuator, preferably a single linear actuator.

An image processing apparatus, including: a first unit; a second unit; and a pair of first hinges spaced apart from each other in a first direction, the first and second units being coupled through the hinges, wherein the first unit includes a supporter for supporting a recording medium and a first conveyor including a supply roller and configured such that, in a state in which recording media are set on the supporter, the first conveyor conveys the media one by one by the supply roller toward a downstream side in a conveyance direction, wherein the supporter is configured to be pivotally movable between a housed position and a use position about an axis extending, on a specific side of the first unit, in a direction parallel to the first direction, and wherein the supporter is disposed between the first hinges at least when located at the housed position.