Guide type jaw self-locking differential
A differential, guided technology, applied in the direction of differential transmission, belt/chain/gear, mechanical equipment, etc., can solve the problem of reducing work reliability, increasing difficulty and cost, and increasing the difficulty of controlling the axial impact of the blocking ring Strength and other issues to achieve the effect of reducing the speed difference and reducing the impact/impact strength
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Embodiment 1
[0029] Embodiment 1: Guided dog-type self-locking differential D1 with guide ratchet
[0030] FIG. 1 shows a schematic diagram of a differential D1 in its most common form. By means of a set of bolts 226, the two differential cases 220 fasten the large ring gear 222 for inputting the driving torque and the driving ring 50 with the cross shaft for distributing the driving torque from the left and right sides into one body , and defines the axis of rotation X. In the stepped holes arranged around the axis X at the inner ends of the two differential cases 220, two spline hubs 190a and 190b are rotatably arranged respectively, and spline teeth are respectively arranged on the inner peripheral surfaces of the hubs for connecting with the inserting hubs. The two half-shafts with complementary spline teeth mounted therein are respectively coupled and output drive torque thereto. Two axially movable driven rings 60a and 60b are fitted on the outer peripheral surfaces of the two spli...
Embodiment 2
[0050] Embodiment 2: Guided jaw self-locking differential D2 with lead-in ring
[0051] see Figure 6 As shown in Figure 1, the improvement of differential D2 relative to differential D1 is first of all, by adding two lead-in rings 110 as shown in Figure 7, the fixed-point lead-in mechanism in differential D1 is split into lead-in and ratchet-type fixed-point Two independent mechanisms are actuated. That is, its introduction mechanism is arranged between the introduction ring 110 and the driven ring 60 , and its fixed-point actuating mechanism is arranged between the introduction ring 110 and the driving ring 50 . Wherein, a group of at least one (three in this embodiment) introduction teeth 112 arranged on the inner peripheral surface of the introduction ring 110 radially protrudes into respective corresponding introduction tooth grooves 72 through the groove inlet 70, by setting The corresponding cooperation of the helical introduction engaging surfaces 114 and 74 with com...
Embodiment 3
[0061] Embodiment 3: Guided jaw self-locking differential without control ring
[0062] This exemplary embodiment represents the simplest embodiment of the invention. It no longer has a splined hub 190 and control ring 100, no circumferential and axial positioning mechanisms, nor any support members.
[0063] 1, the driving ring 50 of this embodiment is directly coupled with the inner peripheral surface of the torque input gear ring such as the intermediate differential by means of spline teeth on its outer peripheral surface to receive its driving torque, and through two The driven rings 60a and 60b respectively directly drive the rotation of two half-shafts, not shown, which are spline-coupled in their respective bores, see FIG. 11 . Driven rings 60a and 60b constitute a single lead-out mechanism by direct engagement between respective lead-out teeth 66a and 66b. In the driving state, there is no problem with the above-mentioned derivation mechanism.
[0064] Referring to...
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