Abstract:
A constant-speed control device for a vehicle including a fuel cut device and a suspending device which suspends a fuel cut operation. An actuator is provided for controlling a throttle valve so that the vehicle runs at a constant speed. The fuel cut device carries out a fuel cut when the degree of opening of the throttle valve is smaller than a predetermined value. The suspending device suspends operation of the fuel cut device until the vehicle speed becomes higher than a target value by a predetermined value.
Abstract:
A trigger type sprayer which comprises a sprayer body whose inner lateral walls are provided with a pair of mutually facing engagement grooves, and wherein a trigger of the sprayer has a notch cut out in the upper end portion of the front wall and a pair of lugs formed on the outside of the upper end portions of the lateral walls. A nozzle fixed to the sprayer body extends outward through the notched portion of the trigger, and has a pair of axially extending stoppers integrally formed on the outer surface of the nozzle. The trigger can be rotatably connected to the sprayer body with ease due to the paired lugs being snap-fitted to the engagement grooves of the sprayer body and the upper end portions of the lateral walls of the trigger are prevented from being thrown inward by the stoppers of the nozzle and in consequence coming off the sprayer body.
Abstract:
A semiconductor graphene is used for a channel layer, and a metal graphene is used for electrode layers for a source, a drain, and a gate which serve as interconnections as well. An oxide is used for a gate insulating layer. The channel layer and the electrode layers are located on the same plane.
Abstract:
A trigger-type pump dispenser capable of preventing deformation of a channel of a coupling part when a piston is vertically pushed down by a trigger even in a structure in which the coupling part bends and a nozzle does not vertically move. The dispenser has a base main body 1 having the cylinder part 11 inside and attachable to an opening part of a container main body. A cover body 4 detachably latched with the base main body. A piston structure 2 composed of the nozzle part 21 engaged with the base main body, the piston part 23, and a bendable coupling part coupling the nozzle part and the piston part. Many fins 22A are formed on the periphery of the coupling part 22 so that an interior channel is not deformed.
Abstract:
The present invention provides a pump dispenser capable of preventing deformation of a channel of a coupling part when a piston is pushed down by a trigger even in a structure in which the coupling part bends and a nozzle does not vertically move.A trigger-type pump dispenser for jetting liquid, which is in a cylinder part, from a nozzle part to outside by vertically sliding a piston part in a cylinder by turning a trigger, wherein the trigger-type pump dispenser has: a base main body 1 having the cylinder part 11 inside and attachable to an opening part of a container main body; a cover body 4 detachably latched with the base main body; a piston structure 2 composed of the nozzle part 21 engaged with the base main body, the piston part 23, and a bendable coupling part coupling the nozzle part and the piston part; and the trigger 3 turnably attached to the base main body for vertically sliding the piston part 23 in the cylinder. Many fins 22A are formed on the periphery of the coupling part 22 so that an interior channel is not deformed.
Abstract:
A method of forming a MEMS structure over active circuitry in a semiconductor body includes forming active circuitry in a semiconductor body, and forming the MEMS structure over the active circuitry, wherein at least a portion of the MEMS structure spatially overlaps the active circuitry.
Abstract:
Disclosed is a microsize driving device in which falling of track proteins from an arrangement of motor protein molecules arranged on a linear track groove provided on a substrate is suppressed and utilization of kinetic energy of track proteins as a driving energy is made possible by controlling the moving direction to a single direction. Namely, provided is a microsize driving device which comprises a substrate, an arrangement of motor protein molecules such as, for example, kinesin molecules deposited on the bottom of a linear track groove provided thereon and track proteins such as, for example, microtubules disposed thereon and is characterized in that the said linear track groove has side surfaces shaped in such a structure as to permit a linear movement of the track proteins moving in a certain specific direction but to inhibit the track proteins moving in the reverse direction thereto causing reversion for the movement in the above mentioned specific direction.
Abstract:
A liquid discharging apparatus having a simple construction and capable of reducing the number of components with high efficiency is provided. The liquid discharging apparatus for discharging a liquid contained in a container from a nozzle head that is mounted on a cap attached to an opening of the container and is movable up and down together with a piston is characterized in comprising a virgin seal body positioned around a piston engagement hole formed on the cap and integrated with the cap so as to be separable from the cap by way of a thin portion, a vertical slit defined in the virgin seal body and having a pinch portion provided with a slip stopping portion at the opened portion thereof, wherein the nozzle head is fixed to its top dead center by the virgin seal body when the liquid discharging apparatus is not used.
Abstract:
A cylinder 12 is positioned along the vertical axis. A piston 16 and a trigger 18 are provided respectively with a pair of racks 40 capable of meshing with a pair of pinions 38 of a housing 14. By way of the pinion pair 38, pivoting motion of the trigger can be converted into a reciprocating movement of the piston along the vertical axis. It is thus possible to increase the amount of discharge of liquid in one stroke of the trigger without inducing for example a drop in operability upon molding.