US1343577A - Heat-engine - Google Patents

Heat-engine Download PDF

Info

Publication number
US1343577A
US1343577A US225317A US22531718A US1343577A US 1343577 A US1343577 A US 1343577A US 225317 A US225317 A US 225317A US 22531718 A US22531718 A US 22531718A US 1343577 A US1343577 A US 1343577A
Authority
US
United States
Prior art keywords
boiler
heat
condenser
vapor
atmosphere
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Expired - Lifetime
Application number
US225317A
Inventor
Okey Perry
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Individual
Original Assignee
Individual
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Individual filed Critical Individual
Priority to US225317A priority Critical patent/US1343577A/en
Application granted granted Critical
Publication of US1343577A publication Critical patent/US1343577A/en
Anticipated expiration legal-status Critical
Expired - Lifetime legal-status Critical Current

Links

Images

Classifications

    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F02COMBUSTION ENGINES; HOT-GAS OR COMBUSTION-PRODUCT ENGINE PLANTS
    • F02CGAS-TURBINE PLANTS; AIR INTAKES FOR JET-PROPULSION PLANTS; CONTROLLING FUEL SUPPLY IN AIR-BREATHING JET-PROPULSION PLANTS
    • F02C3/00Gas-turbine plants characterised by the use of combustion products as the working fluid
    • F02C3/04Gas-turbine plants characterised by the use of combustion products as the working fluid having a turbine driving a compressor

Definitions

  • Tnis invention relates to a heat engme which produces mechanical work by utllizing the heat contained in the atmosphere as a primary .source of energy.
  • My inventlon employs a working fluid which 1s made to vary in density or pressure'by a temperathe ture difference created and maintained by theinherent heat of the atmosphere and by the capacity of the atmosphere for absorbingwater vapor.
  • the working fluid may be one of the so called true gases or the vapor of a liquid and the working cycle may be that of a true gas or a va or cycle in which the substance 1s alternate y vaporized and condensed to its liquid.
  • the working fluid merely acts as the agent which absorbs heat from the atmosphere, converts a part of such heat 1nto mechanical work and rejects the remainder of the heat back into the atmosphere through the medium of water vapor.
  • Figure ig. 2 is a section taken on line 2-2 of Fi 1.
  • the boiler is represented by the reference numeral 1 and this boiler is provided with a plurality of fins or ribs 2 or some similar structure whereby heat may be readily absorbed from the atmosphere.
  • the condenser i represented by the reference numeral 3 an is provided on its exterior surface with a covering of fibrous material such as wicking 4 which latter 1s 1n. 7
  • boiler 1 is-in communication with a power element or prime mover through the medium of the connection of conduit 7 ,which latter is provided with a .valve 8.
  • the pr me mover itself has been illustrated as a turbinewheel 9 mounted upon a shaft 10 which -projects outthrough the hermetically sealed 1 represents aheat engine embodyin all the elements of my lnvention, and, p
  • top of the condenser 3.120 be in communicatom of this condenser and the bottom of a b01181 are also in communication with each other by means of the conduit shownat 14 which latter is provided with a covering of insulating material 15 to prevent the radiation'of'heat as much as is possible.
  • a suitable working fluid such as l1qu1d sulfur dioxid, anhydrous ammonia,
  • the condensed vapor leaving the condenser and entering the boiler as a liquid having a temperature lower than that ofthe atmosphere absorbs heat from the atmosphere through the boiler walls and is raised in temperature until it approaches or equals that of the atmosphere.
  • the pressure of the vapor above the liquid in the boiler corresponds of course to the temperature of the liquid and is necessarily higher than that in the condenser and this higher pressure causes a flow of vapor through the turbine to the condenser, mechanical work being developed by the turbine during such transfer.
  • the difference of vapor pressure also causes a diflference of levels of the liquid in the boiler .and that in the conduit 14 leading from the condenser to the boiler and.
  • this difierence acts in lieu of a pump for feeding the boiler, but this arrangement is not absolutely essential and in fact, couldnot be used if the condenser were placed below the level 'ofa boiler, in which case a pump will be. required forthe purpose.
  • a heat engine comprising an inclosed cycle of parts in which a working fluid is confined, said fluid being convertible from.
  • conduit ofv relatively small diameter connecting the lower ends of said condenser and boiler, a second connection between-the upper portions of saidcondenser and boiler and a work producing element situated withinsaid second connection, the pressure of the workingv fluid in said boiler being greater than that in the condenser whereby the level of the fluid in said boiler will be appreciably lower than that in the conduit, thus permitting a positive gravitational flow ofthe fluid from said condenser and mto I said boiler.
  • a heat engine comprising a working fluid which is convertible into a vapor at atmospheric temperatures, a boiler and a condenser in which the working fluid is con-v fined, said condenser being situatedon a plane substantially above said boiler, means 'for transferring the working fluid from said condenser to said boiler by gravitative flow, said means being of lesser diameter than said boiler and responsive to the variation in the respective pressures of the condenser nection and capable of utiliz" the work and boiler to maintain the liquid in said available by the subjection of t e working boiler on'a. lower plane than in said means, fluid to the different temperatures efiected 10 a connection between the said boiler and through the use of said boiler and concondenser for the flow of the worln'ng fluid denser.

Description

P. OKEY.
HEAT ENGINE.
APPLICATION FILED MAR. 28, 191B. 1 ,343 ,577. Patented June 15, 1920.
z 1 10 z y I i 1 I r 5 o 1 i' f) 4 a F) "I T t I 5 :I r 6 1 l 2.
1 9 Q I I I avwemtoz 0/16 wi/IMQA I C I,
UNITED TATES PATENT mm ream? our, on conumaus, 0310.
nm'r suemn.
Specification of Letters Patent.
. Application filed March 28,1918. Serial No; 225,317.
7 To all whom it may concern Be it known thatI, PERRY OK-EY, a citizen of the United States, residing at Columbus, in the county of Franklin an State of Ohio,
have invented certain new and useful Improvements in Heat-Engines, of which ollowing is a specification.
Tnis invention relates to a heat engme which produces mechanical work by utllizing the heat contained in the atmosphere as a primary .source of energy. My inventlon employs a working fluid which 1s made to vary in density or pressure'by a temperathe ture difference created and maintained by theinherent heat of the atmosphere and by the capacity of the atmosphere for absorbingwater vapor. The working fluid may be one of the so called true gases or the vapor of a liquid and the working cycle may be that of a true gas or a va or cycle in which the substance 1s alternate y vaporized and condensed to its liquid. 1n elther case the working fluid merely acts as the agent which absorbs heat from the atmosphere, converts a part of such heat 1nto mechanical work and rejects the remainder of the heat back into the atmosphere through the medium of water vapor.
An embodiment of my invention when using a liquified gas as the working medlum is shown in the accompanying sheet of drawings in-which similar characters of reference designate corresponding. parts, and in which,
Figure ig. 2 is a section taken on line 2-2 of Fi 1. V
l n these drawings, the boiler is represented by the reference numeral 1 and this boiler is provided with a plurality of fins or ribs 2 or some similar structure whereby heat may be readily absorbed from the atmosphere. The condenser i represented by the reference numeral 3 an is provided on its exterior surface with a covering of fibrous material such as wicking 4 which latter 1s 1n. 7
communication with a supply of water 5 confined withinthe cup shown at 6. The
boiler 1 is-in communication with a power element or prime mover through the medium of the connection of conduit 7 ,which latter is provided with a .valve 8. The pr me mover itself has been illustrated as a turbinewheel 9 mounted upon a shaft 10 which -projects outthrough the hermetically sealed 1 represents aheat engine embodyin all the elements of my lnvention, and, p
'which the fluid is introduced.
housing 11 which is mounted upon the open Patented June 15 1920.
top of the condenser 3.120 be in communicatom of this condenser and the bottom of a b01181 are also in communication with each other by means of the conduit shownat 14 which latter is provided with a covering of insulating material 15 to prevent the radiation'of'heat as much as is possible.
The methodand manner ofoperation is as follows: A suitable working fluid such as l1qu1d sulfur dioxid, anhydrous ammonia,
or any liquid'whichis convertible into a gas or vapor at ordmary tem eratures is utilized. The air is exhausted f i'om the entire system through: the valve shown at 16 and the working fluid is then introduced into the boiler by means of this same valve. A suflicient quantity of this fluid is'intro} duced so that a portion of the system such as the boiler 1 will contain the fluid in liquid form while its vapor fills the remaining space, the fluid itself forming a pressure in the system for preventing all of the liquid from bemg converted into a vapor at the particular temperature of the at osphere at 7 he cup 6 is filled with water which spreads over the surface of the condenser because of a fibrous covering by capillarity. Under normal conditions, such as when the atmosphere is above 32 degrees F. and when the relative humidity is less than this .water will evaporatefrom thesurface of the condenser and, inasmuch as heat is required to effect suchfevaporation; it follows that a portion of such heat is abstracted from the condenser which reduces its temperature and the temperature of its contents and therefore causes a condensation of a part of the 'vapor there-- v in and a reduction of the vapor pressure necessarily follows. A difference now-exists.
between the vapor pressure in the condenser which is lower in temperature than the atmosphere and the vapor pressure in the boiler which has a temperature equal to that of the atmosphere, it being understood that I the orifice in the nozzle 13 is comparatively small. The condensed vapor leaving the condenser and entering the boiler as a liquid having a temperature lower than that ofthe atmosphere absorbs heat from the atmosphere through the boiler walls and is raised in temperature until it approaches or equals that of the atmosphere. The pressure of the vapor above the liquid in the boiler corresponds of course to the temperature of the liquid and is necessarily higher than that in the condenser and this higher pressure causes a flow of vapor through the turbine to the condenser, mechanical work being developed by the turbine during such transfer. The difference of vapor pressure also causes a diflference of levels of the liquid in the boiler .and that in the conduit 14 leading from the condenser to the boiler and. this difierence acts in lieu of a pump for feeding the boiler, but this arrangement is not absolutely essential and in fact, couldnot be used if the condenser were placed below the level 'ofa boiler, in which case a pump will be. required forthe purpose. It will be noted, therefore, that the processes are continuous, heat being rejected from the condenser to the atmosphere through the medium of the evaporation'of water causing a continuous condensation of vapor in the condenser, and a continuous absorption of heat from the atmosphere by the boiler, equal in value to that rejected by the condenser, less, however, the amount which is transformed into by the turbine. v a
Stated in another way, a difference in temperature is -maintained between the intake and exhaust sides of a prime mover which causes the working vapor to be continuously condensed to its liquid on the exhaust side,
and the liquid to be continuously 'ev'iporated into its vapor on the intake side, ioth of which functions are due to and are caused by properties existing in the atmosphere ghereby additional Y while heat is being given up by another portion of it though being at the time in the same state of temperature and humidity.
heat may be absorbed Such interchange'ofjlreat is utilized in the gas production of mechanical work through the working vapor acting upon the vanes of the turbine wheel after expanding in the nozzle 13 during its ,change from initial to final of using a liquefied gas as a workair or any other so called perfect be selected, a fixed weight of it Instead ing fluid, may
' being confined and caused to alternately absorb and reject heat from and to the hot and cold sides of an apparatus such as has been described, the variation of pressure created mechanical work it through the vehicle of water vapor imam 7 From the foregoing water and by the absorption of heat by the boiler 'by direct contact with the atmosphere. eration, it will continue in operation mdefinitely by usingthe working fluid over and over again so'long as water is supplied to the cup 6 and so long as the atmospheric temperature is above 32 degrees F. and the relative humidity of the atmosphere is below 100%.
When once the engine is set in op During periods bfhigh humidity or temperature below 32 degrees F., power maybe generated by supplying artificial heat to the boiler.- The energy represented by the latent heat of fusion of ice or snow may also be utilized by permittin these substances to abstract heat. from t e condenser while heat is being absorbed from the atmosphere by the boiler. Similarly, a difference in temperature between the atmosphere and a body of water such as a river, lake or ocean may be utilized for work" by the absorption and rejection of heat as described.
What I cfaim is:
1. A heat engine comprising an inclosed cycle of parts in which a working fluid is confined, said fluid being convertible from.
conduit ofv relatively small diameter connecting the lower ends of said condenser and boiler, a second connection between-the upper portions of saidcondenser and boiler and a work producing element situated withinsaid second connection, the pressure of the workingv fluid in said boiler being greater than that in the condenser whereby the level of the fluid in said boiler will be appreciably lower than that in the conduit, thus permitting a positive gravitational flow ofthe fluid from said condenser and mto I said boiler.
2. A heat engine comprising a working fluid which is convertible into a vapor at atmospheric temperatures, a boiler and a condenser in which the working fluid is con-v fined, said condenser being situatedon a plane substantially above said boiler, means 'for transferring the working fluid from said condenser to said boiler by gravitative flow, said means being of lesser diameter than said boiler and responsive to the variation in the respective pressures of the condenser nection and capable of utiliz" the work and boiler to maintain the liquid in said available by the subjection of t e working boiler on'a. lower plane than in said means, fluid to the different temperatures efiected 10 a connection between the said boiler and through the use of said boiler and concondenser for the flow of the worln'ng fluid denser. I I
in the vapor state, and a power developing In testimony whereof I afiix m si ature. element interposed in the last named con- PERR O Y.
US225317A 1918-03-28 1918-03-28 Heat-engine Expired - Lifetime US1343577A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
US225317A US1343577A (en) 1918-03-28 1918-03-28 Heat-engine

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
US225317A US1343577A (en) 1918-03-28 1918-03-28 Heat-engine

Publications (1)

Publication Number Publication Date
US1343577A true US1343577A (en) 1920-06-15

Family

ID=22844405

Family Applications (1)

Application Number Title Priority Date Filing Date
US225317A Expired - Lifetime US1343577A (en) 1918-03-28 1918-03-28 Heat-engine

Country Status (1)

Country Link
US (1) US1343577A (en)

Cited By (7)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US3067572A (en) * 1959-04-03 1962-12-11 Inst Francais Du Petrole Process for converting light energy to mechanical power
US4022024A (en) * 1974-05-13 1977-05-10 Eugenio Eibenschutz Abeles Thermosiphon engine and method
US4316703A (en) * 1979-10-29 1982-02-23 Kunzelman Richard D Gas compressor
US20090288410A1 (en) * 2006-03-31 2009-11-26 Klaus Wolter Method, device, and system for converting energy
US20100212321A1 (en) * 2009-02-20 2010-08-26 Thompson Steven A Heat exchangers and tower structure for density-driven power generation
US9745867B1 (en) 2016-07-25 2017-08-29 Loren R. Eastland Compound energy co-generation system
US11767828B2 (en) 2023-03-27 2023-09-26 Daniel L. Amend Light turbine, turbine, and turbine housing for vane evaluation

Cited By (9)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US3067572A (en) * 1959-04-03 1962-12-11 Inst Francais Du Petrole Process for converting light energy to mechanical power
US4022024A (en) * 1974-05-13 1977-05-10 Eugenio Eibenschutz Abeles Thermosiphon engine and method
US4316703A (en) * 1979-10-29 1982-02-23 Kunzelman Richard D Gas compressor
US20090288410A1 (en) * 2006-03-31 2009-11-26 Klaus Wolter Method, device, and system for converting energy
US8393153B2 (en) * 2006-03-31 2013-03-12 Klaus Wolter Method, device, and system for converting energy
US20100212321A1 (en) * 2009-02-20 2010-08-26 Thompson Steven A Heat exchangers and tower structure for density-driven power generation
US8640461B2 (en) 2009-02-20 2014-02-04 Steven A. Thompson Heat exchangers and tower structure for density-driven power generation
US9745867B1 (en) 2016-07-25 2017-08-29 Loren R. Eastland Compound energy co-generation system
US11767828B2 (en) 2023-03-27 2023-09-26 Daniel L. Amend Light turbine, turbine, and turbine housing for vane evaluation

Similar Documents

Publication Publication Date Title
US1343577A (en) Heat-engine
US4191021A (en) Small power plant utilizing waste heat
US3953971A (en) Power generation arrangement
AU2007280834A1 (en) Method and apparatus for use of low-temperature heat for electricity generation
US3995160A (en) Method and apparatus for obtaining electrical power from sea water
US4325216A (en) Thermodynamic flotation engine
CN104833248B (en) Lunar vehicle radiation radiator
JP2009536705A (en) Method and apparatus
US1604280A (en) Steam generating and superheating plant
US3180111A (en) Combined insulating and cooling blanket
US8080A (en) Improved process for the artificial production of ice
US230323A (en) moleba
US3447314A (en) Lubricating arrangement for mercuryvapor turbogenerator
US1009320A (en) Heating and power plant.
JPS59119073A (en) Low temperature difference power plant
USRE18826E (en) And one-third to james e
US1882256A (en) Means and method of refrigeration
US342330A (en) Combined water-cooler and refrigerator
US4309619A (en) Solar energy system
US1872927A (en) Peak load generating station
US1109021A (en) Refrigerating apparatus.
US2041116A (en) Electric steam condenser
US530494A (en) of newton
WO1981001724A1 (en) Thermal energy conversion system and method utilizing unenased expandites
US1961788A (en) Two fluid power plant