US973893A - Hydraulic coupling. - Google Patents

Hydraulic coupling. Download PDF

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US973893A
US973893A US50380209A US1909503802A US973893A US 973893 A US973893 A US 973893A US 50380209 A US50380209 A US 50380209A US 1909503802 A US1909503802 A US 1909503802A US 973893 A US973893 A US 973893A
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annular
liquid
driven
chambered
driving
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US50380209A
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Victor Tichomiroff
Lazar Schechter
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    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F16ENGINEERING ELEMENTS AND UNITS; GENERAL MEASURES FOR PRODUCING AND MAINTAINING EFFECTIVE FUNCTIONING OF MACHINES OR INSTALLATIONS; THERMAL INSULATION IN GENERAL
    • F16DCOUPLINGS FOR TRANSMITTING ROTATION; CLUTCHES; BRAKES
    • F16D33/00Rotary fluid couplings or clutches of the hydrokinetic type
    • F16D33/06Rotary fluid couplings or clutches of the hydrokinetic type controlled by changing the amount of liquid in the working circuit
    • F16D33/08Rotary fluid couplings or clutches of the hydrokinetic type controlled by changing the amount of liquid in the working circuit by devices incorporated in the fluid coupling, with or without remote control
    • F16D33/14Rotary fluid couplings or clutches of the hydrokinetic type controlled by changing the amount of liquid in the working circuit by devices incorporated in the fluid coupling, with or without remote control consisting of shiftable or adjustable scoops

Definitions

  • This invention relates to couplings employing liquids for effecting the coupling between a driving and a driven member.
  • the centrifugal action of a liquid in an annular chamber is employed to-efi'ect the coupling of a driving and a driven shaft.
  • a rotatable driving shaft 7 has fixed to it a hollow annularwchambered member 8.
  • annular chambers are provided; one 9 is adapted to receive a suitable liquid such as water through a pipe .10. Owing to the rotation of the hollow annular-chambered member 8 the water or the like in the annular compartment 9 passes through ports 10 and enters another annular chamber 11. Within this annular chamber there are supported ring shaped plates 12. These platesare held resiliently for instance by fixing them at their outer edges 13 to the walls'of the annular chamber 11., -The ports 10 lead to the outside of the plates'12 and between the resiliently held plates 12 there is arranged the driven disk 14. The disk 14 is fixed to the driven shaft 15. Fixed tothe plates 12 are a num? ber of ribs 16 which support rings 17 of any suitable material for taking up the' frie tional"action between the driven disk 14 and the driving members as hereinafter described. 1
  • Thetube 18 as can a be seen in Fig. lis adapted to move into the annular compartment 9.
  • the coupling rotates in the direction of the arrow 22 and the tube 18 has its bend 19 facing intheopposite direction to'the rotation of the coupling.
  • the angle at which the plates 12 are arranged may be so chosen that when the water or the like is removed from the compartment 11 the plates 12 are forced back, away from engagement with the disk 14, by centrifugal force. With anangle such as illustrated however the disengagement would be effected much more by the spring or resilient action of the plate 12 than by any centrifugal action.
  • oil or other' suitable lubricant may be introduced to an annular groove 23. rom this the oil or the like passes under the centrifugal action ,through tubes 24 into the space between the plates 12.
  • the .oil may be introduced by pipes 25. This oil may pass from the space between the late 12 throu h the ports 26 into an annu ar space 27. rom this annular space 27 oil may be removed by a pipe 28. It will be understood that the 011 passed to the space between the plate 12 would be insuflioient to create any counterpr'essure to the water or the like in the annular space 11.,-
  • the driven shaft 29 carries a multichambered annular member 30.
  • the annular member '30 is divided into chambers by the diaphragms 31.
  • the end diaphragm 34 is.,fixed to the main part 30 by bolts 35 andhas 'an annular compartment 36 on its exterior.
  • To tli'is annular compartment liquid is supplied through a pipe 37.
  • Ports 38 lead from the annular compartment 36 to the first ofthe plurality of annular chambers inthe driving member 30.
  • the various chambers of the driving member 30 are connected by ports 39.
  • Ports 40 may also be provided in the disks 33.
  • ribs 41 On the diaphragms 31 and disks 33 there are arranged ribs 41 which may be arranged radially as shown.
  • a rotatable pipe 42 is provided and arranged as described with reference to Figs. 1 and'2.
  • the shaft 32 may be driven at a smaller speed than that at which the driving shaft 29 rotates.
  • a coupling adapted to transmit a variable power with a positive couplingadapted to effect driving of the driven shaft at the same velocity as that at which the driving shaft rotates.
  • the driving sh'aft44 carries the annulair-chambered member. 45 on which in one compartment diaphragms 4L6 are arranged While in another annular compartment resilient lates 4'? are disposed.-
  • the plates 47 are xed to a rim 48 carried by a flange e9 fixed to the annular-chambered part 15.
  • the disk 50 Between the plates 47 there is arranged the disk 50. Fixed to the disk 50 there is a rin 51 on which the disks 52 are arranged which project between the diaphragms 4:6.
  • the diaphragms 4:6 and the disks 52 are arranged with ribs as described with reference to the form illustrated in Figs. 2 and t.
  • annular compartment 53 is provided at each side of the coupling and these compartments are adapted to receive water from pipes 54.
  • Rotatable pipes 55 are arranged to project into said compartments as desired. The operation of this form will be evident from the description given above of the forms described in Figs. 1 L.
  • Fluid clutches are already known, in which several parallel disks are provided, some of them being fastened to the driving part and the others to the driven part, and in which the-transmission of power is effected and regulated by a fluid, which is passed into the disks-containing chamber with greater or smaller pressure.
  • the amount of transmitted power is regulated by the greater or smaller quantity of fluid, which is passed into the dislecontaining chamber, increasing or diminishing thus the area of surface which is active for power transmission between the liquid and the disks respectively, in some cases the amount of pressure between the driven disks and some other rings of elastic material, which rings are pressed against the driven disks by the centrifugal force of the water rotating with the clutch.
  • a rotatable driving shaft ; an annular-chambered member on said shaft; parallel annular partition walls extending from the outer circumference of the chamber radially inwardly and dividing thus the chamber into parallel compartments and having holes near the outer circumference, so as to form direct communicaparallel and radially into the different com tion between the different compartments; a dr ven member arrangedaxially with the drlvlng part and having disks extending partments; ribs arranged on the driven disks and on the walls of the driving compartments; means i for passing a desired quantityof liquid into the chambered driv ing member; and means for extracting any desired quantity of liquid out of the clutch during its action.
  • a rotatable driving shaft comprising q a disk having friction surfaces and extending into the annular-chambered member; resilient annular plates fixed within said chambered member and having ribs preferably arranged radially against which the friction surfaces of the disk may bear; means for supplying a desired quantity of liquid in the space between the. walls of the chambered member and the resilient annular plates; and means for extracting any desired quantity of liquid out of said space between the chambered members and the annular plates during the action of the clutch.
  • a rotatable driving shaft a driven shaft; and means for coupling said shafts to one another, comprising an annular-chambered member on the driving shaft, walls on said annular-chambered member adapted to offer resistance to a liquid, members fixed to the driven shaft also adapted to offer resistance to a liquid and torotate between said walls, a disk fixed to the driving shaft, plates carried in a compartment of the annular-"chambered member and adapted to be pressed by liquid pressure against said disk and means for passing liquid to the compartments of said. annular-chambered member as desired.

Description

V. TIGHOMIROPF & L. SGHEGHTER. HYDRAULIC COUPLING.
APPLICATION IILED JUNE 23, 1909.
Patentedbct. 25, 1910.
3 SHEETS-SHEET 2.
VIII/I4YAVIIIIIIIIII/I/IIIII/ V. TIGHOMIROFF & L. SGHEGHTER. HYDRAULIC COUPLING.
APPLICATION FILED JUNE 23, 1909. a I 973,893 Patented 0012.25, 1910.
3 SHEETS-SHEET 3.
STATES OFFI vrcron 'rrononrnorr AND LAZAR 'scnncn'rnrabr xonomu, Moscow, RUSSIA.
' Hmammc coornmej Specification oi Letters ream. Y
Patented 001 125, 1910.
Application filed June 23, 1900. Seria no. 503,802.
' To all whom ifmy concern:
Be it known that; we, Vxo'ron Tlcnomaorr and LAzAR SoHnoH'rER, both subjects of the Emperor" of Russia, and residents 'o f-:.ifKo-.
lomna, Moscow, Empire of Russisg engineers, have invented a new and useful Hydraulic Coupling, of which the following is 0. specification.
. tures shown in the modifications illustrated This invention. relates to couplings employing liquids for effecting the coupling between a driving and a driven member. According to the present inventionthe centrifugal action of a liquid in an annular chamber is employed to-efi'ect the coupling of a driving and a driven shaft.
I The invention is illustratedin some typ.-- ical modifications 1n the accompanying drawings, in which- Figure l is a cross section through a coupling according to the present invention, Fig. 2 is a section on the line 22 of Fig, 1, Fig. 3.is a cross section and Fig. 4 is a section on the line 4-4 of Fig. 3 showing another 'form of hydraulic coupling according to the present invention, Fig. 5 is a side elevation with the upper part in section of a construction embodying thefeain Figs. 1-4, Fig.6 is a view on the of Fig. 5.
In carrying the invention into effect acv cording to the form shown in Figs. 1 and 2 a rotatable driving shaft 7 has fixed to it a hollow annularwchambered member 8. In
the form illustrated two annular chambers are provided; one 9 is adapted to receive a suitable liquid such as water through a pipe .10. Owing to the rotation of the hollow annular-chambered member 8 the water or the like in the annular compartment 9 passes through ports 10 and enters another annular chamber 11. Within this annular chamber there are supported ring shaped plates 12. These platesare held resiliently for instance by fixing them at their outer edges 13 to the walls'of the annular chamber 11., -The ports 10 lead to the outside of the plates'12 and between the resiliently held plates 12 there is arranged the driven disk 14. The disk 14 is fixed to the driven shaft 15. Fixed tothe plates 12 are a num? ber of ribs 16 which support rings 17 of any suitable material for taking up the' frie tional"action between the driven disk 14 and the driving members as hereinafter described. 1
The operation of this device is as; follows: I The water or like liquid passing through the ports 1O is by the centrifugal action of the rotating member 8 driven to the periphery of the annular chamber and remainsthere under pressure. By supplying sufiicient water to the annular compartment 9 the ring or annulus of water in the compartment 11 will embrace more or less.
Wheel on the tube 18. Thetube 18, as can a be seen in Fig. lis adapted to move into the annular compartment 9. The coupling rotates in the direction of the arrow 22 and the tube 18 has its bend 19 facing intheopposite direction to'the rotation of the coupling. By raisin the tube 18 into the position shown in ig. 1 the liquid will be drained from the annular compartments 9 and 11. The angle at which the plates 12 are arranged may be so chosen that when the water or the like is removed from the compartment 11 the plates 12 are forced back, away from engagement with the disk 14, by centrifugal force. With anangle such as illustrated however the disengagement would be effected much more by the spring or resilient action of the plate 12 than by any centrifugal action. For the purpose of lubricating the rubbing parts 2'. e. the'rim of the disk 14 and the rings 17 oil or other' suitable lubricant ma be introduced to an annular groove 23. rom this the oil or the like passes under the centrifugal action ,through tubes 24 into the space between the plates 12. The .oil may be introduced by pipes 25. This oil may pass from the space between the late 12 throu h the ports 26 into an annu ar space 27. rom this annular space 27 oil may be removed by a pipe 28. It will be understood that the 011 passed to the space between the plate 12 would be insuflioient to create any counterpr'essure to the water or the like in the annular space 11.,-
With the device illustrated it is possible by rotating the'pipe 18 to determine the amount of liquid in the annular chambered member and thereby the amount of surface of the plate 12 which is exposed to the pressure of the fluid. In this way a very accurate and easy control of the pressure or power trans mitted may be obtained. The coupling described, however, is preferably employed for transmitting the same velocity from the -driving shaft 7 to the driven shaft 15 and when it is desired to effect transmission at difierent..velocities the form illustrated in Figs. 3 and dis preferably employed.
Accordifigto the form shown in Figs. 3 and 4 the driven shaft 29 carries a multichambered annular member 30. The annular member '30 is divided into chambers by the diaphragms 31. To the driven shaft 32 there are fixed disks 33 which project between the diaphragms 31 on the annularchambered member 30. The end diaphragm 34 is.,fixed to the main part 30 by bolts 35 andhas 'an annular compartment 36 on its exterior. To tli'is annular compartment liquid is supplied through a pipe 37. Ports 38 lead from the annular compartment 36 to the first ofthe plurality of annular chambers inthe driving member 30. The various chambers of the driving member 30 are connected by ports 39. Ports 40 may also be provided in the disks 33. On the diaphragms 31 and disks 33 there are arranged ribs 41 which may be arranged radially as shown. A rotatable pipe 42 is provided and arranged as described with reference to Figs. 1 and'2.
The operation of this device is as follows: The water or the like supplied from the pipe 37 entersthe spaces between the diaphragms 31 and disks 33 through the ports 38 and 39. Owing to the ribs 11 on these disks and diaphragms a considerable resistance is offered by the liquid when the driving member 30 is rotating. This resistance is exerted on to the driven members or disks 33 and thereby the shaft 32 is caused to rotate. If the liquid in the compartments of the driving member 30 is at the level indicated by the lines 43 the resistance would be much greater than if the level of the liquid in these chambers were nearer the periphery of the driving member 30. By rotating the tube 42 of the level of the liquid may be altered and thereby the power transmitted from the driving shaft 29 to the driven shaft 32 may be altered. In other words the shaft 32 may be driven at a smaller speed than that at which the driving shaft 29 rotates. In many cases it may be found advisable to combine a coupling adapted to transmit a variable power with a positive couplingadapted to effect driving of the driven shaft at the same velocity as that at which the driving shaft rotates. Such a construction is illustrated in Figs. 5-6. In this form the driving sh'aft44: carries the annulair-chambered member. 45 on which in one compartment diaphragms 4L6 are arranged While in another annular compartment resilient lates 4'? are disposed.- The plates 47 are xed to a rim 48 carried by a flange e9 fixed to the annular-chambered part 15. Between the plates 47 there is arranged the disk 50. Fixed to the disk 50 there is a rin 51 on which the disks 52 are arranged which project between the diaphragms 4:6. The diaphragms 4:6 and the disks 52 are arranged with ribs as described with reference to the form illustrated in Figs. 2 and t. An
annular compartment 53 is provided at each side of the coupling and these compartments are adapted to receive water from pipes 54. Rotatable pipes 55 are arranged to project into said compartments as desired. The operation of this form will be evident from the description given above of the forms described in Figs. 1 L.
Fluid clutches are already known, in which several parallel disks are provided, some of them being fastened to the driving part and the others to the driven part, and in which the-transmission of power is effected and regulated by a fluid, which is passed into the disks-containing chamber with greater or smaller pressure. According to the present invention however the amount of transmitted power is regulated by the greater or smaller quantity of fluid, which is passed into the dislecontaining chamber, increasing or diminishing thus the area of surface which is active for power transmission between the liquid and the disks respectively, in some cases the amount of pressure between the driven disks and some other rings of elastic material, which rings are pressed against the driven disks by the centrifugal force of the water rotating with the clutch.
It will be understood that the parts may be arranged in many difierent ways and for large couplings intended to transmit great powers a suitable increase in the number of lot annular chambers employed may, of course,
be made.
We claim tween; a driven member rotatable coaxially with said annular-chambered member; and a pipe movable as desired into an annularchamber of said member which removes the liquid therefrom and thereby releases the with said driven members; andmeans for' extracting said lubricants.
4. In combination; a rotatable drlving shaft; an annular-chambered member. on
J said shaft; parallel annular partition-walls extending from the outer circumference of the chamber radially inwardly and dividing thus the chamber into parallel compart ments, and having holes near the outer circumference, so as to form direct communication between the different compartments; a driven member arranged coaxially with the driving part and having disks extending parallel and radially into the different compartments; means for passing a greater or smaller quantity of liquid int-0' the chambered driving member and into all the compartments at the same time; and means for extracting any desired "quantity of liquid out of the clutch during its action.
5. In combination, a rotatable driving shaft; an annular-chambered member on said shaft; parallel annular partition walls extending from the outer circumference of the chamber radially inwardly and dividing thus the chamber into parallel compartments and having holes near the outer circumference, so as to form direct communicaparallel and radially into the different com tion between the different compartments; a dr ven member arrangedaxially with the drlvlng part and having disks extending partments; ribs arranged on the driven disks and on the walls of the driving compartments; means i for passing a desired quantityof liquid into the chambered driv ing member; and means for extracting any desired quantity of liquid out of the clutch during its action.
6; In combinatioa a rotatable driving shaft; an annular-chambered member on said shaft; a drlven member arranged coaxi-ally with the driving member comprising q a disk having friction surfaces and extending into the annular-chambered member; resilient annular plates fixed within said chambered member and having ribs preferably arranged radially against which the friction surfaces of the disk may bear; means for supplying a desired quantity of liquid in the space between the. walls of the chambered member and the resilient annular plates; and means for extracting any desired quantity of liquid out of said space between the chambered members and the annular plates during the action of the clutch.
7. In combination a rotatable driving shaft; an annular-chambered member on said shaft; a driven member arranged coaxially with the driving member; a disk on said driven member extending into the chambered driving member and having on its outer part friction surfaces arranged inclined to a plane at right angles to the axis of the clutch; resilient annular plates fixed within said chambered member inclined to the plane at right angles to the axis of the clutch, so
;as to be swung out of en a ement with the friction surfaces of the is on the driven member by the mere centrifu al action, after the extraction of the liquid rom the chambered member; means for passing at will liquid into said chambered member during the rotation of the clutch, for the purpose of pressing the resilient annular plates against the friction surfaces of the disk on the driven member; and means for extracting at will the liquid from the chambered member.
8. In combination a rotatable driving shaft; a driven shaft; and means for coupling said shafts to one another, comprising an annular-chambered member on the driving shaft, walls on said annular-chambered member adapted to offer resistance to a liquid, members fixed to the driven shaft also adapted to offer resistance to a liquid and torotate between said walls, a disk fixed to the driving shaft, plates carried in a compartment of the annular-"chambered member and adapted to be pressed by liquid pressure against said disk and means for passing liquid to the compartments of said. annular-chambered member as desired.
In witness whereof we have hereunto set our hands in the presence of two witnesses.
-Witnesses:
N. KORNEFE, P. SOKODOPF.
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Cited By (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2629472A (en) * 1949-11-29 1953-02-24 Russell L Sterner Fluid shear type coupling
US2706547A (en) * 1946-05-15 1955-04-19 Ranzi Ubaldo Device for transmitting rotational power by use of powdery material
US2714946A (en) * 1948-12-08 1955-08-09 Tenot Andre Louis Hydraulic transmission
US3368649A (en) * 1966-02-09 1968-02-13 Mobil Oil Corp Brake actuated by viscoelastic liquid
US3390748A (en) * 1966-12-27 1968-07-02 Borg Warner Fluid shear coupling
US5845755A (en) * 1995-04-21 1998-12-08 Voith Turbo Gmbh Method of speed control of a friction clutch in a drive train and a drive engine and drive unit for execution of the method

Cited By (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2706547A (en) * 1946-05-15 1955-04-19 Ranzi Ubaldo Device for transmitting rotational power by use of powdery material
US2714946A (en) * 1948-12-08 1955-08-09 Tenot Andre Louis Hydraulic transmission
US2629472A (en) * 1949-11-29 1953-02-24 Russell L Sterner Fluid shear type coupling
US3368649A (en) * 1966-02-09 1968-02-13 Mobil Oil Corp Brake actuated by viscoelastic liquid
US3390748A (en) * 1966-12-27 1968-07-02 Borg Warner Fluid shear coupling
US5845755A (en) * 1995-04-21 1998-12-08 Voith Turbo Gmbh Method of speed control of a friction clutch in a drive train and a drive engine and drive unit for execution of the method

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