Oil guide component for oil guide device

Abstract

An oil guide member (80) for an oil guide device is provided. The oil guide device comprises a fixed part (60) with a main oil duct (90), a first output shaft (5) and a second output shaft (6). The oil guide member (80) includes a first chamber (81) and a second chamber (82). The outer side of the second output shaft (6) is in fluid communication with the inner space of the second output shaft (6) through a shaft passage (91). The oil guide member (80) is configured such that it can be rotationally fixedly connected to the stationary member (60). The first chamber (81) is open toward the outside in the radial direction and is configured such that it can be fluidly connected to the main oil passage (90). The second chamber (82) is open towards the inside in the radial direction and is configured such that it can be fluidly connected to the shaft passage (91). The first chamber (81) is disposed outside the second chamber (82) in the radial direction and overlaps the second chamber (82) in the axial direction. The first chamber (81) is fluidly connected to the second chamber (82) via a connection passage (83).

Description

Technical Field

[0001] The invention relates to an oil guiding component for an oil guiding device, an oil guiding device for a transmission, a transmission for a vehicle and a vehicle. Background Art

[0002] Oil guide devices are known for supplying oil to different parts of a transmission for lubrication and cooling. The transmission may include an output shaft and a gear set. Spur gears of the gear set may engage with a toothing which is non-rotatably connected to the output shaft. In known oil guide devices, oil lubrication of the gear set may be achieved through a transverse hole in the output shaft. This weakens the output shaft. Summary of the invention

[0003] The object of the present invention is to provide an improved oil guide device.

[0004] This object is achieved by an oil-conducting component for an oil-conducting device, which comprises the features of claim 1. Advantageous embodiments are subject matter of the dependent claims.

[0005] The present invention provides an oil guide component for an oil guide device. The oil guide device includes a fixed component having a main oil passage, a first output shaft and a second output shaft. The fixed component can be formed by a transmission housing. The oil guide component includes a first chamber and a second chamber. One of the first chamber and the second chamber may include a rectangular cross section. One of the first chamber and the second chamber may be annular.

[0006] The outer side of the second output shaft is in fluid communication with the inner space of the second output shaft via the shaft passage. The shaft passage may be formed in the second output shaft. The shaft passage may extend in the radial direction of the second output shaft. The shaft passage may be formed as a hole. A plurality of shaft passages may be provided. The shaft passages may be evenly distributed in the circumferential direction.

[0007] The oil guiding component is configured so that it can be rotationally fixedly connected to the fixed component. The oil guiding component may be at least partially rotationally symmetrical. The oil guiding component may be rotationally fixedly connected to the fixed component by a threaded connection. The threaded connection may be arranged in the axial direction. The oil guiding component may include a flange for the threaded connection. The oil guiding component may be pressed into the fixed component. The oil guiding component may include a non-rotationally symmetrical outer surface for preventing rotation. The non-rotationally symmetrical outer surface may be elliptical.

[0008] The first chamber is open toward the outside in the radial direction. The first chamber is configured so that it can be fluidically connected to the main oil channel. The second chamber is open toward the inside in the radial direction. The second chamber is configured so that it can be fluidically connected to the shaft passage. The first chamber is placed outside the second chamber in the radial direction and overlaps with the second chamber in the axial direction. The first chamber may overlap with the second chamber in a region. The first chamber may be placed in the second chamber in the axial direction. The first chamber may protrude beyond the second chamber in the axial direction. The first chamber is fluidly connected to the second chamber via a connecting passage. The connecting passage may be formed as a hole. A plurality of connecting passages may be arranged in the circumferential direction. The connecting passages may be evenly distributed in the circumferential direction.

[0009] If two elements are in fluid communication with each other, a fluid (e.g. oil) can be conducted from one element to another element. In this case, the fluid communication can be leak-free so that the oil is substantially completely conducted from one element to another element.

[0010] In an embodiment, two grooves may be formed on the circumferential surface of the oil guide component for accommodating the seal. The grooves may be formed on the periphery. Additional grooves may be provided. Three grooves may be provided. The cross-sections of the plurality of grooves may be different from each other. The seal may be formed by an O-ring. The first chamber may be disposed between the two grooves. When the oil guide component is mounted in the fixed component, the first chamber may be sealed to the outside via the seal.

[0011] Sealing is understood to mean limiting the leakage of a fluid, for example, from one side of a sealing member to the other side of the sealing member in an axial direction. Preferably, the fluid may be oil. In this case, a certain degree of leakage may be permitted, for example, in order to lubricate the contact surface between the sealing member and a member moved relative to the sealing member by the fluid.

[0012] In an embodiment, two cylindrical annular surfaces may be formed on the circumferential surface of the oil guide component for accommodating the sealing member. The cylindrical annular surface may be formed on the inner circumference. The sealing member may be formed by a rectangular ring. The rectangular ring may include a fastening ring on the inner circumference. The fastening ring may be rotationally fixedly connected to one of the cylindrical annular surfaces of the oil guide component. The second chamber may be disposed between the two annular surfaces. When the oil guide component is mounted in the fixed component, the second chamber may be sealed to the outside via the sealing member. A slight oil leakage may be provided in particular on the sealing member.

[0013] In an embodiment, a cylindrical receiving surface may be formed on the circumferential surface of the oil guide component for accommodating a radial shaft sealing ring between one of the annular surfaces and the outer side of the oil guide component. The cylindrical receiving surface may be formed on the inner circumference. The cylindrical receiving surface may be grooved in the circumferential direction.

[0014] In an embodiment, the discharge hole may be formed between the cylindrical receiving surface and one of the cylindrical annular surfaces in the axial direction. As a result, when the oil guide component is installed in the fixed component, overpressure of oil in the space between the radial shaft seal ring and the rectangular ring may be avoided.

[0015] In an embodiment, the first end at which the first chamber is arranged may include an outer periphery having a smaller diameter than the outer periphery of the second end located opposite in the axial direction. The second end region may be arranged on the outer side of the fixed component when the oil guide component is installed in the fixed component. The first end region may be used as an insertion aid for inserting the oil guide component into the fixed component. The first end region may include two grooves, wherein the first chamber is located between the two grooves. Another groove for the seal may be arranged on the second end region. The cylindrical receiving surface for the radial shaft sealing ring may be placed in the second end in the axial direction. The first end region may be connected to the second end region via a step portion.

[0016] In one aspect, an oil guide device for a transmission is provided. The transmission includes a first gear set having a first spur gear. According to any of the foregoing embodiments, the oil guide device includes a first output shaft, a second output shaft, a first bracket, a first bolt, a fixing component, and an oil guide component. The first bolt is configured so that it can rotatably support the first spur gear. The first bolt is connected to the first bracket. The first output shaft, the second output shaft, the oil guide component, and the first bracket can be coaxially arranged.

[0017] If two elements are connected to each other, the elements are coupled to each other via one or more connection points. However, there may be relative movement between these elements at and around the connection points, such as pivoting or translational movement.

[0018] The fixing component includes a main oil passage. The outer side of the second output shaft is fluidly connected to the inner space of the second output shaft via the shaft passage. The inner space of the second output shaft can be configured as a cavity leading to the outer side of the second output shaft in the axial direction. The main oil passage is fluidly connected to the shaft passage via the oil guide component.

[0019] The oil passage for the first gear set is formed by a gap between the first output shaft and the second output shaft. The gap may be an annular gap. The annular gap may include a step and a cross-sectional change. The oil passage for the first gear set is fluidly connected to the shaft passage. The oil passage for the first gear set may be fluidly connected to one end of the shaft passage in the direction of oil flow.

[0020] The oil passage for the first bolt is formed by a gap between the first bracket and the second output shaft. The gap may be an annular gap. The annular gap may include a step and a cross-sectional change. The oil passage for the first bolt is fluidly connected to the oil passage for the first gear set. The oil passage for the first bolt may be configured so that it is fluidly connected to the first bolt. The oil passage for the first bolt may be fluidly connected to one end of the oil passage for the first gear set in the direction of oil flow.

[0021] The oil passage for the first spur gear is formed by a gap between the first output shaft and the first bracket. The gap may be an annular gap. The annular gap may include a step and a cross-sectional change. The oil passage for the first spur gear is fluidly connected to the oil passage for the first gear set. The oil passage for the first spur gear may be configured so that it is fluidly connected to the first spur gear. The oil passage for the first spur gear may be fluidly connected to one end of the oil passage for the first gear set in the direction of oil flow. The oil passage for the first bolt and the oil passage for the first spur gear may be fluidly connected to the oil passage for the first gear set at the same position.

[0022] If the oil passage is formed by a component, the component may form the oil passage in sections. The oil passage may continue outside the component. A component may interact with another component to form the oil passage.

[0023] The oil flow direction is the direction in which the oil moves in the oil guide device in order to reach the lubricated components. In particular, the start of the oil channel is upstream of the end of the oil channel in the oil flow direction.

[0024] The second output shaft can be rotatably supported on the fixed component by the first bearing. Oil lubrication of the radial shaft sealing ring can be achieved by leakage at one of the sealing elements. Oil lubrication of the first bearing of the second output shaft can be achieved by leakage at another sealing member.

[0025] In an embodiment, the oil guide device may include a bearing that rotatably supports the first output shaft in the second output shaft.The oil passage for the first gear set may be fluidly connected to the bearing of the first output shaft.

[0026] The first output shaft may extend at least partially within the second output shaft. The first output shaft and the second output shaft may form an annular gap. A bearing seat for a bearing of the first output shaft may be formed in the annular gap. The bearing of the first output shaft may be formed by a sliding bearing. The bearing of the first output shaft may be formed by a needle bearing. The first output shaft may be hollow. A plug may be provided at one end of the first output shaft. The plug may be formed to prevent oil from flowing from an oil passage for the first gear set through the first output shaft. The first output shaft may be configured so that oil flow is enabled through the first output shaft.

[0027] In an embodiment, the oil guide device may include a bearing that rotatably supports the first bracket in the second output shaft. The oil passage for the first bolt may include a bearing seat for the bearing of the first bracket. In particular, the oil passage for the first bolt may lubricate the bearing of the first bracket.

[0028] The first bracket may extend at least partially within the second output shaft. The first bracket and the second output shaft may form an annular gap. In the annular gap, a bearing seat for a bearing of the first bracket may be formed. The bearing of the first bracket may be formed by a sliding bearing. The bearing of the first bracket may be formed by a needle bearing. A recess, such as a groove, may be formed along the bearing of the first bracket in the second output shaft in the direction of oil flow. A recess, such as a groove, may be formed along the bearing of the first bracket in the first bracket in the direction of oil flow. The recess in the second output shaft and the recess in the first bracket may be used to adjust the flow rate of the oil channel through the first bolt.

[0029] In an embodiment, the oil guide device may include a first axial bearing, which rotatably supports the first bracket on the second output shaft. The oil passage for the first bolt may include a bearing seat for the first axial bearing of the first bracket.

[0030] In the annular gap between the first support and the second output shaft, a bearing seat for the first axial bearing of the first support can be formed. The first axial bearing of the first support can be formed by a sliding bearing. The first axial bearing of the first support can be formed by a needle bearing. A recess, such as a groove, can be formed along the first axial bearing of the first support in the second output shaft in the oil flow direction. A recess, such as a groove, can be formed along the first axial bearing of the first support in the first support in the oil flow direction. The recess in the second output shaft and the recess in the first support can be used to adjust the flow rate of the oil channel through the first bolt.

[0031] In an embodiment, the oil guide device may include a second axial bearing that rotatably supports the first bracket. The second axial bearing may support the first bracket at the first sun gear of the first gear set. The oil passage for the first spur gear may include a bearing seat for the second axial bearing of the first bracket.

[0032] In the annular gap between the first support and the first output shaft, a bearing seat for a second axial bearing of the first support may be formed. The second axial bearing of the first support may be formed by a sliding bearing. The second axial bearing of the first support may be formed by a needle bearing. A recess, such as a groove, may be formed along the second axial bearing of the first support in the first support in the oil flow direction. The recess in the first support may be used to adjust the flow rate through the oil channel of the first spur gear.

[0033] In an embodiment, the oil guide device may include a take-up toothing, by which the first carrier is non-rotatably connected to the first output shaft. The oil passage for the first spur gear may include a passage in the take-up toothing.

[0034] The take-up tooth may be formed as a spline shaft connection. A passageway in the take-up tooth may be formed between the tooth root and the tooth tip of the tooth pair. A passageway in the take-up tooth may be formed between the tooth flanks of the tooth pair. The passageway may be enlarged by omitting teeth of the take-up tooth. The passageway in the take-up tooth may be used to regulate the flow through the oil passage of the first spur gear.

[0035] In an embodiment, the oil guide device may include a collecting component having a collecting surface. The oil passage for the first bolt may include an opening. The collecting surface may be configured to capture oil from the opening in a radial direction and guide the oil to the first bolt in an axial direction.

[0036] The opening may be configured at one end of the oil passage of the first gear set in the oil flow direction. The opening may be formed in the axial direction. The collecting surface may cover the opening of the oil passage of the first gear set in the axial direction. The collecting surface may be disposed outside the opening in the radial direction of the oil passage of the first gear set. The oil passage for the first bolt may include an opening at one end in the direction of the collecting component.

[0037] In an embodiment, the first bolt may include a cavity and a recess extending in a radial direction from the cavity of the first bolt through the first bolt to an outside of the first bolt.

[0038] The cavity may be formed by a hole in the axial direction. The recess may be formed by a hole. The recess may be disposed in the radial direction. The diameter of the recess may be smaller than the diameter of the cavity. The bolt may include a plurality of recesses. The recesses may be evenly distributed in the circumferential direction. The bolt may include two recesses. The recess may be disposed centrally with respect to the bearing of the first spur gear. As a result, lubrication of the bearing of the first spur gear and lubrication of the first spur gear may be achieved centrally.

[0039] The collecting surface may be configured to capture oil from the opening in a radial direction and direct the oil to the cavity of the first bolt in an axial direction. The opening for the oil passage of the first spur gear may form a stripping edge or a separation edge. Thus, a targeted flow separation of the oil from the oil passage of the first spur gear may be achieved. The stripping edge may extend in an axial direction into the collecting surface of the collecting component.

[0040] In one aspect, a transmission comprises an input element, a first gear set, a second gear set, and an oil guide device according to any one of the aforementioned aspects and embodiments. The input element is configured to transfer torque to the first gear set. The first gear set and the second gear set are mechanically operably connected to each other so that torque can be transferred from the first gear set to the second gear set. The first output shaft is configured to output torque from the first gear set. The second output shaft is configured to output torque from the second gear set. The first gear set and the second gear set may have the function of a differential. The input element, the first output shaft, the second output shaft, the oil guide component, and the first bracket may be coaxially arranged.

[0041] In an embodiment, the first gear set may be formed by a first planetary gear set having a first planetary gear, and the second gear set may be formed by a second planetary gear set. The first bracket may be formed by a first planetary carrier. The first bolt may be formed by a first planetary bolt. The first planetary gear may form a first spur gear. The first gear set and the second gear set may be arranged offset from each other in an axial direction.

[0042] In one aspect, a vehicle comprises drive wheels and a transmission according to any one of the preceding aspects or embodiments. A first output shaft is configured to drive one of the drive wheels. A second output shaft is configured to drive the other drive wheel. BRIEF DESCRIPTION OF THE DRAWINGS

[0043] Figure 1 A cross-sectional view of an embodiment of an oil guiding device including an oil guiding component is shown.

[0044] Figure 2 A cross-sectional view of an embodiment of an oil guide device is shown.

[0045] Figure 3 A cross-sectional view of an embodiment of an oil guide device is shown.

[0046] Figure 4 Shows Figure 3 3D detail of a cross-section. DETAILED DESCRIPTION

[0047] Figure 1 1 shows a cross-sectional view of an embodiment of an oil guide device including an oil guide component 80. The oil guide device includes a first bracket (in this example, the first planet carrier 12), a first bolt (in this example, the first planet bolt 13), Figure 2 The main oil gallery 90 shown in FIG. 8 is a fixed component 60 , a first output shaft 5 , and a second output shaft 6 . The oil guide component 80 includes a first chamber 81 and a second chamber 82 .

[0048] The first chamber 81 is fluidly connected to the second chamber 82 via a connecting passage 83. The oil guide member 80 is arranged in the fixed part 60 and is rotationally fixedly connected to the fixed part 60. The oil guide member 80 is fluidly connected to the main oil gallery 90 via the first chamber 81. The second chamber 82 provides oil for the bearing 40 of the first support, the bearing 41 of the first output shaft, the first bearing 42 of the second output shaft 6, the first axial bearing 45 of the first support, the second axial bearing 46 of the first support and the first gear set (in this example, the planetary gear set 10). The oil gallery is formed as an annular gap. As a result, oil guidance can be carried out in a simple manner. In particular, in the case of the oil guide device of the present embodiment, oil lubrication of the first gear set can be achieved without radial holes in the first output shaft 5.

[0049] Further details of the oil guide device are described below.

[0050] The second output shaft 6 is rotatably supported in the fixed component 60 by the first bearing 42. The first output shaft 5 extends in sections in the axial direction in the second output shaft 6 and is rotatably supported in the second output shaft 6 by the bearing 41. The first planet carrier 12 extends in multiple regions in the axial direction in the second output shaft 6. The first output shaft 5 extends through the first planet carrier 12. The first planet carrier 12 is non-rotatably connected to the first output shaft 5 by the take-up gear. The first planet carrier 12 is rotatably supported on the second output shaft 6 by the bearing 40 and by the first axial bearing 45. The first planet carrier 12 is rotatably supported on the first sun gear 11 of the first planetary gear set 10 by the second axial bearing 46. The first output shaft 5, the second output shaft 6, the first sun gear 11, the first planet carrier 12 and the oil guide component 80 are coaxially arranged with each other.

[0051] The first chamber 81 of the oil guide member 80 is open toward the outside in the radial direction. The second chamber 82 of the oil guide member 80 is open toward the inside in the radial direction. The first chamber 81 is placed outside the second chamber 82 in the radial direction and is aligned with the second chamber 82 so that the first chamber 81 overlaps with the second chamber 82 in the axial direction.

[0052] The first chamber 81 is disposed between two grooves on the outer peripheral surface of the oil guide member 80. In each of the two grooves, an O-ring seal is disposed. The O-ring seals each abut against the fixing member 60. Therefore, the first chamber 81 is Figure 1 Seal to the left and right sides towards the outside.

[0053] Arrange in Figure 1The first end portion on the right side of the oil guide member 80, at which the first chamber 81 is arranged, includes an outer periphery having a smaller diameter than the outer periphery of the second end portion located opposite in the axial direction. This configuration serves as an insertion aid for inserting the oil guide member 80 into the fixing member 60. Another groove having another O-ring seal is placed on the second end region.

[0054] The second chamber 82 is placed between the two cylindrical annular surfaces on the inner circumferential surface. A rectangular ring is arranged on each inner circumferential surface. The rectangular ring is arranged on the oil guide member 80 to be fixed in rotation and abuts against the groove on the outer circumference of the second output shaft 6. Therefore, the second chamber 82 is Figure 1 Seal to the right and left sides towards the outside.

[0055] The second output shaft 6 can rotate relative to the oil guide member 80. Figure 1 A slight leakage occurs on the rectangular ring on the left side of the middle part. On the left side of the rectangular ring on the left side, the radial shaft sealing ring is arranged on a cylindrical receiving surface on the inner periphery of the oil guide member 80. The cylindrical receiving surface includes a groove in the circumferential direction for accommodating the radial shaft sealing ring. Between the radial shaft sealing ring and the rectangular ring on the left side, a drain hole for preventing oil accumulation is provided, and the drain hole is arranged so that the radial shaft sealing ring is sufficiently supplied with oil.

[0056] In addition, Figure 1 A slight leakage occurs on the rectangular ring on the right side, which is used to lubricate the first bearing 42 of the second output shaft 6 with oil.

[0057] The second chamber 82 is fluidly connected to the shaft passage 91. Through the shaft passage 91, the outer side of the second output shaft 6 is fluidly connected to the inner space of the second output shaft 6 at the position of the second chamber 82. Therefore, the main oil gallery 90 is fluidly connected to the shaft passage 91 via the oil guide member 80.

[0058] The oil passage 92 of the first gear set is formed by the annular gap between the first output shaft 5 and the second output shaft 6. The shaft passage 91 leads to the oil passage 92 of the first gear set. The oil passage 92 for the first gear set guides the oil to the bearing 41 of the first output shaft 5. The first output shaft 5 is hollow and closed by a plug. In this respect, no oil can flow out of the bearing 41 of the first output shaft 5 through the first output shaft 5. The second output shaft 6 is not hollow. In this respect, no oil can flow out of the bearing 41 of the first output shaft 5 through the second output shaft 6.

[0059] Figure 2 1 shows a cross-sectional view of an embodiment of an oil guide device. This embodiment includes all the features of the previous embodiments. Figure 2 The oil flow is shown by bold arrows.

[0060] The oil passage 93 for the first bolt is formed by the annular gap between the first bracket and the second output shaft 6. The oil passage 93 for the first bolt is fluidly connected to one end of the oil passage 92 for the first gear set. The oil passage 93 for the first bolt includes a bearing seat for the bearing 40 of the first bracket and a bearing seat for the first axial bearing 45 of the first bracket, and lubricates these bearings. The oil passage 93 for the first bolt is fluidly connected to the cylindrical cavity in the first bolt via the collecting member 85. The collecting member 85 is non-rotatably connected to the first bracket. The collecting member 85 is configured to capture oil from the opening of the oil passage 93 for the first bolt in the radial direction and guide the oil to the cavity of the first bolt in the axial direction.

[0061] The first bolt comprises two recesses extending from the cavity of the first bolt through the first bolt to the outside of the first bolt in the radial direction. The recesses are formed by holes. The recesses are arranged opposite to each other. The recesses are centered relative to the bearing for the first spur gear (in this example, the first planetary gear 14). Via the recesses, the bearing of the first spur gear of the first gear set is lubricated.

[0062] The oil passage 94 for the first spur gear is formed by the annular gap between the first output shaft 5 and the first bracket. The oil passage 94 for the first spur gear is fluidly connected to the end of the oil passage 92 for the first gear set. The oil passage 94 for the first spur gear includes a bearing seat for the second axial bearing 46 of the first bracket and lubricates the bearing. The oil passage 94 for the first spur gear is configured such that oil is conducted to the first spur gear via the second axial bearing 46. In particular, the oil passage 94 for the first spur gear is fluidly connected to the first spur gear.

[0063] In particular, the oil passage 92 for the first gear set branches into the oil passage 93 for the first bolt and enters into the oil passage 94 for the first spur gear.

[0064] The first planetary gear set 10 includes a first sun gear 11, a first planet carrier 12, a plurality of first planet bolts 13, a plurality of first planet gears 14, and a first ring gear 15. The first sun gear 11 is engaged with one of the first planet gears 14. One of the first planet gears 14 is engaged with the first ring gear 15 and is rotatably supported on one of the first planet bolts 13. The first planet bolt 13 is connected to the first planet carrier 12.

[0065] In this example, the second planetary gear set 20 is disposed in an axial direction offset from the first gear set. The second gear set includes a second sun gear 21, a second planet carrier 22, a plurality of second planet bolts 23, a plurality of second planet gears 24, and a second ring gear 25. The second sun gear 21 is engaged with one of the second planet gears 24. One of the second planet gears 24 is engaged with the second ring gear 25 and is rotatably supported on one of the second planet bolts 23. The second planet bolt 23 is connected to the second planet carrier 22. The second planet carrier 22 is connected to the fixed component 60. The first ring gear 15 and the second sun gear 21 are rotatably fixedly connected to each other.

[0066] Figure 3 A cross-sectional view of an embodiment of an oil guide device is shown. This embodiment includes all the features of any of the previous embodiments.

[0067] The oil passage 93 for the first bolt includes a recessed portion. The recessed portion is formed in the second output shaft 6 along the bearing seat of the bearing 40 of the first bracket in the oil flow direction. The recessed portion in the second output shaft 6 is used to adjust the flow rate of the oil passage 93 through the first bolt.

[0068] The oil passage 94 for the first spur gear includes a passage through the take-up teeth and the first bracket of the first output shaft 5. The teeth on the first output shaft 5 are removed in the take-up teeth. This enlarges the passage through the take-up teeth and is used to adjust the flow rate of the oil passage 94 through the first spur gear.

[0069] Figure 4 Shows Figure 3 In particular, here is shown the recess for the oil passage 93 of the first bolt, which is formed in the second output shaft 6 along the bearing 40 of the first bracket. In particular, here is shown the passage for the oil passage 94 of the first spur gear, which is formed by removing a tooth on the first output shaft 5.

[0070] List of Reference Numerals

[0071] 5First output shaft

[0072] 6 Second output shaft

[0073] 10First planetary gear set

[0074] 11First sun gear of the first planetary gear set

[0075] 12First planet carrier of the first planetary gear set

[0076] 13 The first planetary bolt of the first planetary gear set

[0077] 14First planetary gear of the first planetary gear set

[0078] 15First ring gear of the first planetary gear set

[0079] 20 Second planetary gear set

[0080] 21 The second sun gear of the second planetary gear set

[0081] 22 Second planet carrier of the second planetary gear set

[0082] 23 The second planetary bolt of the second planetary gear set

[0083] 24 The second planetary gear of the second planetary gear set

[0084] 25 Second ring gear of the second planetary gear set

[0085] 40 Bearing of the first bracket

[0086] 41 Bearing of the first output shaft

[0087] 42 First bearing of the second output shaft

[0088] 45 first axial bearing of the first bracket

[0089] 46 Second axial bearing of the first bracket

[0090] 60Fixed parts

[0091] 80 oil guide parts

[0092] Room 81

[0093] 82 Room 2

[0094] 83 connection pathways

[0095] 85 Collection Parts

[0096] 90 main oil channel

[0097] 91 axis access

[0098] 92 Oil passage for the first gear set

[0099] 93 Oil channel of the first bolt

[0100] 94 is used for the oil passage of the first spur gear.

Claims

1. An oil guide component (80) for an oil guide device, the oil guide device comprising a fixed component (60) having a main oil passage (90), a first output shaft (5) and a second output shaft (6), the oil guide component (80) comprising a first chamber (81) and a second chamber (82), wherein: The outer side of the second output shaft (6) is in fluid communication with the inner space of the second output shaft (6) via a shaft passage (91). The oil guide component (80) is configured such that the oil guide component can be rotationally fixedly connected to the fixed component (60). The first chamber (81) is open toward the outside in the radial direction and is configured so that the first chamber can be fluidically connected to the main oil gallery (90). The second chamber (82) is open toward the inside in the radial direction and is configured so that the second chamber can be fluidically connected to the shaft passage (91). The first chamber (81) is disposed outside the second chamber (82) in a radial direction and overlaps with the second chamber (82) in an axial direction; and The first chamber (81) is fluidly connected to the second chamber (82) via a connecting passage (83).

2. The oil guide component (80) according to claim 1, characterized in that: Two grooves are formed on the circumferential surface of the oil guide component (80) to accommodate the seal, wherein The first chamber (81) is disposed between the two grooves.

3. The oil guide component (80) according to claim 1 or 2, characterized in that: Two cylindrical annular surfaces are formed on the circumferential surface of the oil guide component (80) to accommodate the sealing member, wherein The second chamber (82) is disposed between the two annular surfaces.

4. The oil guide component (80) according to claim 3, characterized in that: A cylindrical receiving surface is formed on the circumferential surface for receiving a radial shaft seal ring between one of the annular surfaces and the outer side of the oil guide member.

5. The oil guide component (80) according to claim 3 or 4, characterized in that: A discharge hole is formed between the cylindrical receiving surface and one of the cylindrical annular surfaces in the axial direction.

6. The oil guide component (80) according to any one of the preceding claims, characterized in that: The diameter of the outer circumference of the first end portion where the first chamber (81) is arranged is smaller than the diameter of the outer circumference of the second end portion located opposite in the axial direction.

7. An oil guide device for a transmission, the transmission comprising a first gear set with a first spur gear, the oil guide device comprising a first output shaft (5), a second output shaft (6), a first bracket, a first bolt, a fixing component (60) and an oil guide component (80) according to any one of the preceding claims, wherein: The first bolt is configured such that the first bolt rotatably supports the first spur gear and is connected to the first bracket, The fixed component (60) comprises a main oil passage (90), The outer side of the second output shaft (6) is in fluid communication with the inner space of the second output shaft (6) via a shaft passage (91). The main oil passage (90) is fluidically connected to the shaft passage (91) via the oil guide component (80). An oil passage (92) for the first gear set is formed by a gap between the first output shaft (5) and the second output shaft (6) and is fluidly connected to the shaft passage (91), An oil passage (93) for the first bolt is formed by a gap between the first bracket and the second output shaft (6) and is fluidly connected to the oil passage (92) for the first gear set, and An oil passage (94) for the first spur gear is formed by a gap between the first output shaft (5) and the first bracket and is fluidly connected to the oil passage (92) for the first gear set.

8. The oil guide device according to claim 7, characterized in that: The oil guide device has a bearing (41), and the bearing (41) supports the first output shaft (5) rotatably in the second output shaft (6). The oil passage (92) for the first gear set is fluidly connected to the bearing (41) of the first output shaft (5).

9. The oil guide device according to claim 7 or 8, characterized in that: The oil guide device comprises a bearing (40), the bearing (40) rotatably supporting the first bracket in the second output shaft (6), and The oil passage (93) for the first bolt includes a bearing seat for the bearing (40) of the first bracket.

10. The oil guide device according to any one of claims 7 to 9, characterized in that: The oil guide device comprises a first axial bearing (45), wherein the first axial bearing (45) rotatably supports the first bracket on the second output shaft (6), wherein The oil passage (93) for the first bolt comprises a bearing seat for the first axial bearing (45) of the first bracket.

11. The oil guide device according to any one of claims 7 to 10, characterized in that: The oil guide device comprises a second axial bearing (46), wherein the second axial bearing (46) rotatably supports the first bracket, wherein The oil passage (94) for the first spur gear includes a bearing seat for the second axial bearing (46) of the first bracket.

12. The oil guide device according to any one of claims 7 to 11, characterized in that: The oil guide device comprises a winding tooth, and the first bracket is non-rotatably connected to the first output shaft (5) via the winding tooth, wherein The oil passage (94) for the first spur gear includes a passageway within the take-up tooth.

13. The oil guide device according to any one of claims 7 to 12, characterized in that: The oil guide device comprises a collecting component (85) having a collecting surface, wherein The oil passage (93) for the first bolt includes an opening, and The collecting surface is configured to collect oil from the opening in a radial direction and guide the collected oil to the first bolt in an axial direction.

14. The oil guide device according to any one of claims 7 to 13, characterized in that: The first bolt includes a cavity and a recess extending in a radial direction from the cavity of the first bolt through the first bolt to an outer side of the first bolt.

15. A transmission, comprising an input element, a first gear set, a second gear set and an oil guide device according to any one of claims 7 to 14, wherein: The input member is configured to transfer torque to the first gear set, The first gear set and the second gear set are mechanically operatively connected to each other so that torque can be transmitted from the first gear set to the second gear set. The first output shaft (5) is configured to output torque from the first gear set; The second output shaft (6) is configured to output torque from the second gear set.

16. The transmission according to claim 15, characterized in that: The first gear set is formed by a first planetary gear set (10) having first planetary gears (14), and the second gear set is formed by a second planetary gear set (20), The first support is formed by a first planet carrier (12), The first bolt is formed by a first planetary bolt (13), and The first planetary gear (14) forms the first spur gear.

17. A vehicle having a plurality of drive wheels and a transmission according to claim 15 or 16, wherein The first output shaft (5) is configured to drive one of the drive wheels; and The second output shaft (6) is configured to drive another one of the drive wheels.

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