US1906540A - Lubricating system - Google Patents

Lubricating system Download PDF

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Publication number
US1906540A
US1906540A US615818A US61581832A US1906540A US 1906540 A US1906540 A US 1906540A US 615818 A US615818 A US 615818A US 61581832 A US61581832 A US 61581832A US 1906540 A US1906540 A US 1906540A
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Prior art keywords
oil
pan
well
perforations
viscosity
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US615818A
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Henry B Clarke
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LUBRICATION CONTROL Corp
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LUBRICATION CONTROL CORP
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    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F01MACHINES OR ENGINES IN GENERAL; ENGINE PLANTS IN GENERAL; STEAM ENGINES
    • F01MLUBRICATING OF MACHINES OR ENGINES IN GENERAL; LUBRICATING INTERNAL COMBUSTION ENGINES; CRANKCASE VENTILATING
    • F01M5/00Heating, cooling, or controlling temperature of lubricant; Lubrication means facilitating engine starting
    • F01M5/002Cooling

Definitions

  • This invention relates to' lubricatin sys- I tems for automobile engines and has or an object to efl'ectquick heating of a portion of the oil in the system to lower its viscosity with 5 subsequent gradual heating of the remainder of the oil to reduce the viscosity of the entire body of oil and also to prevent overheating of the oil and consequent undue viscosity decrease.
  • the oil pan is equipped wit a partition formed with sloping portlons terminatin in a central well. Perforations are provi d in the sloping portions and also 1n the well portion near the bottom thereof, these perforations belgg sufliclently small In diameter to oppose re y flow of cold lubricating oil.
  • the oil pump for forclng oil to the bearings has its intake commumcating with the lower portion of the well. At the starting of'the engine, the pump circulates only the oil contained in the central well and so much other oil as may seep through the perforations in the well.
  • the oil pan is equippedwith tubes extending therethrough for passing air into indirect heat exchange relation with the oil in the an to prevent undue heating of the oil.
  • the holes in the sloping portion are larger near their upper ends so that the major portion of the oil is returned to the pans near the ends thereof, thus getting the full ⁇ benefit of the cooling effect from the tu es.
  • Fig. is aside elevation of an internal combust on engine equipped with a lubricating system embodying the invention
  • Fig. 2 is a vertical section through the oil pan
  • Fig. 3 is a plan view thereof.
  • the engine 10 is provided with an oil pan '11 provided with a partition 12 having slopmg portions terminating in a central well 13. Tubes 14 extend transversely through the pan below the partition 12 and serve to flow air into indirect heat exchange relation with oil contained in the pan: Preferably a scoop (not shown) is provided for directing air through these tubes upon the forward movement of the automobile.
  • the sloping portions of the artition 12 are perforated, the perforations ing of progressively larger diameter from the well to the ends of the pan.
  • the perforations 12 are sufiiciently small that oil of high viscosity will not flow through them readily.
  • Perforations 16 are provided in. the walls of the Welland these are also of sufliciently small diameter that high" viscosity oil will not readily flow through them.
  • a conduit 17 leads from the lower portion of the well 13 to the inlet of. a pump 18.
  • a pipe 19 leads from the pump outlet to the bearings.
  • a viscosity meter 20 of any wella known type is connected by a pipe 21 with the pipep19 and has an. outlet pipe 22 discharging into the oil pan. The pressure developed in the viscosity meter 20 is applied through a eonduit'23 to a gauge 24.
  • the pump 18 draws oil from the well 13' and supplies the same to the bearings, thus reducperforations 15 rather than passing through them.
  • thetcirculated oil becomes sufficiently heated thatits vie cosity drops and the oil tends to flow through 5 the perforations 15 rather than downinto the well.
  • the major portion vof'the hot .oil dripping from the'bearings is returned to the pan near the ends thereof.
  • the returned hot oil circulates around the tubes 14 and is cooled, thus prerenting undue heating of the oil and main 'taining it at the proper-temperature to render it of the desired viscosity.
  • the temperature of the oil in the pan is regulated by cooling effect of air passing through the tubes 14.
  • the cooling air is caused to flow through the tubes by forward movement of the automobile, thus supplying more cooling at high engine speeds than at low engine speeds.
  • suitable means are provided for directing air through the tubes.
  • the viscosity of the oil in the system is self-controlled and no regulator or control instrument is required.
  • the provision of the well in the partition and the arrangement of apertures causes immediate heating of a small part of the oil with gradual heating of the remainder and the regulation of the oil flow to effect cooling thereof and maintaining the proper viscosity is obtained without the use of any instrument gauge or the like.
  • an oil pan In a lubricating system, an oil pan, a partition'in said pan formed with sloping as deportions terminating in a central well, perfo- I rations in thewell portionnear the bottom thereof andperforationsin the sloping per tions, said perforations being sufficiently small. to ofier high resistance to flow of cold lubricating oil, and a pump having its intake communicating with the lower portion of 2.
  • an oil partition in said. pan formed with sloping portions termin'atingzin a central well, perforations in the well: portion near the bottom thereof and perforations in the sloping porpan, a I
  • partition in said pan formed with sloping portions terminating in a central well, perfo rations in thewell portion near the bottom thereof and perforations in the sloping portions, said perforations being sufliciently small to ofier high resistance to flow of cold lubricating oil, and a. pump having its intake communicating with the lower portion ofthe well, and tubes extending through said pan for flowing air into indirect heat exchange relation w1th oil in the pan.
  • an oil pan in said pan formed with sloping portions terminating in a central well, perforations in the well portion near the bottom thereof and perforations in the sloping portions of progressively larger diameter from the well to the ends of the pan, said perforations being sufficiently small to oppose ready of cold lubricating oil and being of progressively increasing size from the well towards the ends of the pan, and a pump having its intake communicating with the lower portion of said well.
  • an oil pan Ina lubricating s stem, an oil pan, a partition in said pan ormed with sloping portions terminating in a central well, perforations in the well portion near the bottom thereof and of proper diameter to oppose ready flow therethrough of cold lubricating oil, perforations in the sloping portions of proper size to oppose ready flow therethrough of cold lubricating oil and being of progressively increasing size from the well towards the ends of the pan, a pump having its intake communicating with thelower rtion of said well, and tubes exten ing through said oil pan for flowing air into indirect heat exchange relation with oil in said pan.

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  • Engineering & Computer Science (AREA)
  • Mechanical Engineering (AREA)
  • General Engineering & Computer Science (AREA)
  • Lubrication Of Internal Combustion Engines (AREA)
  • Lubrication Details And Ventilation Of Internal Combustion Engines (AREA)

Description

May 2, 1933. H. B. CLARKE LUBRICATING SYSTEM Filed June 7, 1932 ATTORNEYS Patented May 2 1933 UNITED STATES PATENT OFFICE HENRY B. CLARKE, OI GARDEN CITY, NEW YORK, ASSIGNOB 1'0 LUBBICATION CONT BOL CORPORATION, OF CHICAGO, ILLINOIS, A CORPORATION OF DELAWARE LUBRICATING SYSTEM Application filed June 7, 1932'. serial No. 615,818.
This invention relates to' lubricatin sys- I tems for automobile engines and has or an object to efl'ectquick heating of a portion of the oil in the system to lower its viscosity with 5 subsequent gradual heating of the remainder of the oil to reduce the viscosity of the entire body of oil and also to prevent overheating of the oil and consequent undue viscosity decrease.
In a lubricating system embodym th1s invention, the oil pan is equipped wit a partition formed with sloping portlons terminatin in a central well. Perforations are provi d in the sloping portions and also 1n the well portion near the bottom thereof, these perforations belgg sufliclently small In diameter to oppose re y flow of cold lubricating oil. The oil pump for forclng oil to the bearings has its intake commumcating with the lower portion of the well. At the starting of'the engine, the pump circulates only the oil contained in the central well and so much other oil as may seep through the perforations in the well. The oil from the bearings drips on to the sloplng portions and at first runs back into the we 1. However, as the oil becomes heated and of lower viscosity, the oil dripping from the hearings on to the sloping portions of the artition passes through the perforations in t e sloping portions instead of flowing back over them to the well. The hydrostatic head outside the well is thus increased and more oil is caused to flow through the perforations into the well to be supplied to the bearings. This continues until the entire body of oil is heated and eventually substantiall all the oil dripp' from the bearings ows through the pe i orations in the sloping portions and is circulated through the well to the pump.
The oil pan is equippedwith tubes extending therethrough for passing air into indirect heat exchange relation with the oil in the an to prevent undue heating of the oil. referably, the holes in the sloping portion are larger near their upper ends so that the major portion of the oil is returned to the pans near the ends thereof, thus getting the full} benefit of the cooling effect from the tu es.
With this apparatus, a small body of oil is quickly heated to bring it to the roper viscosity for eflieient lubrication. e remainder of the oil is gradually circulated by the pump and reduced in viscosity. In this way, oil of proper viscosity is supplied to the bearings almost immediately upon starting of the engine.
Other objects, novel features and advantages of this invention will be apparentfrom the-following specification and accompanying drawing, w erein:
Fig. is aside elevation of an internal combust on engine equipped with a lubricating system embodying the invention;
Fig. 2 is a vertical section through the oil pan, and
Fig. 3 is a plan view thereof.
The engine 10 is provided with an oil pan '11 provided with a partition 12 having slopmg portions terminating in a central well 13. Tubes 14 extend transversely through the pan below the partition 12 and serve to flow air into indirect heat exchange relation with oil contained in the pan: Preferably a scoop (not shown) is provided for directing air through these tubes upon the forward movement of the automobile. The sloping portions of the artition 12 are perforated, the perforations ing of progressively larger diameter from the well to the ends of the pan. The perforations 12 are sufiiciently small that oil of high viscosity will not flow through them readily. Perforations 16 are provided in. the walls of the Welland these are also of sufliciently small diameter that high" viscosity oil will not readily flow through them.
A conduit 17 leads from the lower portion of the well 13 to the inlet of. a pump 18. A pipe 19 leads from the pump outlet to the bearings. A viscosity meter 20 of any wella known type is connected by a pipe 21 with the pipep19 and has an. outlet pipe 22 discharging into the oil pan. The pressure developed in the viscosity meter 20 is applied through a eonduit'23 to a gauge 24.
"Assume that the engine is started with the oil in the pan at atmospheric temperature. At such temperature the viscosity of the. oil is higher than required for proper lubrication.
The pump 18 draws oil from the well 13' and supplies the same to the bearings, thus reducperforations 15 rather than passing through them. However, after a short period of oporation, during which substantially only the oil in the well 13iscirculated, thetcirculated oil becomes sufficiently heated thatits vie cosity drops and the oil tends to flow through 5 the perforations 15 rather than downinto the well.
' 20' I The'hydrostatic head of the oil outside the Iwell is-thus increased and more oil tends to flow'through the holes 16 into the well and is supplied to the bearings. This continues until the entire body of oil is heated and eventually substantially all the oil dripping from the bearings flowsthrough the perforationslfi into that portion of the pan below the partition.
By reason of'the perforations 15 being larger near the ends of the pan, the major portion vof'the hot .oil dripping from the'bearings is returned to the pan near the ends thereof. I The returned hot oil circulates around the tubes 14 and is cooled, thus prerenting undue heating of the oil and main 'taining it at the proper-temperature to render it of the desired viscosity.
In the lubricating system above described, a small body of oil is quickly heated to bring it to the proper viscosity for eflicient lubrication so that oil of proper viscosity is supplied to the bearings almost immediately upon starting of the engine. The remainder of the oil is gradually circulated through the system and heated, thereby bringing all of the oil to the desired viscosity.
The temperature of the oil in the pan is regulated by cooling effect of air passing through the tubes 14. The cooling air is caused to flow through the tubes by forward movement of the automobile, thus supplying more cooling at high engine speeds than at low engine speeds. With transverse arrangement of the tubes, suitable means are provided for directing air through the tubes.-
The viscosity of the oil in the system is self-controlled and no regulator or control instrument is required. The provision of the well in the partition and the arrangement of apertures causes immediate heating of a small part of the oil with gradual heating of the remainder and the regulation of the oil flow to effect cooling thereof and maintaining the proper viscosity is obtained without the use of any instrument gauge or the like.
The arrangement of tubes 14 in the oil pan 'thewell; I I I .11 is not herein claimed per so as such arrangement is claimedin the co-pending application, Serial No. 630,172 of Harry T.
Booth who is the inventor thereof. 7
It is of course understood that various modifications may be made in thedevice above described, without in any way depart;
ing from the spirit of the invention fined inthe appended claims.
-I claim: I I
1. In a lubricating system, an oil pan, a partition'in said pan formed with sloping as deportions terminating in a central well, perfo- I rations in thewell portionnear the bottom thereof andperforationsin the sloping per tions, said perforations being sufficiently small. to ofier high resistance to flow of cold lubricating oil, and a pump having its intake communicating with the lower portion of 2. In. a lubricating system, an oil partition in said. pan formed with sloping portions termin'atingzin a central well, perforations in the well: portion near the bottom thereof and perforations in the sloping porpan, a I
tions of progressively larger diameter from y the well to the ends of the pan, said perfc's rations being sufiiciently small to oppose readyflow therethrough of cold lubricating oil, and a pump having its intake communicatin with the lower portion of thewell 3. n a lubricating system, .an oil pan, a
partition in said pan formed with sloping portions terminating in a central well, perfo rations in thewell portion near the bottom thereof and perforations in the sloping portions, said perforations being sufliciently small to ofier high resistance to flow of cold lubricating oil, and a. pump having its intake communicating with the lower portion ofthe well, and tubes extending through said pan for flowing air into indirect heat exchange relation w1th oil in the pan.
4. In a lubricating system, an oil pan, a partition in said pan formed with sloping portions terminating in a central well, perforations in the well portion near the bottom thereof and perforations in the sloping portions of progressively larger diameter from the well to the ends of the pan, said perforations being sufficiently small to oppose ready of cold lubricating oil and being of progressively increasing size from the well towards the ends of the pan, and a pump having its intake communicating with the lower portion of said well.
6. Ina lubricating s stem, an oil pan, a partition in said pan ormed with sloping portions terminating in a central well, perforations in the well portion near the bottom thereof and of proper diameter to oppose ready flow therethrough of cold lubricating oil, perforations in the sloping portions of proper size to oppose ready flow therethrough of cold lubricating oil and being of progressively increasing size from the well towards the ends of the pan, a pump having its intake communicating with thelower rtion of said well, and tubes exten ing through said oil pan for flowing air into indirect heat exchange relation with oil in said pan.
In testimony whereof, I have signed my name to this specification.
HENRY B. CLARKE.
US615818A 1932-06-07 1932-06-07 Lubricating system Expired - Lifetime US1906540A (en)

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Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
DE740322C (en) * 1937-08-27 1943-10-18 Ringhoffer Tatra Werke Ag Internal combustion engine for motor vehicles with an oil cooler
US2419634A (en) * 1942-09-03 1947-04-29 United Aircraft Prod Congealable liquid conditioning device
US2476405A (en) * 1942-11-27 1949-07-19 Gen Motors Corp Lubricating oil conditioner
US2673571A (en) * 1950-07-05 1954-03-30 Howard W Lerom Oil pump well viscosity actuated oil heater
US20190024640A1 (en) * 2015-11-30 2019-01-24 Aerodyn Consulting Singapore Pte Ltd Air-Cooled Oil Tank, and Wind Turbine Comprising an Air-Cooled Oil Tank

Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
DE740322C (en) * 1937-08-27 1943-10-18 Ringhoffer Tatra Werke Ag Internal combustion engine for motor vehicles with an oil cooler
US2419634A (en) * 1942-09-03 1947-04-29 United Aircraft Prod Congealable liquid conditioning device
US2476405A (en) * 1942-11-27 1949-07-19 Gen Motors Corp Lubricating oil conditioner
US2673571A (en) * 1950-07-05 1954-03-30 Howard W Lerom Oil pump well viscosity actuated oil heater
US20190024640A1 (en) * 2015-11-30 2019-01-24 Aerodyn Consulting Singapore Pte Ltd Air-Cooled Oil Tank, and Wind Turbine Comprising an Air-Cooled Oil Tank

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