A JOINT EMBODIMENT IN DRIVESHAFT

20230101047 ยท 2023-03-30

    Inventors

    Cpc classification

    International classification

    Abstract

    Disclosed is a driveshaft joint embodiment providing increase of driveshaft joint strength and longer life by keeping the rotational diameter fixed and providing placement under the vehicle in dimensional terms subject to the rotation diameter thanks to the embodiment provided on the driveshaft joint.

    Claims

    1. In order to solve problem ofplacement under vehicle without changing rotational angle and also provide increase in variable load carrying capacity, a driveshaft joint embodiment comprising: a universal joint body functioning as a connection member in a driveshaft; a primary yoke part and a secondary yoke part housing said universal joint body and providing angle compensation; a universal joint bearing housed on four arms of the universal joint body and providing both angle compensation and interconnection of the yoke parts and characterized in comprising; auniversal joint bearing diameter increased in order to keep rotational diameter at driveshaft fixed and provide increase in variable load carrying capacity coming onto driveshaft joint; and increased ear hole diameter to provide housing of universal joint bearing increase in variable load carrying capacity to driveshaft joint.

    2. The driveshaft joint embodiment according to claim 1, comprising universal joint bearing diameter keeping rotational diameter fixed and increasing at rate of 4%.

    Description

    BRIEF DESCRIPTION OF THE DRAWINGS

    [0015] In order to make the embodiment and additional members being subject of the present invention as well as the advantages clearer for better understanding, it should be assessed with reference to the fallowing described figures.

    [0016] FIG. 1 is a perspective view of demounted status of driveshaft joint embodiment of the invention.

    [0017] FIG. 2 is a detailed view of driveshaft joint embodiment of the invention.

    [0018] FIG. 3 is a side two-dimension view of axis size of driveshaft joint embodiment disclosed under the invention.

    [0019] FIG. 4 is a side two-dimension view of joint angle of driveshaft joint embodiment disclosed under the invention.

    REFERENCE NUMBERS

    [0020] 100-Driveshaft joint embodiment [0021] 101-Driveshaft [0022] 102- Primary yoke part [0023] 103-Secondary yoke part [0024] 104- Universal joint body [0025] 105-Universal joint bearing [0026] 105.1-Universal joint bearing diameter [0027] 106-Rotational diameter [0028] 107-Ear hole diameter [0029] 108-Universal joint body full length [0030] 109-Axis size [0031] 110-Joint angle [0032] Detail A - detail A

    DETAILED DESCRIPTION OF THE INVENTION

    [0033] FIG. 1 shows a perspective view of demounted status of driveshaft joint embodiment (100) of the invention. The invention proposes solution in the form of increasing universal joint bearing diameter (105.1) and yoke parts (102, 103) ear diameter (107) instead of increasing strength of driveshaft (101) against varying loading conditions and increasing cross body (104) arm size due to rotational diameter (106) restriction for providing placement under vehicle while performing increasing operation.

    [0034] FIG. 2 shows a perspective view of detail A (Detail-A) of driveshaft joint embodiment (100) of the invention. Driveshaft (101) comprises a primary yoke part (102) and a secondary yoke part (103) functioning as connection member and housing universal joint body (104) and angle compensation. Said universal joint body (104) hosts on four arms the universal joint bearings (105) providing angular compensation on driveshaft (101). Said universal joint bearings (105) are housed to universal joint body (104) on driveshaft (101) and provide both angular compensation and interconnection of yoke parts (102,103).

    [0035] Universal joint bearing diameter (105.1) is increased in order to keep rotational diameter (106) at driveshaft (101) fixed and provide increase in variable load carrying capacity coming onto driveshaft joint embodiment (100). Ear hole diameters (107) of primary yoke part (102) and secondary yoke part (103) are also increased based on increased universal joint bearing diameter (105.1). Thus it is provided to house universal joint bearing (105) and increase carrying capacity of variable load coming onto driveshaft joint embodiment (100).

    [0036] In an embodiment of the invention, while universal joint bearing diameter (105.1) is increased by 4% in comparison to current related art, rotational diameter (106) remains fixed Thus keeping rotational diameter (106) fixed and increasing universal joint bearing diameter (105.1) and accordingly ear hole diameter (107) provide increase in dynamic load carrying capacity.

    [0037] With driveshaft joint embodiment (100) of the invention, problem of placement under vehicle is eliminated without changing rotational diameter (106) and also variable load carrying capacity is increased.

    [0038] FIG. 3 shows a two-dimension view displaying axial size (109) of driveshaft joint embodiment (100) of present related art on the left and of the invention on the right. With driveshaft joint embodiment (100) of the invention axis size (109) is decreased in comparison to present related art driveshaft. As a result of decrease in axis size (109) weight is also decreased.

    [0039] FIG. 4 shows a two-dimension view displaying joint angle (110) of driveshaft joint embodiment (100) of present related art on the left and of the invention on the right. Joint angle (110) is decreased in driveshaft joint embodiment (100) of the invention. For instance, while joints used in the present related art have an angle of 25 degrees, the joint angle (110) of driveshaft joint embodiment (100) of the invention is 17 degrees. A decrease of 32% in joint angle (110) provides decrease in weight of driveshaft in the amount of 4.16-6.33 kg. Such weight decrease not only provides efficient use of sources, increase in fuel oil efficiency, decrease in environmental pollution but also decrease in production cost.