87results about How to "Improve installation rigidity" patented technology

To provide an internal combustion engine of a vertical shaft type, in which leakage of an oil from a crankcase and an oil pan is effectively prevented, which has high mounting rigidity relative to a working machine and, also, which is capable of being easily serviced, the combustion engine includes a vertically extending crankshaft (9) having a pair of upper and lower crank webs (14A and 14B), a crankcase (1) accommodating the crankshaft (9) and including an oil pan (2), and a crankcase cover (3) mounted on an upper surface (1a) of the crankcase (1) to cover the crankcase (1). The upper surface (1a) of the crankcase (1) is positioned above the upper crank web (14A).

A vehicle door mirror mounting structure for mounting a door mirror on a side door having a door body that includes an outer panel and an inner panel that are joined to each other, and also having a door sash that is provided at the upper part of the door body to form an outer frame. A door mirror installation section for installing the door mirror is provided at a position that is located at the upper side of the door body and in front of the door sash with respect to the front-rear direction of the vehicle.

A swing arm support structure is provided in a motorcycle, in which first and second support arm portions are provided on a front portion of a swing arm. The support arm portions are pivotally supported by a power unit through first and second pivot shafts, so that rigidity and strength of the paired support arm portions is ensured. A flange is formed on the first pivot shaft, which extends at least partially up to an outer edge of a power unit case and projects radially outwardly from an end portion of the first pivot shaft adjacent the case. The flange portion is removably attached to the case. An outer end of an output shaft extends through and is supported by the first pivot shaft, and this outer end projects outwards of the first support arm portion. A drive gear is fixed to the outer end portion of the output shaft.

To achieve downsizing and weight reduction of a derailleur shaft and the mounting structure thereof and to improve the rigidity of the derailleur shaft without increasing the thickness thereof more than necessary. A transmission case is divided into left and right halves, and the left and right halves are provided with bosses therein having holes opposing each other. The bosses are brought into abutment with each other and united by fitting tightening bolts to the holes of the bosses and tightening the same. A sleeve-shaped derailleur shaft is fitted on the outer periphery of the bosses to support and mount the derailleur shaft. The derailleur shaft includes a hole at the shaft end thereof. A mounting position of the derailleur shaft is achieved by a pin inserted into the hole and a hole provided on one of the cases.

A mounting structure 10 having improved stiffness characteristics. The mounting structure 10 includes a pillar 14 which forms a portion of a vehicle body 12 and which operatively supports a vehicle door which is selectively attached to the pillar 14 by hinges 16. The structure 10 includes a pair of "closed-loop" beads which are formed around hinges 16, and which increase the stiffness characteristics of the pillar 14 and of the vehicle door.

A trailing arm mounting structure is capable of size reduction as well as weight saving of a trailing arm bracket while ensuring mounting rigidity. In the trailing arm mounting structure, a clearance is formed between an outer sidewall of a side member and an inner sidewall of an extended portion of a side sill. In addition, an inner sidewall of a mounting bracket for a trailing arm is attached to an outer sidewall of the side member while the mounting bracket for the trailing arm is disposed in the clearance. An outer sidewall of the mounting bracket for the trailing arm is attached to the inner sidewall of the extended portion of the side sill, and a base end portion of the trailing arm is supported between the inner sidewall and the outer sidewall of the mounting bracket for the trailing arm.

A flowmeter of Coriolis type includes a supporting base that supports a pair of fluid pipes in a manner capable of being vibrated, and a frame fixed to the supporting base. The frame is integrally formed with a mounting portion disposed between the fluid pipes and having a thickness that does not interfere with the fluid pipes, a reinforcing portion disposed at the outer circumference of the mounting portion and enhancing the rigidity of the mounting portion, and a fixing portion for being fixed to the supporting base. The reinforcing portion has an outer wall portion that protrudes at least to one side of the thickness direction of the mounting portion, and substantially continuously surrounds the outer circumference of the fluid pipes. Penetrating portions for disposing the coils corresponding to respective magnetic substances mounted on the fluid pipe are formed in the mounting portion.

The drive torque of a motor for driving a vehicle wheel, as shown in (a), during the period between the start of steering t1 and an instant t2 when a prescribed interval TM1s has passed, is controlled so as to be a value which is temporarily increased from the intended motor torque by just the amount indicated by the solid line waveform in (a); and during the period between t2 and an instant t4 when a prescribed interval TM2s has passed, the drive torque of a motor for driving a vehicle wheel is controlled so as to be a value which is temporarily decreased from the intended motor torque by just the amount indicated by the solid line waveform in (a). In the t1 - t2 interval (initial stage) of (c), the turning moment becomes large according to the difference between the turning moment of the turning direction of the outer wheel Mout and the turning moment (restoring moment) of the turning direction of the inner wheel Min. The increment in the yaw rate promptly rises in the initial stage of the instant t1 - t2 as indicated by a solid line in (b), in accordance with the increase in the apparent lateral force caused by the increase in the turning moment, thus the yaw rate is caused to rise without delay, and thereby it is possible to greatly improve the steering response (initial turning characteristics) of the vehicle.

A vehicle body front structure provided with a charging port device to which a charging connector is selectively connected is provided. The vehicle body front structure includes: a pair of longitudinal members extending in a fore and aft direction on either side of a vehicle body; a bulkhead including an upper member extending laterally and having lateral ends connected to the respective longitudinal members; a lateral member extending laterally behind the bulkhead, and having lateral ends connected to the respective longitudinal members; and a support member having a front part fixed to the upper member and a rear part fixed to the lateral member to support the charging port device.

A door device for a vehicle includes: a cable (35) for connecting a handle device (31), which is mounted to the door panel (23) of the door body (21) covering a door opening (14) of the vehicle body (11) in an openable and closable manner, and a lock unit (32), with which the door body (21) is engaged. A cable holding member (58) mounted to the handle device (31) is displaced between an engagement position (A1) at which the cable holding member (58) engages with the cable (35) and a non-engagement position (A2) at which the cable holding member (58) does not engage with the cable (35). An interference section (44) is provided to the door panel (23). The interference section (44) is configured in such a manner that, in a state in which the handle device (31) is mounted to the door panel (23), the interference section (44) interferes with the cable holding member (58) located at the non-engagement position (A2) and does not interfere with the cable holding member (58) located at the engagement position (A1).

A structure for installing a rear cushion in a motorcycle having a hydraulic shock absorber with a subsidiary cylinder used as the suspension device. The swing arm includes a pair of left and right arm portions, the respective front portions being coupled with a first cross member and a second cross member. A pair of cushion brackets extend in the back-and-forth direction with the upper portion of the rear cushion sandwiched therebetween. The front and rear ends of the cushion brackets are coupled to the first and second cross members, thereby supporting the cushion brackets at both ends. An upper portion of the rear cushion fits within a space enclosed by the first and the second cross members, and the left and right cushion brackets, and is coupled to the intermediate portion of the left and right cushion brackets.

In order to increase tension rod support rigidity and sub crush can attachment rigidity, while forming a front sub-frame front section using a plate material, the present invention has a configurationwhereby: a sub crush can attachment section (12) and a tension rod support section (14) are provided in a front section of a front sub frame (5); a front-side vehicle body attachment section (13) isprovided between both; a suspension cross member (73) is provided in the front-side vehicle body attachment section (13) and the tension rod support section (14); the front-side vehicle body attachment section (13) comprises a sub crush can weight transfer member (30); and an upper surface section (21) of the front-side vehicle body attachment section (13) and a partition (33) in the sub crush canweight transfer member (30) extend in the vehicle front / rear direction, separated from each other.

It is an object of the present invention to provide an engine supporting structure for a working vehicle that can realize the simplification of manufacturing processes and the reduction of costs. With respect to an engine supporting structure for a working vehicle (backhoe) that includes an engine and a plurality of engine mounts to support the engine, the engine supporting structure includes one piece of mount plate to support the plurality of engine mounts, wherein the mount plate is supported by a stand having a skin-stressed sheet-metal body construction, surrounding with beams welded to the left and right end portions of the mount plate, and with beams welded to the anterior and posterior end portions of the mount plate.

An annular mount base 11 continuously protruded from one face of a panel main body 3 and surrounding a through hole 9 has a dual structure of an inner mount base portion 17 and an outer mount base portion 19 which are joined to each other by four parts of a joint mount base portion 21. A skin layer 23 is formed at the surface of a door inner panel 1. An expanded layer 25 with a large number of pores is formed inside the panel main body 3. The mount base 11 and a part of the panel main body 3 between the inner mount base portion 17 and the outer mount base portion 19 are formed of a solid layer 27 having no expanded layer 25. Whereby, a lightweight resin molded article including a high-rigidity mount base is provided.

A door structure of a vehicle comprises a door trim and a door trim frame that combines with the door trim to increase stiffness of the door trim.