CN206429547U - A kind of oil-isolating device of Hydrodynamic Thrust Bearings - Google Patents

A kind of oil-isolating device of Hydrodynamic Thrust Bearings Download PDF

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Publication number
CN206429547U
CN206429547U CN201621467347.8U CN201621467347U CN206429547U CN 206429547 U CN206429547 U CN 206429547U CN 201621467347 U CN201621467347 U CN 201621467347U CN 206429547 U CN206429547 U CN 206429547U
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oil
axial hole
isolating device
bearing shell
separating plate
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CN201621467347.8U
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邹应冬
骆林
杨仕福
罗永刚
杨培平
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Dongfang Electric Machinery Co Ltd DEC
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Dongfang Electric Machinery Co Ltd DEC
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Abstract

The utility model discloses a kind of oil-isolating device of Hydrodynamic Thrust Bearings, it is related to the sliding bearing technical field of machinery product.The utility model includes being provided with a radial cavities in oil separating plate and support frame, the oil separating plate, and axial hole is provided between the radial cavities top surface and oil separating plate upper surface.The cold oil of certain pressure is passed through in the radial cavities, cold oil is through axial hole formation jet directive runner plate lower surface.The utility model can also reach good effect in the case of increase oil-isolating device with runner plate interplanar distance, while can reduce the wear extent of oil-isolating device, not wear and tear even up to.

Description

A kind of oil-isolating device of Hydrodynamic Thrust Bearings
Technical field
The utility model is related to the sliding bearing technical field of machinery product, more particularly to a kind of Hydrodynamic Thrust Bearings Oil-isolating device.
Background technology
In the prior art, Hydrodynamic thrust bearing is mainly made up of rotating shaft, runner plate, bearing shell and bearing block, rotating shaft and mirror Plate is fixedly connected for driving runner plate to rotate, and bearing shell is multiple, is distributed in rotating shaft surrounding, and bearing shell is inclined at the work of runner plate Make below face, and it is clockwise to runner plate formation wedge gap, the great Kou sides of wedge gap are oil inlet end, the osculum side of wedge gap For oil outlet end, bearing block is fixed in oil groove, and is connected with bearing shell.In use, cold oil under the drive of rotation runner plate from wedge shape The great Kou sides in gap enter, and are flowed out from the osculum side of wedge gap, and formation is used between runner plate working face and bearing shell working face In the oil film of bearing load.But in adjacent two pieces of bearing shells, due to the oil inlet end that the oil outlet end of previous bearing shell is latter bearing shell, and Oil after being rubbed by runner plate can heating, this, which is resulted in, has part deep fat and is attached to runner plate working face, and in the drive of runner plate It is lower to enter between next bearing shell and runner plate, the cold oil amount into bearing shell is correspondingly reduced, the working oil of bearing is not only increased Temperature, reduces the bearing capacity of bearing, is also easy to cause damage to bearing shell.In addition, in actual use, generally using increasing The distance between big two bearing shell reduces the deep fat amount that previous bearing shell enters latter bearing shell, but which increase accordingly thrust The volume of bearing, the dimensional footprint increase of thrust bearing is not only resulted in, and the manufacture material for also resulting in whole thrust bearing increases Plus, cost is higher.
State Intellectual Property Office disclosed a Publication No. CN103711800A, entitled " one on April 9th, 2014 The patent of invention of the oil removal method and oil-isolating device of kind Hydrodynamic thrust bearing ", the patent of invention is disclosed:Hydrodynamic is pushed away During power bearing working, cold oil enters between bearing shell and runner plate from the oil inlet end of bearing shell, and becomes heat under the runner plate friction of rotation Oil flows out from the oil outlet end of bearing shell, and the deep fat flows with the rotation of runner plate to the oil inlet end of latter bearing shell, when the deep fat Into before latter bearing shell, set oil-isolating device to coordinate with runner plate working face and stop that the deep fat flows into latter bearing shell, its feature It is:The oil-isolating device is arranged between adjacent two bearing shell, and oil-isolating device is fixed in the oil groove below runner plate working face, The oil-isolating device includes oil separating plate and support frame, and support frame as described above is fixed on oil groove bottom, or support frame as described above is fixed on wedge On the bearing shell of shape gap great Kou sides, the bottom of the oil separating plate is connected with support frame, and top coordinates stop to be attached to mirror with runner plate The deep fat of plate working face enters next bearing shell.
But, in said structure in During Process of Long-term Operation, oil separating plate more or less can all have certain abrasion, to bearing Safe operation steady in a long-term constitutes certain threaten.
Utility model content
In order to overcome defect present in above-mentioned prior art and deficiency, the utility model provides a kind of dynamic pressure thrust axis The oil-isolating device held, goal of the invention of the present utility model is to solve oil-isolating device in the prior art and there is the problem of wearing and tearing, this Utility model can also reach good effect, while can subtract in the case of increase oil-isolating device with runner plate interplanar distance The wear extent of small oil-isolating device, does not wear and tear even up to.
In order to overcome above-mentioned problems of the prior art, the utility model is achieved through the following technical solutions:
A kind of oil-isolating device of Hydrodynamic Thrust Bearings, including oil separating plate and support frame, it is characterised in that:In the oil separating plate A radial cavities are provided with, axial hole is provided between the radial cavities top surface and oil separating plate upper surface.The radial cavities The cold oil of certain pressure is inside passed through, cold oil is through axial hole formation jet directive runner plate lower surface.
The width of the axial hole is 0.1-5 with depth ratio.
The radical length of the axial hole is not more than the radical length of bearing shell, and not less than the half of bearing shell radical length.
The ratio between the width of the radial cavities and the axial hole width are 1-30.
Gap is provided between the top surface and runner plate of the oil separating plate, the gap is not more than 5mm.
The quantity of the axial hole is 1-6.
The width of multiple axial holes and depth ratio are not all the same.
The top surface of the tooth formed between adjacent axial hole and runner plate face gap no more than 5mm, and it is not all the same.
The radial cavities are connected with oil inlet pipe.Oil inlet pipe conveys the cold oil of certain pressure into radial cavities, cold Oil is through axial hole formation jet directive runner plate lower surface.
The axial hole one or both sides are provided with radial direction oil duct, and the quantity of the radial direction oil duct is 1-4.
Support frame as described above is connected by connector with bearing shell, and has oil inlet passage between support frame and bearing shell.
The oil separating plate is connected by flexible member with support frame.
The flexible member is common spring or leaf spring, and the quantity of flexible member is at least one.
Compared with prior art, the beneficial technique effect that the utility model is brought is shown:
1st, it can stop that be attached to the deep fat of runner plate working face transmits between adjacent two bearing shell by oil-isolating device, reduce Into bearing shell deep fat amount while, the cold oil amount into bearing shell can be increased, not only contribute to reduce the working oil temperature of bearing, Also help the oil film thickness between increase runner plate and bearing shell and improve the bearing capacity of bearing.In addition, being pushed away with conventional dynamic pressure Power bearing is compared, and can prevent the deep fat of previous bearing shell outflow from entering latter bearing shell under the drive of runner plate, therefore can also subtract The distance between small adjacent two bearing shell, so as to reduce the volume of thrust bearing on the whole, not only improves reduction thrust axis The dimensional footprint held, advantageously reduces the manufacturing cost of thrust bearing again.One radial cavities, cavity are set in oil separating plate Axial hole is set between top surface and oil separating plate upper surface, the cold oil of certain pressure is passed into cavity, cold oil is formed through axial hole Jet directive mirror table lower surface, cold oil jet disturbing type runner plate face surface deep fat boundary layer and makes it be exchanged with cold oil, is increasing In the case of big oil-isolating device and runner plate interplanar distance, above-mentioned effect can be also reached, so as to reduce the abrasion of oil-isolating device Amount.
2nd, the ratio between width and depth of the axial hole of radial cavities and oil separating plate upper surface are 0.1 to 5 in connection oil separating plate, The radical length of axial hole is not more than bearing shell radical length, and not less than the half of bearing shell radical length.The oil separating plate internal diameter The ratio between width and the axial hole width to cavity are 1 to 30.It can guarantee that the cold oil in cavity can shape after being throttled through axial hole Into injection oil stream.The radical length of axial hole is not more than bearing shell radical length, it is ensured that cold oil rubs to runner plate and the main of bearing shell Deep fat boundary layer on wiping face is disturbed and can guarantee that occur without axial hole radial dimension causes cavity more than bearing shell radical length Leak and influence the intensity of jet.
3rd, there is no more than 5mm gap between oil removal plate top surface and runner plate, the structure can either reduce previous bearing shell and enter The deep fat amount of latter bearing shell, can avoid flexible oil removal section excessive wear again, be conducive to improving the service life of flexible oil removal section.
4th, axial hole is 1 to 6, and the ratio between the width of the multiple axial hole and depth may be configured as unequal can also setting All same is equipped with, and in the range of 0.1 to 5.The top surface of the tooth formed between the multiple axial hole and runner plate face gap are not More than 5mm, and it may be configured as not all equal.When gap is unequal, it is sequentially reduced along runner plate face rotation aspect, forms ladder tooth knot Structure, or gap increase successively from center tooth to both sides tooth.Said structure can form multiple tracks jet and deep fat boundary layer is disturbed It is dynamic, strengthen jet disturbing type intensity, so as to form equal or stronger oil removal effect under increase gap condition.
5th, axial hole one or both sides set radial direction oil duct, and radial direction oil duct number is 1 to 4.Seen along runner plate direction of rotation, Radial direction oil duct is provided entirely in the front of the axial hole, or the packet of radial direction oil duct is arranged on the front of the axial hole with after Side.The oil duct deep fat subsidiary to surfaces of mirror plate has throttling action, can form flow-disturbing, deep fat boundary layer can be formed and disturbed It is dynamic, disturbance can be further enhanced on the basis of jet disturbing type, so as to form equal under further increased gap condition Or stronger oil removal effect.
6th, the radial cavities are connected with oil inlet pipe.Oil inlet pipe conveys the cold oil of certain pressure into radial cavities, Cold oil is through axial hole formation jet directive runner plate lower surface.The connected mode of oil inlet pipe, can be set directly at radial cavities Oil inlet pipe, or oil inlet pipe are to be formed by being provided with the oil separating plate through bottom surface and the bottom axial hole of radial slot bottom land, The quantity in hole is 1 to 10, sets oil inlet pipe to be connected with the hole, and cold oil is conveyed into oil separating plate top radial slot.In section Under stream effect, deep fat occurs to exchange strongly with cold oil in groove, so under larger spacing condition, it is possible to prevent deep fat with runner plate Face is delivered to next thrust bearing shoe valve surface, so as to further reduce the wear extent of oil separating plate.
7th, because existing bearing shell can slightly adjust oil film thickness according to bearing load, therefore support frame passes through connector The structure connected with bearing shell can slightly adjust the contact dynamics between oil separating plate and runner plate, so as to be conducive to improving oil removal effect Really.
8th, oil separating plate is connected by flexible member with support frame, and oil separating plate and runner plate can be automatically adjusted by flexible member Between contact dynamics, even if in the case that oil separating plate is used for a long time and there is certain abrasion, also ensure that oil removal effect, having Beneficial to the service life for extending whole oil-isolating device;In addition, the structure will not also on the premise of ensureing to have preferable oil removal effect Influence the rotation of runner plate.
9th, the quantity of flexible member is many, and many flexible members are arranged between oil separating plate and support frame, and the structure was both So that stability of the oil separating plate on support frame more preferably, causes oil separating plate working face again(Oil removal face)In each position and runner plate connect Touch degree is more balanced, can further improve oil removal effect, so as to further reduce the volume of whole thrust bearing.
Brief description of the drawings
Fig. 1 is the structural representation of the utility model embodiment 1;
The partial enlarged drawing that Fig. 2 is A in the utility model Fig. 1;
Fig. 3 is the structural representation of the utility model embodiment 2;
Fig. 4 is the structural representation of the utility model embodiment 3;
Fig. 5 is the structural representation of the utility model embodiment 4;
Fig. 6 is the structural representation of the utility model embodiment 5;
The line with arrow represents cold oil flow direction signal in figure;
Reference:1st, bearing shell, 2, runner plate, 3, support frame, 4, oil groove base, 5, flexible member, 6, oil separating plate, 7, radially Cavity, the tooth formed between 8, axial hole, 9, axial hole, 10, oil inlet pipe, 11, radial direction oil duct.
Embodiment
Embodiment 1
As the preferred embodiment of the utility model one, with reference to Figure of description 1 and 2, present embodiment discloses:
One is provided with a kind of oil-isolating device of Hydrodynamic Thrust Bearings, including oil separating plate 6 and support frame 3, the oil separating plate 6 Axial hole 9 is provided between radial cavities 7, the top surface of radial cavities 7 and oil separating plate 6 upper surface.Lead in the radial cavities 7 Enter the cold oil of certain pressure, cold oil is through the lower surface of the formation jet directive of axial hole 9 runner plate 2.In the present embodiment, Hydrodynamic is pushed away During power bearing working, cold oil enters between bearing shell 1 and runner plate 2 from the oil inlet end of bearing shell 1, and becomes in the case where the runner plate 2 of rotation rubs Flowed out into deep fat from the oil outlet end of bearing shell 1, the deep fat flows with the rotation of runner plate 2 to the oil inlet end of latter bearing shell 1, works as institute State deep fat to enter before latter bearing shell 1, set oil-isolating device to coordinate with the working face of runner plate 2 and stop the latter bearing shell of the deep fat inflow 1, oil-isolating device is arranged between adjacent two bearing shell 1, and oil-isolating device is fixed in the oil groove below the working face of runner plate 2, described Support frame 3 is fixed on oil groove base 4.
Embodiment 2
As the utility model another embodiment, with reference to Figure of description 3, present embodiment discloses:
One is provided with a kind of oil-isolating device of Hydrodynamic Thrust Bearings, including oil separating plate 6 and support frame 3, the oil separating plate 6 Axial hole 9 is provided between radial cavities 7, the top surface of radial cavities 7 and oil separating plate 6 upper surface.Lead in the radial cavities 7 Enter the cold oil of certain pressure, cold oil is through the lower surface of the formation jet directive of axial hole 9 runner plate 2.
The width of the axial hole 9 is 0.1-5 with depth ratio;The radical length of the axial hole 9 is not more than the footpath of bearing shell 1 To length, and not less than the half of the radical length of bearing shell 1;The ratio between the width of the radial cavities 7 and described width of axial hole 9 are 1-30;Gap is provided between the top surface and runner plate 2 of the oil separating plate 6, the gap is not more than 5mm.The number of the axial hole 9 Measure as 1.
Embodiment 3
As the utility model another embodiment, with reference to Figure of description 3, present embodiment discloses:
One is provided with a kind of oil-isolating device of Hydrodynamic Thrust Bearings, including oil separating plate 6 and support frame 3, the oil separating plate 6 Axial hole 9 is provided between radial cavities 7, the top surface of radial cavities 7 and oil separating plate 6 upper surface.Lead in the radial cavities 7 Enter the cold oil of certain pressure, cold oil is through the lower surface of the formation jet directive of axial hole 9 runner plate 2;
The width of the axial hole 9 is 0.1-5 with depth ratio;The radical length of the axial hole 9 is not more than the footpath of bearing shell 1 To length, and not less than the half of the radical length of bearing shell 1;The ratio between the width of the radial cavities 7 and described width of axial hole 9 are 1-30;Gap is provided between the top surface and runner plate 2 of the oil separating plate 6, the gap is not more than 5mm.The number of the axial hole 9 Measure as 1;The side of axial hole 9 is provided with radial direction oil duct 11, and the quantity of the radial direction oil duct 11 is 1.The radial direction is empty Chamber 7 is connected with oil inlet pipe 10.Oil inlet pipe 10 conveys the cold oil of certain pressure into radial cavities 7, and cold oil is through the shape of axial hole 9 Into the lower surface of jet directive runner plate 2.
Embodiment 4
As the utility model another embodiment, with reference to Figure of description 4, present embodiment discloses:
One is provided with a kind of oil-isolating device of Hydrodynamic Thrust Bearings, including oil separating plate 6 and support frame 3, the oil separating plate 6 Axial hole 9 is provided between radial cavities 7, the top surface of radial cavities 7 and oil separating plate 6 upper surface.Lead in the radial cavities 7 Enter the cold oil of certain pressure, cold oil is through the lower surface of the formation jet directive of axial hole 9 runner plate 2;
The width of the axial hole 9 is 0.1-5 with depth ratio;The radical length of the axial hole 9 is not more than the footpath of bearing shell 1 To length, and not less than the half of the radical length of bearing shell 1;The ratio between the width of the radial cavities 7 and described width of axial hole 9 are 1-30;Gap is provided between the top surface and runner plate 2 of the oil separating plate 6, the gap is not more than 5mm.The number of the axial hole 9 Measure as 1;The both sides of axial hole 9 are provided with radial direction oil duct 11, and the quantity of the radial direction oil duct 11 is 2.The radial direction is empty Chamber 7 is connected with oil inlet pipe 10.Oil inlet pipe 10 conveys the cold oil of certain pressure into radial cavities 7, and cold oil is through the shape of axial hole 9 Into the lower surface of jet directive runner plate 2.
Embodiment 5
As the utility model another embodiment, with reference to Figure of description 5, present embodiment discloses:
One is provided with a kind of oil-isolating device of Hydrodynamic Thrust Bearings, including oil separating plate 6 and support frame 3, the oil separating plate 6 Axial hole 9 is provided between radial cavities 7, the top surface of radial cavities 7 and oil separating plate 6 upper surface.Lead in the radial cavities 7 Enter the cold oil of certain pressure, cold oil is through the lower surface of the formation jet directive of axial hole 9 runner plate 2;
The width of the axial hole 9 is 0.1-5 with depth ratio;The radical length of the axial hole 9 is not more than the footpath of bearing shell 1 To length, and not less than the half of the radical length of bearing shell 1;The ratio between the width of the radial cavities 7 and described width of axial hole 9 are 1-30;Gap is provided between the top surface and runner plate 2 of the oil separating plate 6, the gap is not more than 5mm.The number of the axial hole 9 Measure as 2;The side of axial hole 9 is provided with radial direction oil duct 11, and the quantity of the radial direction oil duct 11 is 1, and is arranged on two Between individual axial hole 9.The radial cavities 7 are connected with oil inlet pipe 10.Oil inlet pipe 10 conveys a level pressure into radial cavities 7 The cold oil of power, cold oil is through the lower surface of the formation jet directive of axial hole 9 runner plate 2.
Embodiment 6
As the utility model another embodiment, with reference to Figure of description 6, present embodiment discloses:
One is provided with a kind of oil-isolating device of Hydrodynamic Thrust Bearings, including oil separating plate 6 and support frame 3, the oil separating plate 6 Axial hole 9 is provided between radial cavities 7, the top surface of radial cavities 7 and oil separating plate 6 upper surface.Lead in the radial cavities 7 Enter the cold oil of certain pressure, cold oil is through the lower surface of the formation jet directive of axial hole 9 runner plate 2;
The width of the axial hole 9 is 0.1-5 with depth ratio;The radical length of the axial hole 9 is not more than the footpath of bearing shell 1 To length, and not less than the half of the radical length of bearing shell 1;The ratio between the width of the radial cavities 7 and described width of axial hole 9 are 1-30;Gap is provided between the top surface and runner plate 2 of the oil separating plate 6, the gap is not more than 5mm.The number of the axial hole 9 Measure as 1;The radial cavities 7 are connected with oil inlet pipe 10.Oil inlet pipe 10 conveys the cold of certain pressure into radial cavities 7 Oil, cold oil is through the lower surface of the formation jet directive of axial hole 9 runner plate 2.
In the present embodiment, when Hydrodynamic thrust bearing works, cold oil enters bearing shell 1 and mirror from the oil inlet end of bearing shell 1 Between plate 2, and become oil outlet end outflow of the deep fat from bearing shell 1 in the case where the runner plate 2 of rotation rubs, the deep fat is with runner plate 2 The oil inlet end flowing to latter bearing shell 1 is rotated, before the deep fat enters latter bearing shell 1, oil-isolating device and the work of runner plate 2 are set Making face coordinates the stop deep fat to flow into latter bearing shell 1, and oil-isolating device is arranged between adjacent two bearing shell 1, and oil-isolating device is solid It is scheduled in the oil groove below the working face of runner plate 2;Support frame as described above 3 is fixed on the bearing shell 1 of wedge gap great Kou sides;The support Frame 3 is connected by connector with bearing shell 1, and has oil inlet passage between support frame 3 and bearing shell 1;The oil separating plate 6 passes through elastic member Part 5 is connected with support frame 3;The flexible member 5 is common spring or leaf spring, and the quantity of flexible member 5 is at least one It is individual.
Embodiment 7
As the utility model another embodiment, present embodiment discloses:
One is provided with a kind of oil-isolating device of Hydrodynamic Thrust Bearings, including oil separating plate 6 and support frame 3, the oil separating plate 6 Axial hole 9 is provided between radial cavities 7, the top surface of radial cavities 7 and oil separating plate 6 upper surface.Lead in the radial cavities 7 Enter the cold oil of certain pressure, cold oil is through the lower surface of the formation jet directive of axial hole 9 runner plate 2;
The width of the axial hole 9 is 0.1-5 with depth ratio;The radical length of the axial hole 9 is not more than the footpath of bearing shell 1 To length, and not less than the half of the radical length of bearing shell 1;The ratio between the width of the radial cavities 7 and described width of axial hole 9 are 1-30;Gap is provided between the top surface and runner plate 2 of the oil separating plate 6, the gap is not more than 5mm.The number of the axial hole 9 Measure as 6;The side of axial hole 9 is provided with radial direction oil duct 11, and the quantity of the radial direction oil duct 11 is 4, and is arranged on two Between individual axial hole 9.The radial cavities 7 are connected with oil inlet pipe 10.Oil inlet pipe 10 conveys a level pressure into radial cavities 7 The cold oil of power, cold oil is through the lower surface of the formation jet directive of axial hole 9 runner plate 2.
In the present embodiment, when Hydrodynamic thrust bearing works, cold oil enters bearing shell 1 and mirror from the oil inlet end of bearing shell 1 Between plate 2, and become oil outlet end outflow of the deep fat from bearing shell 1 in the case where the runner plate 2 of rotation rubs, the deep fat is with runner plate 2 The oil inlet end flowing to latter bearing shell 1 is rotated, before the deep fat enters latter bearing shell 1, oil-isolating device and the work of runner plate 2 are set Making face coordinates the stop deep fat to flow into latter bearing shell 1, and oil-isolating device is arranged between adjacent two bearing shell 1, and oil-isolating device is solid It is scheduled in the oil groove below the working face of runner plate 2;Support frame as described above 3 is fixed on the bearing shell 1 of wedge gap great Kou sides;The support Frame 3 is connected by connector with bearing shell 1, and has oil inlet passage between support frame 3 and bearing shell 1;The oil separating plate 6 passes through elastic member Part 5 is connected with support frame 3;The flexible member 5 is common spring or leaf spring, and the quantity of flexible member 5 is at least one It is individual.

Claims (9)

1. a kind of oil-isolating device of Hydrodynamic Thrust Bearings, including oil separating plate(6)And support frame(3), it is characterised in that:The oil removal Plate(6)Inside it is provided with a radial cavities(7), the radial cavities(7)Top surface and oil separating plate(6)Axial direction is provided between upper surface Hole(9).
2. a kind of oil-isolating device of Hydrodynamic Thrust Bearings as claimed in claim 1, it is characterised in that:The axial hole(9)'s Width is 0.1 with depth ratio:5.
3. a kind of oil-isolating device of Hydrodynamic Thrust Bearings as claimed in claim 1 or 2, it is characterised in that:The axial hole(9) Radical length be not more than bearing shell(1)Radical length, and not less than bearing shell(1)The half of radical length.
4. a kind of oil-isolating device of Hydrodynamic Thrust Bearings as claimed in claim 1 or 2, it is characterised in that:The radial cavities (7)Width and the axial hole(9)The ratio between width is 1:30.
5. a kind of oil-isolating device of Hydrodynamic Thrust Bearings as claimed in claim 1, it is characterised in that:The oil separating plate(6)'s Top surface and runner plate(2)Between be provided with gap, the gap is not more than 5mm.
6. a kind of oil-isolating device of Hydrodynamic Thrust Bearings as described in claim 1,2 or 5, it is characterised in that:The axial hole (9)Quantity be 1-6.
7. a kind of oil-isolating device of Hydrodynamic Thrust Bearings as claimed in claim 6, it is characterised in that:Adjacent axial hole(9)It Between the tooth that is formed(8)Top surface and runner plate(2)Face gap is not more than 5mm, and not all the same.
8. a kind of oil-isolating device of Hydrodynamic Thrust Bearings as described in claim 1,2 or 5, it is characterised in that:The radial direction is empty Chamber(7)It is connected with oil inlet pipe(10).
9. a kind of oil-isolating device of Hydrodynamic Thrust Bearings as described in claim 1,2 or 5, it is characterised in that:The axial hole (9)One or both sides are provided with radial direction oil duct(11), the radial direction oil duct(11)Quantity be 1-4.
CN201621467347.8U 2016-12-29 2016-12-29 A kind of oil-isolating device of Hydrodynamic Thrust Bearings Active CN206429547U (en)

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Application Number Priority Date Filing Date Title
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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN109723728A (en) * 2019-03-05 2019-05-07 哈尔滨理工大学 A kind of detachable Hydrodynamic Thrust Bearings device for reducing hot oil and carrying

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN109723728A (en) * 2019-03-05 2019-05-07 哈尔滨理工大学 A kind of detachable Hydrodynamic Thrust Bearings device for reducing hot oil and carrying

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