45results about How to "Avoid shear stress" patented technology

The invention relates to a system comprising a pinion (5) and a toothed wheel (7), both mounted coaxially with respect to a pivoting arbor (3). According to the invention, the gearing system (1) has an arrangement (21) for linking said pinion to said wheel to prevent relative movement of the one with respect to the other. The invention also relates to the methods for making the toothed wheel (7) and for the final assembly of said gearing system (1). The invention relates to timepieces.

The invention relates to a stirring element of a stirrer for mixing and / or homogenizing or suspending flowable media, which is substantially spherical in shape. The invention further relates to a stirrer having at least two stirring elements according to the invention.

The present invention provides an improved horseshoe, which comprises a hoof engagement surface that is provided with an unevenness and makes contact with the hoof in such a manner that the shoe will fit more closely to and immovably against the bottom of the hoof. The unevenness provides an anti-slip interference with fibrous material of the hoof to lessen relative movement between the horseshoe and the hoof, both during assembly thereto by a farrier and during galloping of the horse, desirably inhibiting shearing stresses being placed on the securement nails. The anti-slip interference is provided by an array of bumps or hemispherical shaped domes that project upwardly from the hoof-engaging surface to displace fibrous hoof material and complete an interlocking engagement therewith in an amount sufficient to inhibit relative movement but not create discomfort to the horse.

A cross-linked coupling for crank-connecting rod piston compressor is disclosed. A short cylindrical cross pin with screwed through hole perpendiculart to its basic line is used to pivot a cross body having a single pin hole seat to the connecting rod with smaller fork end. Said pin hole seat has two through holes coaxial with the sliding cylindrical surface. The piston rod whose end has external screw passes through the bigger hole on pin hole seat and then is turned into the screwed through hole on cross pin. A short cylinder at the end is inserted in another hole to locate the cross-linked coupling. A cross nut has a cylindrical end, which is also inserted said bigger hole to lock the piston rod to the cross-linked coupling.

A device for interconnecting a card including at least one first fluid channel, emerging from a connection side parallel to a support side, the interconnection device including: a first surface configured to receive the support side of the card; a second surface parallel to the first surface, from which a second fluid channel emerges; and a mechanism to hold the card in place, configured to hold a connection side of the card pressed against the second surface of the device, such that first fluid channel is in fluid connection with the second fluid channel.

The invention provides an aluminum alloy superstructure block hoisting method, which comprises the following steps of (1) determining the quantity of multiple hoisting points, positions of multiple hoisting points and an integral hoisting method of an aluminum alloy superstructure block according to the weight of the aluminum alloy superstructure block, a structural form and a gravity core; (2) producing a hoisting bracket for hoisting the aluminum alloy superstructure block; (3) designing and installing temporary reinforcement onto the aluminum superstructure block according to the integral hoisting method; (4) installing one hoisting hanger on each position of multiple hoisting points; and (5) vertically joining the hoisting hangers with the hoisting bracket through a wire cable, and utilizing the hoisting bracket to carry out the multipoint vertical hoisting. According to the hoisting method, not only can the deformation control problem for hoisting the aluminum superstructure block be solved and sectional construction of the aluminum alloy superstructure block be realized, but also the hoisting hangers and the temporary reinforcement for the hoisting are convenient to disassemble, and the block hoisting time can be shortened.

The present invention relates to a method of constructing a band type fiber reinforcement material for a reinforced-soil retaining-wall structure which enables quick and easy connection of a band type fiber reinforcing material, provides various connection methods therefor, and prevents stress from being concentrated in a connection part with a facing member during the sinking of a reinforced soil body, including: inserting a band type fiber reinforcement material into reinforcement material insertion members provided in facing members standing at a front of a reinforced soil mass (G) such that the facing members are adjacent to each other in leftward and rightward directions; spreading the band type fiber reinforcement material on the reinforced soil mass and laying and hardening a backfill material on the band type fiber reinforcement material and the reinforced soil mass; and repeatedly carrying out the first step and the second step until a predetermined height is reached.

The invention relates to a system including a pinion (5) and a toothed wheel (7) coaxially mounted relative to a pivoting arbor (3). According to the invention, the gear system (1) includes a securing device (21) between the pinion and the wheel so as to prevent any relative movement of one with respect to the other. The invention also relates to methods of manufacturing the toothed wheel (7) and the final assembly of the gear system (1). The invention concerns the field of timepieces.

A gas flow reversing element (1) using a gas source (14) under overpressure, in particular suction gas, for selectively generating a gas flow (8) from or to a pipe connection (6), in particular Can be connected to the patient's airway, the air flow reversing element (1) is designed as a main part (2) and an additional branch part (3), the main part (2) at least includes an inflow area (9), a nozzle area ( 15) and a mixing zone (16), the inflow zone (9) connects the pressure connection (4) for connection to the gas source (14) to at least one closable outlet hole ( 5), and the branch piece (3) connects the nozzle area (15) of the main part (2) to the pipe joint (6), wherein the nozzle (7), especially the injection nozzle, is configured and arranged in the nozzle area (15) , so that when the outlet hole (5) is opened, the air flow (8) flowing to the outlet hole (5) along the first flow path (20) through the main part (2) can be generated in the branch part (3) The gas flow (8) flowing to the outlet hole (5) along the second flow path (21), wherein the first flow path starts from the pressure joint (4), sequentially passes through the inflow zone (9), the flow zone (28) , the nozzle area (15), and enter the mixing area (16) through the nozzle (7), and the second flow path starts from the pipe joint (6), and passes through the branch piece (3), through the nozzle area (15) , and through the mixing zone (16), wherein the air flow reversing element (1) also includes a bypass pipe (18), which connects the pressure joint (4) and the pipe joint (6), so that the air flow (8) can Flow along a third flow path (22) via the inflow zone (9), the bypass tube (18) and the branch piece (3), wherein at least the bypass tube (18) and the flow zone (28) are closed by at least one The element (19) is closable so that the gas flow (8) can bypass the nozzles (7) in the nozzle zone (15) along the third flow path (22) via the bypass line (18). The invention also relates to a method of controlling a patient's exhalation.

PURPOSE: A valve train for an internal combustion engine is provided to prevent the displacement force of the switching element from acting in the axial direction of the valve lifter shaft, thereby reducing abnormal twist and deformation of the valve lifter. CONSTITUTION: A valve train for an internal combustion engine comprises a main valve lifter which rotates around a valve lifter shaft(2) in a rotational direction(D) by a first cam of a cam shaft, and a switching valve lifter(20) which rotates around the valve lifter shaft by a second cam(21) of the cam shaft. The switching valve lifter comprises a switching element with a switching pin(31) and a stopper(32). The stopper is arranged in the main valve lifter or the switching valve lifter. The switching pin is guided to slide in the progress direction from the main valve lifter or the switching valve lifter, where the progress direction is vertical to the valve lifter shaft.