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US1804561A - Apparatus and process of generating power - Google Patents

Apparatus and process of generating power Download PDF

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US1804561A
US1804561A US347991A US34799119A US1804561A US 1804561 A US1804561 A US 1804561A US 347991 A US347991 A US 347991A US 34799119 A US34799119 A US 34799119A US 1804561 A US1804561 A US 1804561A
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vapors
valve
turbine
oil
vapor
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US347991A
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Kirschbraun Lester
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    • CCHEMISTRY; METALLURGY
    • C10PETROLEUM, GAS OR COKE INDUSTRIES; TECHNICAL GASES CONTAINING CARBON MONOXIDE; FUELS; LUBRICANTS; PEAT
    • C10GCRACKING HYDROCARBON OILS; PRODUCTION OF LIQUID HYDROCARBON MIXTURES, e.g. BY DESTRUCTIVE HYDROGENATION, OLIGOMERISATION, POLYMERISATION; RECOVERY OF HYDROCARBON OILS FROM OIL-SHALE, OIL-SAND, OR GASES; REFINING MIXTURES MAINLY CONSISTING OF HYDROCARBONS; REFORMING OF NAPHTHA; MINERAL WAXES
    • C10G9/00Thermal non-catalytic cracking, in the absence of hydrogen, of hydrocarbon oils
    • C10G9/14Thermal non-catalytic cracking, in the absence of hydrogen, of hydrocarbon oils in pipes or coils with or without auxiliary means, e.g. digesters, soaking drums, expansion means
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F01MACHINES OR ENGINES IN GENERAL; ENGINE PLANTS IN GENERAL; STEAM ENGINES
    • F01KSTEAM ENGINE PLANTS; STEAM ACCUMULATORS; ENGINE PLANTS NOT OTHERWISE PROVIDED FOR; ENGINES USING SPECIAL WORKING FLUIDS OR CYCLES
    • F01K25/00Plants or engines characterised by use of special working fluids, not otherwise provided for; Plants operating in closed cycles and not otherwise provided for
    • F01K25/08Plants or engines characterised by use of special working fluids, not otherwise provided for; Plants operating in closed cycles and not otherwise provided for using special vapours

Definitions

  • My invention relates to an apparatus and a process for. generating power and refers more particularly to a means of using the energy generated in an oil still while crack- 1 ing hydrocarbons or the like.
  • a turbine, rotary motor or other type of motive power which may be adapted to efliciently requisition the power generated in the body of the oil by the heat applied to the cracking tubes and at the same time transferring said power into tangible work which may be employed in the operation of ma- 'chinery; to provide a suitable type of motive power interposed in the vapor line of an oil still adapted to be driven by the energy contained in the gaseous oil vapors and in con .nection with said motive power, provision is made for collecting the expended condensate; to provide a source of motive power whichis adapted to extract'the energy from the body of the oil in a cracking process and one which, while having adephlegmatory effect, combines a means of utilizing the heat energy given ofif' during this dephlegmation; to provide a source of motive power which utilizes power heretofore wasted, and one which can be
  • the drawing shows a diagrammatic side elevation of an oil cracking system with The power generator inserted in the vapor
  • the drawing -depicts an oil still in which the raw oil is introduced into the cracking tubes 1 through the charging pipe 2, the latter being controlled by valve 3.
  • the crackin tubes are mounted above the furnace 4 which is heated, preferably by a burner 5.
  • the oil vapors pass from the cracking tubes into the vapor tubes 6, which are mounted above the cracking tubes and are provided with the residuum drawofi pipe 7, controlled by valve 8.
  • the residuum drawn oif from the vapor tubes may be piped to any suitable tank or collector (not shown).
  • the oil vapors from i the vapor tubes proceed through the pipe 9 is accomplished by closing the valve 14 and opening the valve 13 which causes the vapors to pass through the dephlegmator out through the gooseneck 18 to'the coil 19 and water condenser 20. From the water condenser, the
  • distillate is collected in the receiver 21 which is fitted with the common type of liquidgauge 22, and pressure gauge 23.
  • the recelyer is also equipped with a pressure valve 24 in the outlet pipe 25 and a drawofit' pipe 26 at the bottom of the" receiver, controlled by a valve :27.
  • a valve 29 From the bottom of the dephlegmator is a line 28 controlled by a valve 29 which directs the distillate which collects in the bot- :tom of the dephlegmator to a pump 30, where it is forced through the pipe 31 back into a .pipe 32, which is connected to the cracking tubes through the charging pipe 2.
  • a valve 33 is inserted in the line31 to regulate the -flow of the returning distillate.
  • valve 13 When the volume of the oil vapors has increased to an extent that their energy may be used in generating power, the valve 13 is closed; the valve 14 opened. This causes the oil vapors to' proceed through the plpe 12 to a turbine 34'into which the amount of oil vapor allowed to enter is controlled by means 35 of a throttle valve 35.
  • a turbine because this type of machme 13 adapted to efiicient operation with a gaseous vapor. I do not, however, wish to limit myself to this type of motive power as-a rotary engine or any type of mac line that may be operated by a gaseous.
  • vapor ma be emloyed to convert the energy 1n t s vapor mto a tangible power.
  • This turbine asshown in the drawlng, 13- represented as the usual type of steam turbine directly connected to a generator 36.
  • the details of this turbine at this tlme are omitted, although it is appreciated that the construction as shown may necessarily be 1 it somewhat altered to conform with the peculiar characteristics of the vapor used as power.
  • a common type of safety valve is mounted upon the turbine at 37. As the heated oil vapors expend their energy in driving the turbine, there will necessarily take place a considerable amount of condensation and view of this, I have provided directly below the turbine a collecting tank 38, which is connected therewith by means of the pipe 39.
  • the distillate collected in this tank may be drawn 01f through the pipe 40 controlled by a valve 41 or directed back into the system through the pipe 42 regulated by valve 43 which leads to a pump 44, said pump forcing the distillate back into the charging pipe 2 through the pipe line 32.
  • the valve 45 is inserted in the line. 32 and may be used to regulate the amount of distillate charged back into this system and will necessarily be closed when the distillate is being charged into the system through the pump 30.
  • the valve 46 also inserted in the line 32 cuts out all means of recharging the distillate into the raw oil.
  • valves 48 and 49 are inserted in the lines 47 and 18 respectively, directly above the coil in the water condenser and are used to regulate and control the vapors passing through these pipes.
  • the valve 49 will be open and the valve 48 closed but when the vapors are passing through the turbine, the valve 48 will be open and the valve 49 closed, thereby directing the exhausted volatile gases from the turbine into the water condenser for condensation and thence to the receiver.
  • a pipe 50 controlled by a valve 51 connects the receiver with a pump 30 and provides a means of recharging the distillate in the receiver, back into the cracking tubes.
  • the pressure on the s stem may be regulated by the valves 8, 17 2 41 and 24.
  • I have shown a portion of the pipe 9 heavily lagged wlth insulating material. It is advisable to have the pipes throughout the system la ged in this manner, due to the loss of heat from radiation. 7
  • Qthe-oil vapors from the vapor tubes 6 may be directed through the system by two separate and distinct routes, first, that through the dephlegmator, condenser and receiver, and second, through the turbine, condenser and receiver.
  • the vapor line leading to the turbine is closed, thereby cutting out entirely this portlon of the system, and on the other hand, when the volume of vapor has increased so that this source of power may be diverted into the turbine, the course of the vapors to the dephlegmator is cut off by the valve 13, and the vapors caused to travel through the second route to the turbine previously explained.
  • turbines having the usual high speed jet openings for increasing the velocity of the vapors, and said jet openings causing the vapors to attain a velocity often in excess of 2500 feet per second. It is manifest that all turbines are provided with fluid jets which is an inherent characteristic of a turbine.
  • the electrical energy produced in the generator 36 may be utilized for operating-machinery or in any way desired. It will be appreciated that there will be a substantial amount of power generated in this turbine as the vapors are at high pressure and travel at a high velocity.
  • a process of treating hydrocarbons comprising passing oil in a small stream through a heating coil where it is subjected to a cracking temperature, in discharging the oil into a vapor chamber where vaporization occurs, in discharging at regulated intervals the vapors from said chamber to an engine to utilize the expansive energy of said vapors in the development of power and to effect a separation of heavier from lighter oil constituents, in discharging the heavier condensed fractions from said engine, and in discharging the uncondenser fractions for condensation and collection.

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  • Chemical & Material Sciences (AREA)
  • Engineering & Computer Science (AREA)
  • Oil, Petroleum & Natural Gas (AREA)
  • Combustion & Propulsion (AREA)
  • Mechanical Engineering (AREA)
  • General Engineering & Computer Science (AREA)
  • Physics & Mathematics (AREA)
  • Thermal Sciences (AREA)
  • Chemical Kinetics & Catalysis (AREA)
  • General Chemical & Material Sciences (AREA)
  • Organic Chemistry (AREA)
  • Engine Equipment That Uses Special Cycles (AREA)

Description

May 112, 1931. 1.. KIRSCHBRAUN H APPARATUS AND PROCESS OF GENERATING POWER Original Filed Dec. 29, 1919 1Q HHW H M H H IH HHH I IH Registered May 12, 1931 UITE s'rs LESTER KIRSCHBRAUN, OF CHICAGO, ILLINOIS APPARATUS AN D PROCESS OF GENERATING POWER Application filed December 29, 1919, Serial No.'347,991. Renewed October 1, 1927.
My invention relates to an apparatus and a process for. generating power and refers more particularly to a means of using the energy generated in an oil still while crack- 1 ing hydrocarbons or the like.
Among its salient objects are to provide interposed in the vapor line of a cracking still, a turbine, rotary motor or other type of motive power which may be adapted to efliciently requisition the power generated in the body of the oil by the heat applied to the cracking tubes and at the same time transferring said power into tangible work which may be employed in the operation of ma- 'chinery; to provide a suitable type of motive power interposed in the vapor line of an oil still adapted to be driven by the energy contained in the gaseous oil vapors and in con .nection with said motive power, provision is made for collecting the expended condensate; to provide a source of motive power whichis adapted to extract'the energy from the body of the oil in a cracking process and one which, while having adephlegmatory effect, combines a means of utilizing the heat energy given ofif' during this dephlegmation; to provide a source of motive power which utilizes power heretofore wasted, and one which can be efl'ectively controlled toperform useful'work and in general to provide'an improved type of apparatus of the character reerred to.
The drawing shows a diagrammatic side elevation of an oil cracking system with The power generator inserted in the vapor The drawing-depicts an oil still in which the raw oil is introduced into the cracking tubes 1 through the charging pipe 2, the latter being controlled by valve 3. The crackin tubes are mounted above the furnace 4 which is heated, preferably by a burner 5. The oil vapors pass from the cracking tubes into the vapor tubes 6, which are mounted above the cracking tubes and are provided with the residuum drawofi pipe 7, controlled by valve 8. The residuum drawn oif from the vapor tubes may be piped to any suitable tank or collector (not shown). The oil vapors from i the vapor tubes proceed through the pipe 9 is accomplished by closing the valve 14 and opening the valve 13 which causes the vapors to pass through the dephlegmator out through the gooseneck 18 to'the coil 19 and water condenser 20. From the water condenser, the
distillate is collected in the receiver 21 which is fitted with the common type of liquidgauge 22, and pressure gauge 23. The recelyer is also equipped with a pressure valve 24 in the outlet pipe 25 and a drawofit' pipe 26 at the bottom of the" receiver, controlled by a valve :27. From the bottom of the dephlegmator is a line 28 controlled by a valve 29 which directs the distillate which collects in the bot- :tom of the dephlegmator to a pump 30, where it is forced through the pipe 31 back into a .pipe 32, which is connected to the cracking tubes through the charging pipe 2. A valve 33 is inserted in the line31 to regulate the -flow of the returning distillate.
When the volume of the oil vapors has increased to an extent that their energy may be used in generating power, the valve 13 is closed; the valve 14 opened. This causes the oil vapors to' proceed through the plpe 12 to a turbine 34'into which the amount of oil vapor allowed to enter is controlled by means 35 of a throttle valve 35. I have stipulated here a turbine because this type of machme 13 adapted to efiicient operation with a gaseous vapor. I do not, however, wish to limit myself to this type of motive power as-a rotary engine or any type of mac line that may be operated by a gaseous. vapor ma be emloyed to convert the energy 1n t s vapor mto a tangible power.
This turbine, asshown in the drawlng, 13- represented as the usual type of steam turbine directly connected to a generator 36. The details of this turbine at this tlme are omitted, although it is appreciated that the construction as shown may necessarily be 1 it somewhat altered to conform with the peculiar characteristics of the vapor used as power. A common type of safety valve is mounted upon the turbine at 37. As the heated oil vapors expend their energy in driving the turbine, there will necessarily take place a considerable amount of condensation and view of this, I have provided directly below the turbine a collecting tank 38, which is connected therewith by means of the pipe 39. The distillate collected in this tank may be drawn 01f through the pipe 40 controlled by a valve 41 or directed back into the system through the pipe 42 regulated by valve 43 which leads to a pump 44, said pump forcing the distillate back into the charging pipe 2 through the pipe line 32. The valve 45 is inserted in the line. 32 and may be used to regulate the amount of distillate charged back into this system and will necessarily be closed when the distillate is being charged into the system through the pump 30. The valve 46 also inserted in the line 32 cuts out all means of recharging the distillate into the raw oil.
To return to the oil vapors, after passing through the turbine, they are conducted through the outlet pipe 47 to the coil 19 and condenser 20; Two valves 48 and 49 are inserted in the lines 47 and 18 respectively, directly above the coil in the water condenser and are used to regulate and control the vapors passing through these pipes. When the vapors are passing through the dephlegmator thence into the water condenser, the valve 49 will be open and the valve 48 closed but when the vapors are passing through the turbine, the valve 48 will be open and the valve 49 closed, thereby directing the exhausted volatile gases from the turbine into the water condenser for condensation and thence to the receiver.
A pipe 50, controlled by a valve 51 connects the receiver with a pump 30 and provides a means of recharging the distillate in the receiver, back into the cracking tubes. The pressure on the s stem may be regulated by the valves 8, 17 2 41 and 24. At 52, I have shown a portion of the pipe 9 heavily lagged wlth insulating material. It is advisable to have the pipes throughout the system la ged in this manner, due to the loss of heat from radiation. 7
It will be noted thatQthe-oil vapors from the vapor tubes 6 may be directed through the system by two separate and distinct routes, first, that through the dephlegmator, condenser and receiver, and second, through the turbine, condenser and receiver. When the vapors are directed through the dephelgmator, the vapor line leading to the turbine is closed, thereby cutting out entirely this portlon of the system, and on the other hand, when the volume of vapor has increased so that this source of power may be diverted into the turbine, the course of the vapors to the dephlegmator is cut off by the valve 13, and the vapors caused to travel through the second route to the turbine previously explained. Various types of turbines can be employed, but I preferably use turbines having the usual high speed jet openings for increasing the velocity of the vapors, and said jet openings causing the vapors to attain a velocity often in excess of 2500 feet per second. It is manifest that all turbines are provided with fluid jets which is an inherent characteristic of a turbine. The electrical energy produced in the generator 36 may be utilized for operating-machinery or in any way desired. It will be appreciated that there will be a substantial amount of power generated in this turbine as the vapors are at high pressure and travel at a high velocity.
The turbine, travelingat a high velocity will cause the centrifugal force, which is very considerable, to be exerted upon the distillate which may condense upon its rotating members. This centrifugal force will have a separative tendency, causing the heavier distillate to be divided from the lighter vapors. In this way, besides the condensation before mentioned, the separating out of the distillate will be materially aided bythis centrifugal force.
In conclusion it may be noted that by means ofthis process and apparatus not only may the energy of the vapors be utilized to generate power but by the same means'the vapors can be very effectively condensed. For example, if a three stage turbine be interposed in the vapor line, condensation will take place at decreasing temperatures and pressures in each stage. Also the condensate from each stage turbine may be independently trapped off and collected. By suitably regulating the valves in the still, one hundred pounds vapor pressure may be maintained in the still, and then as the gases are released through the throttle valve they come 7 under suflicient force and velocity to generate substantial energy.
I claim as my invention:
1. A process of treating hydrocarbons, comprising passing oil in a small stream through a heating coil where it is subjected to a cracking temperature, in discharging the oil into a vapor chamber where vaporization occurs, in discharging at regulated intervals the vapors from said chamber to an engine to utilize the expansive energy of said vapors in the development of power and to effect a separation of heavier from lighter oil constituents, in discharging the heavier condensed fractions from said engine, and in discharging the uncondenser fractions for condensation and collection.
'2. In oil distilling apparatus, the combinatemperature of volatilization; a separator into which the heated oil is delivered; means for regulating the discharge of oil from said separator in proportion to its entrance thereinto; means associated with the apparatus for definitely regulatin the pressure within said separator; means or converting the expansive heat energy of the vapor products from said separator into mechanical energy, and means for separately exhausting the vapors and non-vaporous products from said converting means. I
LESTER KIRSOHBRA
US347991A 1919-12-29 1919-12-29 Apparatus and process of generating power Expired - Lifetime US1804561A (en)

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Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2660032A (en) * 1947-10-04 1953-11-24 Rosenthal Henry Gas turbine cycle employing secondary fuel as a coolant
WO2006123995A1 (en) * 2005-05-19 2006-11-23 Michael Abrahamsson Method, device and system for efficient energy transformation

Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2660032A (en) * 1947-10-04 1953-11-24 Rosenthal Henry Gas turbine cycle employing secondary fuel as a coolant
WO2006123995A1 (en) * 2005-05-19 2006-11-23 Michael Abrahamsson Method, device and system for efficient energy transformation
US20090301098A1 (en) * 2005-05-19 2009-12-10 Michael Abrahamsson Method, device and system for efficeint energy transformation

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