41results about How to "Small inclination angle" patented technology

An openable covering construction for pergolas and verandas, characterized in that said openable covering construction comprise a plurality of adjoining and partially overlapping bands longitudinally mounted on a supporting frame by a driving system allowing each said bands to be rotated about a longitudinal axis thereof parallel to a sloping side of said covering construction, said driving system driving said bands to at least two positions, a closed position, thereat said bands are partially overlapped onto one another and substantially parallel to the covering construction plane, and an opened position thereat each said band is rotated to a substantially vertical condition with respect to said covering plane, each said band comprising a section member including a contoured surface including, at a side thereof, a perpendicular side wall and, at an opposite side thereof, a channel defining curved wall, thereby a surface directly exposed to rain of said covering construction forms a water collecting and disposal of channel.

A pixel in the panel includes sub-pixels 100a, 100b, and 100c. Bank 105a separates organic light-emitting layer of sub-pixel 100a and organic light-emitting layer of a sub-pixel of a pixel that is adjacent to sub-pixel 100a. Bank 105d separates organic light-emitting layer of sub-pixel 100c and organic light-emitting layer of a sub-pixel of a pixel that is adjacent to sub-pixel 100c. Bank 105b separates organic light-emitting layer of sub-pixel 100a and organic light-emitting layer of sub-pixel 100b. Bank 105c separates organic light-emitting layer of sub-pixel 100b and organic light-emitting layer of sub-pixel 100c. Inclination angle θcb of sidewall 105cb of bank 105c located on the side of sub-pixel 100c is set to be larger than other inclination angles θaa, θba, θbb, θcc and θdc.

A friction roller (10) includes a support roller (11) and an annular elastic ring (15) which it externally fitted to the support roller (11). The support roller (11) is divided into two portions in a thickness direction, that is, a first divided roller (12) and a second divided roller (13). A flange (127) is formed on one side of the first divided roller (12), and a taper face (128) is formed in an outer peripheral face of the first divided roller (12). A knurling portion (129) is formed in the taper face (128). A flange (136) is formed on one side of the second divided roller (13), and a taper face (137) is formed in an outer peripheral face of the second divided roller (13). A knurling portion (138) is formed in the taper face (137). Meanwhile, taper faces (151, 152) expanding outward are formed in an inner peripheral face of the elastic ring (15). The taper faces (151, 152) of the elastic ring (15) are engaged with the taper face (128) of the first divided roller (12) and the taper face (137) of the second divided roller (13).

An actuation force generating arrangement for a centrifugal clutch includes a housing, a supporting element, and a plurality of centrifugal members. The housing is rotatable about an axis, the housing having a plurality of first supporting areas which each extend radially with respect to the axis. The supporting element is axially movable with respect to the housing and has a plurality of second supporting areas which each extend radially with respect to the axis, each second support area being separated from a respective first support area by an axial distance which decreases with radial distance from the axis. Each of the first and second support areas has a first portion and a second portion which lies radially outside of the first portion, the first and second support areas being inclined with respect to each other at a relative inclination angle which is greater at the second portions than at the first portions. The centrifugal members are supported between respective pairs of first and second support areas, each centrifugal member being radially displaceable by centrifugal force along a respective pair of support areas.

The present disclosure relates to the technical field of semiconductors, and discloses a semiconductor device and a manufacturing method therefor. The manufacturing method includes: providing a semiconductor structure, where the semiconductor structure includes an active region and a gate structure located in the active region, the gate structure at least including a gate electrode, and the active region exposing an upper surface of the gate electrode; forming a surface insulator layer on the upper surface of the gate electrode; forming a patterned interlayer dielectric layer on the semiconductor structure, where the interlayer dielectric layer covers the surface insulator layer, and has a first through hole exposing a portion of the active region; and forming a conductive contact layer passing through the first through hole and contacting with the active region. The present disclosure may reduce a leakage current which is possibly generated between the conductive contact layer and the gate electrode, so as to improve the performance of the device.

The invention relates to a coupling device for coupling with a tube, comprising at least one pressure element for exerting a clamping force on the tube, wherein the said at least one pressure element is one of a series of correspondingly embodied neighboring pressure elements, wherein each pressure element of said series comprises a first pressure element segment and a second pressure element segment, and wherein the first pressure element segment is placed proximally and the second pressure element segment distally with respect to the tube, and that of each pressure element the first pressure element segment is provided with a protrusion extending transversely to the longitudinal direction of the tube, and that said protrusion extends into a slot that is provided in a directly neighboring second pressure element segment that forms part of a neighboring pressure element.

Among end portions of a plurality of organic compound layers patterned by photolithography, an end portion in an area that is not located between luminescent elements and that is located in an area covered with a second electrode is formed to have a smaller inclination angle than that of an end portion located between the luminescent elements.

The invention discloses an environment-friendly vibration transverse discharging device for grain production. The environment-friendly vibration transverse discharging device comprises a device main body, a cyclone dust collector is fixedly mounted on the outer surface of the upper end of the device main body, an exhaust fan is in bolted connection with the outer surface of one side of the cyclonedust collector, a sucking pipe is arranged on one side of the exhaust fan, a conveying pipe sleeves the upper end of the sucking pipe, and the end, away from the sucking pipe, of the conveying pipe is fixedly connected with the exhaust fan; and the side, away from the cyclone dust collector, of the upper end of the device main body is provided with a pre-screening plate, mounting blocks are arranged at the front end and the rear end of the pre-screening plate correspondingly, the mounting blocks are connected with the device main body in a welded mode, connecting holes are formed in the innersurfaces of the mounting blocks, connecting shafts penetrate through the interiors of the connecting holes, and one ends of the connecting shafts are connected with the pre-screening plate in a welded mode. The environment-friendly vibration transverse discharging device has the beneficial effects that the feeding speed is adjustable, grain can be quickly treated, the effect of treating the grainis better, and the environment-friendly vibration transverse discharging device is worthier of use and promotion.