113results about How to "Seek miniaturization" patented technology

Disclosed is a compact brake cylinder device which, while avoiding increases in the size of the device, is capable of increasing the braking force outputted from a brake output unit which moves together with a rod. A rod (22) is provided inside of a cylinder body (20) so as to freely move in the advancing and retracting directions of the cylinder shaft direction. A piston (24) partitions a pressure chamber (44) inside of the cylinder body (20), surrounding the circumference of the rod (22), and moves in a linear direction parallel to the movement direction of the rod (22). By supplying a pressure fluid to the pressure chamber (44), the piston (24) resists the biasing force of a biasing spring (23) and moves in the retracting direction relative to the cylinder body (20). At that time, a force-multiplication mechanism (25) converts the linear direction drive force generated by the piston (24) to a rotational direction, moves the rod (22) in the advancing direction, and multiplies the drive force from the piston (24) to act on the rod (22). A brake output unit (21) moves together with the rod (22) in the advancing direction and outputs a braking force.

It is an object of the present invention to provide a technique which can reduce the number of parts and the weight of a vehicle body in a motorcycle having a canister at a lower portion of the vehicle body. A canister layout structure in a motorcycle includes a swing arm vertically swingably supported to a rear portion of a body frame and supporting a wheel, a canister located below the swing arm for trapping an evaporative fuel evaporated in a fuel tank, and a center stand pivotably supported to a lower portion of the body frame for making the body frame stand on a road surface when parking. The center stand is retractable to keep a horizontal position substantially parallel to a road surface during running. The canister is located above the center stand in its retracted condition.

A waveguide structure (8) includes a movable waveguide body (10) and a fixed waveguide body (12) opposed to the movable waveguide body (10) at a predetermined distance apart. At least the movable waveguide body or the fixed waveguide body, a groove or grooves (13, 29) are formed in the opposite surfaces of the waveguide bodies. Outside at least one of the grooves (13, 29), projections (44) having a height of approximate Lambada/4 (Lambada is the wavelength of the electromagnetic wave used) are provided.

Provided is a brake cylinder device such that there exists a gap adjustment mechanism, that it is possible to prevent, at low cost, susceptibility to the influence of ambient environmental factors such as temperature and humidity, and that the radial dimensions of a cylinder body can be made compact. A threaded shaft (24) connected to a brake output section (21) is placed inside a guide tube (25) installed in a piston (22). A pressure spring (26) applies force to the threaded shaft (24) in the braking direction. A clutch nut (27) threadably engages with the tip portion of the threaded shaft (24). A front clutch (28) and a rear clutch (29) are disposed in such a way as to be capable of abutting the front side and the rear side, respectively, of the clutch nut (27). A stop (30) is disposed in such a way as to be capable of moving relative to the clutch nut (27) and the guide tube (25) along the axial direction of the threaded shaft (24), and the movable range is restricted with respect to the cylinder body (20). An adjustment spring (31) is provided in such a way that one end thereof abuts the stop (30), and that it is possible to apply force to the clutch nut (27) in the anti-braking direction.

A manufacturing system of an optical display device of the present invention is a manufacturing system of an optical display device that bonds an optical material to an optical display component and is provided with a primary bonding device that bonds a first surface of a plurality of optical display components to the primary optical material sheet while unwinding a band-shaped primary optical sheet from a primary whole roll where the sheet has a larger width than the width of the display region of an optical display component in the width direction of the component perpendicular to the transport direction of the optical display components for a plurality of optical display components transported on a line; a primary cutting device that cuts out a primary optical bonding body that includes a single optical display component and the primary optical material overlapping the single optical display component from a bonding sheet by cutting the part opposite the primary optical component sheet facing the display region and the remaining part positioned on the outside of the opposite part, and cuts out the primary optical material as the optical material having a size corresponding to the display region from the primary optical component sheet; and a secondary bonding device that bonds secondary optical parts to the second surfaces of the optical display components in the bonding part of the primary optical bonding material while transporting the plurality of secondary optical materials with a separator sheet as the carrier after the band-shaped secondary optical component sheet having a width corresponding to the display region in the width direction of a component for a plurality of bonding bodies of primary optical parts transported on the line is wound out together with the separator sheet from the secondary whole roll; cutting is performed along the width direction each time the secondary optical component sheet is unrolled to the length corresponding to the display region in the secondary optical component sheet; and the secondary optical materials are formed as optical parts having sizes corresponding to that of the display region.

A display driver includes: a data input section to which display data or command data is input; a display processing section which includes a data line driver section driving the data lines based on the display data input through the data input section; a control register for controlling the display processing section; a command signal generation section which generates a command signal which changes at a predetermined timing and is used to identify the command data; a command extraction section which extracts the command data from data such as the display data input through the data input section based on the command signal; and a decoder which decodes the command data extracted by the command extraction section. A value corresponding to a decoding result of the command data is set in the control register. The display processing section is controlled based on the value set in the control register.

A vehicle comprising a vehicle body frame (11), a front cowl (72) provided in front of the vehicle body frame, and a headlight unit (59) mounted within the width, in the vehicle's lateral direction, of the front cowl. The headlight unit has, on the opposite sides thereof, recesses (115L, 115R) recessed inward in the vehicle's lateral direction. Air intake openings (111L, 111R) for introducing air in front of the front cowl into the inner side of the front cowl are formed between the headlight unit and the front cowl.

The invention provides an acrylic acid series resin particle capable of forming an optical material with uniform light diffusion property, a coating combination and the optical material. The acrylic acid series resin particle is characterized in that: value alpha, value gamma and value eta meet a predetermined relationship, and CV value is 30-40%, meanwhile value A is less than 0.75, and value B is 1.1-1.6, wherein the value alpha is cumulative 10% particle size by volume basis/ cumulative 10% particle size by count basis, the value gamma is cumulative 50% particle size by volume basis/ cumulative 50% particle size by count basis, the value eta is cumulative 90% particle size by volume basis/ cumulative 90% particle size by count basis, the CV value is particle size by volume basis, the value A is cumulative 10% particle size by volume basis/ cumulative 50% particle size by volume basis, and the value B is cumulative 90% particle size by volume basis/ cumulative 50% particle size by volume basis.