US427399A - Joseph ii - Google Patents

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US427399A
US427399A US427399DA US427399A US 427399 A US427399 A US 427399A US 427399D A US427399D A US 427399DA US 427399 A US427399 A US 427399A
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ammonia
engine
absorber
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    • 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
    • F01K25/06Plants or engines characterised by use of special working fluids, not otherwise provided for; Plants operating in closed cycles and not otherwise provided for using mixtures of different fluids
    • F01K25/065Plants or engines characterised by use of special working fluids, not otherwise provided for; Plants operating in closed cycles and not otherwise provided for using mixtures of different fluids with an absorption fluid remaining at least partly in the liquid state, e.g. water for ammonia

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  • My improvement relates to the operation of that class of vapor-engines in which the elastic medium employed is a gas held in solution by physical absorption in a liquid from which the gas is liberated when the. solution is heated, and by which it is readily reabsorbed when the liquid is cooled.
  • the liquid which I employ is aqua-ammonia or ammonia-gas held in aqueous solution, and in the specification and claims I denominate the class of engines to which my invention applies as ammoniaengines.
  • My invention also relates to the apparatus hereinafter described as used in the operations of such engines; but that portion of my invention forms the subject-matter of a separate application, Serial No. 298,632, filed February 4,1889, and therefore is not claimed herein.
  • A is a steam-boiler'of any desired construction, in which steam is generated for the purpose of heating the aqua-ammonia, and from which steam is supplied for heating the aqua-ammonia on its return to the generator B.
  • the generator B may be similar in construction to a tubular boiler, and is placed above the steam-boiler A, the tubes Z) Z) in the generator being connected with the steamspace of the boiler A by pipes C and 0 so that steam entering the tubes 1) T) from the pipe 0 traverses the tubes and is returned with the water of condensation through pipe C to the boiler at a point below the waterline, as shown in dotted lines.
  • the valves V 4 situate between the points where the pipes D and G enter the generator.
  • D is the vaporpipe which conducts the gas generated in the generator 13 (liberated from the aqua-ammonia by the steam traversing the tubes 1) b) to the ammonia-engine E, the piston of which is driven by the expansive force of the ammonia-gas.
  • the vapor from engine E after doing its work is exhausted through the pipe F into the absorber S.
  • the exhaust-gas is absorbed in the pipe F and absorber S by means of absorbing-liquid from the generator v injected or sprayed into the pipe F by a sprayjet J.
  • This liquid as it leaves the generator B, is a weak aqueous solution of ammonia, the ammonia being constantly liberated from the water by the steam-heat of the generator, the gas passing off to the engine, while the water remains behind.
  • This cooled weak solution passes into the exhaust-pipe F, where it is sprayed into and over the exhaust-gas, passing with it into the absorber S, which is cooled by cold water or otherwise, and whereby the gas is absorbed by the weak solution, forming a strong solution, which, passing out of the absorber, is drained by gravity into the bottom of the secondary absorber S, and from there is forced by avacuum-pump P of ordinary construction, adapted to draw the solution and any free gas carried therewith from the absorber S and force it into a well W.
  • the well V is a close vessel for the purpose of holding the liquid forced therein under prcssnre, so that any free gas which may have escaped absorption may now be forced by the pressure in the well to enter into solution with the liquid therein, whence the strong solution is forced back into the generator to keep up the supply for continuous operation.
  • the exhaust from the engine II connects with the pipes I and I, which, with the pipe G, form a line of pipe from the generator B to the exhaust-pipe F of the main engine E.
  • the weak solution from the generator is somewhat cooled. It thence passes through pipe I, a part of which forms a worm inclosed in a cooling-box L, where it is surrounded by cold water, which is constantly running in and out of the cooling-box.
  • the weak solution is thus cooled, and passes in that condition, by the pipe I, into the exhaust-pipe F of the main engine, where it is discharged through a jet J in a downward direction into and among the exhaust ammonia-vapor from the main engine.
  • the pump I is used to force cold water into the absorbers S and S.
  • M is the watercylinder of such pump,havinga suction-pipe a and discharge-pipe (L).
  • the by-pass pipe I with a valve, may be used to connect the pipes Gand I, so as to permit more or less of the weak solution from the generator to pass through the cooling-box L and into the exhaust-pipe F without passing through the water-pump II.
  • a similar arrangement may be made for the operation of the pumps P and P? or other water-motors connected with the apparatus, the exhaust-liquid from the engine being in such cases returned to the pipe I or directly into the absorber S.
  • Another feature of my improvement consists in first cooling the weak solution of ammonia to impart to it the requisite capacitV of absorbing the exhaust ammonia-gas from the engine, then after the absorption is complete and the ammonia solution becomes more nearly saturated, forcing it intoa close vessel heated internally by live steam from the boiler, and then passing it in a heated condition back into the generator.
  • the advantages of this operation are obvious.
  • ammonia solution having been cooled as much as possible, in order to promote absorption in the absorber S, would, it passed in this condition into the generator 13, tend to chill the contents and seriously interfere with the generation of gas; but by heating the strong ammonia solution just before returning it into the generator it is in a condition to generate gas as soon as it enters a vessel such as the generator, having a vapor-space to receive it.
  • a vessel such as the generator, having a vapor-space to receive it.
  • a close reservoir T which communicates with the liquid space of the well by a pipe R, in the line of which is placed a small force-pump P to force the aqua'ammonia from the well IV to the reservoir T.
  • This pump may be operated, as before described, in relation to pump I, or otherwise.
  • a pipe U leads to and communicates with the liquid-space of the generator B.
  • a steam-coil X Inside of the reservoir T is a steam-coil X the upper end of which is connected, by a pipe X (furnished with a valve V With the steam-space of the water-boiler A, and-the lower part of the coil X is connected by a pipe X (also furnished with a valve V with the water-space of the boiler.
  • live steam from the boiler A in such quantity as may be desired anddeterminetl by the valves passes downward through the coil X and returns with the water of condensation to the boiler. It is obvious that the strong aqua-ammonia forced into the reservoir T from the well 7, by the pump P will thus be considerably heated before it enters the liquid-space of the generator.
  • Another feature of my improvement in the operation of ammonia engines consists in bringing together the yet nncombined ex haust-am monia gas and weak ammonia-absorbing solution in a vessel around the exterior of a series of pipes traversed by a cool ing-liquid, the passage of the and absorbingliquid through the vessel and around the pipes being retarded by m echanieal means, so as to increase the efficiency of the absorber by furnishing a more extended cooling-surface without a corresponding increase of the dimensions of the absorber.
  • S is an absorber of plate-iron of any desired shape and outward conformation, preferably of oblong and substantially rectangular form, as shown in longitudinal section.
  • the absorber has a double head at each end, form ed by caps Q and Q bolted onto the main body of the absorber. It is furnished throughout with a series of longitudinal tubes 11 n n n a which at each end open into the water-ways formed by the double heads.
  • partitions m and m correspond in location and height with perforated diaphragms or division-plates q and 9 each of which extends entirely across the interior of the absorber, and cxtendslengthwise from one end nearly to the other, the top diaphragm q being attached to the tube-head at the left end where partition 07% is located, and diaphragm g to the tube-head on the right end where partition m is located.
  • the interior of the absorber is divided into three communicating-ch ambers, and spaces f and f are left at the ends of the diaphragms for the free passage of any liquid or gas which has not found its way from one chamber of the absorber to the other through the perforations of the diaphragm.
  • the exhaust-pipe F of the engine communicates with the absorber S entering the upper chamber of that portion traversed by the tubes n, n.
  • the weak solution from the generator B after operating the pump-engine or motor II and having been cooled in the cooling-box L, enters the exhaust-pipe F by the spray-jet J, and, together with the exhaust-gas from the main engine, (which has been to some extent absorbed by the solution) is carried downward into the absorber partly by the pressure of the gas in the generator and partly by action of the vacuumpump P before mentioned, which communicates with the secondary absorber S.
  • the liquid entering at the jet J takes up a part of the vapor in the exhaust-pipe by absorption and carries the unabsorbed gas by adhesion through the pipe B into the upper chamber of the absorber.
  • the gas and liquid pass around the tubes at n, which are cooled, as hereinafter described, the gas being more and more absorbed by the liquid as they become more intimately mixed and the liquid becomes cooler.
  • the pump P Withdraws the solution from absorber S and forces it, as before described, into the well NV.
  • the absorber is cooled by means of water or other refrigerating-liquid passed through the tubes W61. 01 n n n as follows:
  • the cooling-liquid is pumped by the water-cylinder M of pump P through pipe a through the chambers and tubes of the absorber S, from where it passes through pipe a" lnto water-way 1 in the head of the absorber S, whence it passes through tubes n n to water-way 2 on the other side, and through the tubes n n to the water-way 3 on the righthand.
  • the method herein described 0t operatingan ammonia (or similar vapor) engine, consisting in subjecting aqua-ammonia or similar solution to heatin a generator to separate the gas therefrom, passing the gas thus generated to a vapor-engine to operate the same, and passing some of the Weak solution reinainin g in the generator (which is preferably partially cooled on its passage) to the exhaustpipe of the engine, causing the mingled gas and Weak solution to traverse the exterior surfaces of a series of pipes or tubes cooled by the passage through them of cold Water or other refrigerating-liquid, such pipes being arranged in a series of communicating chainbers, partially separated by diaphragms, to effect a more perfect cooling of the absorbing liquid and a more complete absorption of the gas, and introducing it into a second absorber below the liquid-line prior to returning the strong solution thus obtained to the generator to maintain the supply of aqua-ammonia, substantially as described.

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  • Engineering & Computer Science (AREA)
  • Chemical & Material Sciences (AREA)
  • Combustion & Propulsion (AREA)
  • Mechanical Engineering (AREA)
  • General Engineering & Computer Science (AREA)
  • Sorption Type Refrigeration Machines (AREA)
  • Treating Waste Gases (AREA)

Description

(No Model.)
J. H. GAMPBELL. METHOD 'OF OPERATING VAPOR OR AMMONIA ENGINES.
No. 427,399. Patented May 6, 1890.
nmumii UNITED STATES ATENT OFFICE.
JOSEPH H. CAMPBELL, OF NEW YORK, N. Y.
METHOD OF OPERATING VAPOR OR AMMONIA ENGINES.
SPECIFICATION forming part of Letters Patent No. 427,399, dated May 6, 1890,
Application filed February 4, 1889. Renewed December 16, 1889. Serial No, 333,843. (No model.)
Improvements in Method of Operating Vapor and Ammonia Engines; and I do hereby declare the following to be a full, clear, and exact description of said invention, reference bcin g had to the accompanying drawings, and to the letters or figures of reference marked thereon, which form a part of this specification.
My improvement relates to the operation of that class of vapor-engines in which the elastic medium employed is a gas held in solution by physical absorption in a liquid from which the gas is liberated when the. solution is heated, and by which it is readily reabsorbed when the liquid is cooled.
The liquid which I employ is aqua-ammonia or ammonia-gas held in aqueous solution, and in the specification and claims I denominate the class of engines to which my invention applies as ammoniaengines.
My invention also relates to the apparatus hereinafter described as used in the operations of such engines; but that portion of my invention forms the subject-matter of a separate application, Serial No. 298,632, filed February 4,1889, and therefore is not claimed herein.
The accompanying drawing represents a vertical side elevation of my apparatus, partly in section.
A general description of the principal parts of the apparatus and its operation is as follows: A is a steam-boiler'of any desired construction, in which steam is generated for the purpose of heating the aqua-ammonia, and from which steam is supplied for heating the aqua-ammonia on its return to the generator B. The generator B may be similar in construction to a tubular boiler, and is placed above the steam-boiler A, the tubes Z) Z) in the generator being connected with the steamspace of the boiler A by pipes C and 0 so that steam entering the tubes 1) T) from the pipe 0 traverses the tubes and is returned with the water of condensation through pipe C to the boiler at a point below the waterline, as shown in dotted lines.
and V regulate the supply and return of The valves V 4 situate between the points where the pipes D and G enter the generator. D is the vaporpipe which conducts the gas generated in the generator 13 (liberated from the aqua-ammonia by the steam traversing the tubes 1) b) to the ammonia-engine E, the piston of which is driven by the expansive force of the ammonia-gas. The vapor from engine E after doing its work is exhausted through the pipe F into the absorber S. The exhaust-gas is absorbed in the pipe F and absorber S by means of absorbing-liquid from the generator v injected or sprayed into the pipe F by a sprayjet J.
It is one of the important features of my engines, described and claimed in a former patent, No. 337,371, that, to avoid the introduction into the circulation of my apparatus of additional water fronrwithout. the liquid used to absorb the exhaust is weak aqua-ammonia drawn from the generator B and cooled, in order to restore its power of absorbing ammonia before bringing it into contact with the exhaust-gas. For this purpose a pipe G from below the water-level of the generator B is led through a cooling-box L, whence it enters the exhaust-pipe F at J. This liquid, as it leaves the generator B, is a weak aqueous solution of ammonia, the ammonia being constantly liberated from the water by the steam-heat of the generator, the gas passing off to the engine, while the water remains behind. This cooled weak solution passes into the exhaust-pipe F, where it is sprayed into and over the exhaust-gas, passing with it into the absorber S, which is cooled by cold water or otherwise, and whereby the gas is absorbed by the weak solution, forming a strong solution, which, passing out of the absorber, is drained by gravity into the bottom of the secondary absorber S, and from there is forced by avacuum-pump P of ordinary construction, adapted to draw the solution and any free gas carried therewith from the absorber S and force it into a well W. The well V is a close vessel for the purpose of holding the liquid forced therein under prcssnre, so that any free gas which may have escaped absorption may now be forced by the pressure in the well to enter into solution with the liquid therein, whence the strong solution is forced back into the generator to keep up the supply for continuous operation.
I will now proceed to describe those parts of the apparatus which have special reference to the improvements claimed herein as my invention. There are certain parts of the apparatus which require the use of power for their operation-such, for instance, as the pumps P, P and P which in such apparatus it is usual to operate by means of the power of the main engine or, at any rate, by means of the expansive force of the gas drawn from the generator. In my engine, however, the power employed to drive the main engine is that of the gas liberated from the aqua-ammonia by the heat of the steam circulating in tubes from the Steam-boiler, and I propose to drive the pumps P P I? referred to, or either of them, and any other parts of the machinery, by means of the liquid contained in the generator under generator-pressurethat is to say, under the pressure exerted on the surface of the weak solution by the gas generated therefrom and contained in the vapor-space of the generator. To accomplish this I attach the piston of the water-cylinder M, of the force-pump P, to the piston-rod of a small engine II of ordinary construction, so that the same pistonrod K, operated by the engine II, operates the piston of the pump I I connect the slidevalve of the engine II, by a pipeG, with the generator B at a point below the waterlevel, and the pressure of the liquid or weak solution from the generator operates the engine. The exhaust from the engine II connects with the pipes I and I, which, with the pipe G, form a line of pipe from the generator B to the exhaust-pipe F of the main engine E. By passing through and operating the auxiliary water-engine II, the weak solution from the generator is somewhat cooled. It thence passes through pipe I, a part of which forms a worm inclosed in a cooling-box L, where it is surrounded by cold water, which is constantly running in and out of the cooling-box. The weak solution is thus cooled, and passes in that condition, by the pipe I, into the exhaust-pipe F of the main engine, where it is discharged through a jet J in a downward direction into and among the exhaust ammonia-vapor from the main engine. It is im portant to have the weak solution when it enters the exhaust-pipe 1 as cool as possible, because the power of water to absorb ammonia-gas diminishes very rapidly as the heat of the water increases, and vice versa.
The pump I is used to force cold water into the absorbers S and S. M is the watercylinder of such pump,havinga suction-pipe a and discharge-pipe (L The by-pass pipe I, with a valve, may be used to connect the pipes Gand I, so as to permit more or less of the weak solution from the generator to pass through the cooling-box L and into the exhaust-pipe F without passing through the water-pump II. A similar arrangement may be made for the operation of the pumps P and P? or other water-motors connected with the apparatus, the exhaust-liquid from the engine being in such cases returned to the pipe I or directly into the absorber S.
Another feature of my improvement consists in first cooling the weak solution of ammonia to impart to it the requisite capacitV of absorbing the exhaust ammonia-gas from the engine, then after the absorption is complete and the ammonia solution becomes more nearly saturated, forcing it intoa close vessel heated internally by live steam from the boiler, and then passing it in a heated condition back into the generator. The advantages of this operation are obvious. The ammonia solution having been cooled as much as possible, in order to promote absorption in the absorber S, would, it passed in this condition into the generator 13, tend to chill the contents and seriously interfere with the generation of gas; but by heating the strong ammonia solution just before returning it into the generator it is in a condition to generate gas as soon as it enters a vessel such as the generator, having a vapor-space to receive it. As the heat of the steam in the boiler and not its pressure is used in my apparatus, I am enabled by this method of utilizing the steam to effect a considerable increase of economy and efficiency. In accomplishing this object I interpose between the well \V on one sideand the boiler A and generator B on the other side, a close reservoir T, which communicates with the liquid space of the well by a pipe R, in the line of which is placed a small force-pump P to force the aqua'ammonia from the well IV to the reservoir T. This pump may be operated, as before described, in relation to pump I, or otherwise. Fromthe upper part of the reservoir T a pipe U leads to and communicates with the liquid-space of the generator B. Inside of the reservoir T is a steam-coil X the upper end of which is connected, bya pipe X (furnished with a valve V With the steam-space of the water-boiler A, and-the lower part of the coil X is connected by a pipe X (also furnished with a valve V with the water-space of the boiler. By this means live steam from the boiler A in such quantity as may be desired anddeterminetl by the valves passes downward through the coil X and returns with the water of condensation to the boiler. It is obvious that the strong aqua-ammonia forced into the reservoir T from the well 7, by the pump P will thus be considerably heated before it enters the liquid-space of the generator.
Another feature of my improvement in the operation of ammonia engines consists in bringing together the yet nncombined ex haust-am monia gas and weak ammonia-absorbing solution in a vessel around the exterior of a series of pipes traversed by a cool ing-liquid, the passage of the and absorbingliquid through the vessel and around the pipes being retarded by m echanieal means, so as to increase the efficiency of the absorber by furnishing a more extended cooling-surface without a corresponding increase of the dimensions of the absorber.
I use absorbers of peculiar construction, which I will proceed to describe.
. S is an absorber of plate-iron of any desired shape and outward conformation, preferably of oblong and substantially rectangular form, as shown in longitudinal section. The absorber has a double head at each end, form ed by caps Q and Q bolted onto the main body of the absorber. It is furnished throughout with a series of longitudinal tubes 11 n n n n a which at each end open into the water-ways formed by the double heads. The space at each-end of the absorber formed by the caps Q and Q is divided into two waterways, marked 2, 3, and 4, by partitions m and m These partitions m and m correspond in location and height with perforated diaphragms or division-plates q and 9 each of which extends entirely across the interior of the absorber, and cxtendslengthwise from one end nearly to the other, the top diaphragm q being attached to the tube-head at the left end where partition 07% is located, and diaphragm g to the tube-head on the right end where partition m is located. By this arrangement the interior of the absorber is divided into three communicating-ch ambers, and spaces f and f are left at the ends of the diaphragms for the free passage of any liquid or gas which has not found its way from one chamber of the absorber to the other through the perforations of the diaphragm.
As before stated, the exhaust-pipe F of the engine communicates with the absorber S entering the upper chamber of that portion traversed by the tubes n, n. The weak solution from the generator B, after operating the pump-engine or motor II and having been cooled in the cooling-box L, enters the exhaust-pipe F by the spray-jet J, and, together with the exhaust-gas from the main engine, (which has been to some extent absorbed by the solution) is carried downward into the absorber partly by the pressure of the gas in the generator and partly by action of the vacuumpump P before mentioned, which communicates with the secondary absorber S. The liquid entering at the jet J takes up a part of the vapor in the exhaust-pipe by absorption and carries the unabsorbed gas by adhesion through the pipe B into the upper chamber of the absorber. Here the gas and liquid pass around the tubes at n, which are cooled, as hereinafter described, the gas being more and more absorbed by the liquid as they become more intimately mixed and the liquid becomes cooler. A portion of the liquid and gas passes through the perforations in the diaphragm q and the remainder passes through the space at the end of the diaphragm into the next d1- vision, and so on down to the lowest dlVlSlOll of the absorber, and thence theliqu1d,hav1n g become cooled and having absorbed nearly it not quite all of the gas, and having thus been restored to the condition of a strong solution of ammonia, is drained by gravity through pipe 0 into absorber S, constructed similar to absorber S, entering the same at the bottom or below its liquid-line, and, after passing around the tubes. leaves it at the top, thus maintaining within it a body of solution for the purpose of entrapping and absorbing such free gas as may have been carried along by adhesion. The pump P Withdraws the solution from absorber S and forces it, as before described, into the well NV.
The absorber is cooled by means of water or other refrigerating-liquid passed through the tubes W61. 01 n n n as follows: The cooling-liquid is pumped by the water-cylinder M of pump P through pipe a through the chambers and tubes of the absorber S, from where it passes through pipe a" lnto water-way 1 in the head of the absorber S, whence it passes through tubes n n to water-way 2 on the other side, and through the tubes n n to the water-way 3 on the righthand. side, and thence through tubes n a into water-way 4 on the left-hand side, and thence out through the pipe (L The advan tages of this method of operation over that heretofore employed of passing the gas and absorbing-liquid through the pipes of the absorber are that it gives a larger relative space for the gasand that less obstruction 1s ,0ffered to the gas before it reaches the coolingsurfaces, and it increases the cooling-space of the absorber without increasing its size, 111- asmuch as the cooling-surface presentedto the absorbing-liquid is greater when the liquid to be cooled surrounds the pipes than when the cooling medium is outside and the liquid to be cooled passes through the pipes.
What I claim as new, and desire to secure by Letters Patent, is
1. The method hereinbefore described of working ammonia-engine apparatus, consistiug of operating the main engine with gas extracted by heat from the ammonia solution in a generator, and operating the auxiliary engine or engines from the same generator'by means of the weak ammonia solution from which the gas has been partially extracted under the gas-pressure of the generator, substantially as described.
2. The method of operating a main vapor IIO same, and the remaining weak solution from the liquid-space of the same generator to 0perate the Water-engine, using the exhaust- Water or Weak solution from the Water-engine to absorb the exhaust-gas from the gas-engine, and returning the solution With the gas absorbed thereby as aqua-ammonia to the generator, substantially as described.
3. The method hereinbefore described of operating an ammonia (or similar vapor) engine, consisting in subjecting aqua-ammonia or similar solution to heat in a generator, passing the gas thus evolved or separated from the solution to a vapor-engine to operate the same, commingling the exhaust-vapor from the engine with weak solution drawn from the generator, cooling such solution to increase its capacity for gas-absorption, effecting; the absorption of the exhaust-gas by the Weak solution in a refrigerated absorbing-vessel, then heating the strong solution thus obtained by means of live steam from the steam-boiler, and returning the same in a heated condition to the generator to keep up the supply of aqua-ammonia, substantially as described.
4:. The method herein described of operatin an ammonia (or similar vapor) engine, consisting in subjecting aqua-ammonia or similar solution to heat in a generator to separate the gas therefrom, passing the gas thus generated to avapor-engine to operate the same, and passing some of the Weak solution remaining in the generator (which is preferably partially cooled on its passage) to the exhaustpipe of the engine, causing the mingled. gas and Weak solution to traverse the exterior surfaces of a series of pipes or tubes cooled by the passage through them of cold Water or other refrigerating-liquid, such pipes being arranged in a series of communicating chainbers, partially separated by diaphragms, to effect a more perfect cooling of the absorbingliquid and a more complete absorption of the gas, and returning the strong solution thus obtained to the generator to maintain the supply of aqua-ammonia, substantially as described.
5. The method herein described 0t operatingan ammonia (or similar vapor) engine, consisting in subjecting aqua-ammonia or similar solution to heatin a generator to separate the gas therefrom, passing the gas thus generated to a vapor-engine to operate the same, and passing some of the Weak solution reinainin g in the generator (which is preferably partially cooled on its passage) to the exhaustpipe of the engine, causing the mingled gas and Weak solution to traverse the exterior surfaces of a series of pipes or tubes cooled by the passage through them of cold Water or other refrigerating-liquid, such pipes being arranged in a series of communicating chainbers, partially separated by diaphragms, to effect a more perfect cooling of the absorbing liquid and a more complete absorption of the gas, and introducing it into a second absorber below the liquid-line prior to returning the strong solution thus obtained to the generator to maintain the supply of aqua-ammonia, substantially as described.
In testimony whereof I affix my signature in the presence of two subscribing Witnesses.
JOSEPH H. CAMPBELL.
\Vitnesses:
.G. L. IIORACK,
JAMEs M oLAIN.
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Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2474235A (en) * 1945-12-14 1949-06-28 Oscar C Dresser Pneumatic impact device
US2751748A (en) * 1951-09-03 1956-06-26 Bachl Herbert Thermodynamic plural-substance processes and plants for converting heat into mechanical energy
US3095698A (en) * 1957-09-18 1963-07-02 American Potash & Chem Corp Heat transfer medium
US3774392A (en) * 1972-01-06 1973-11-27 J Davies Installation including a prime mover and means for extracting energy from a hot fluid medium and using it to drive the prime mover
US4292808A (en) * 1979-04-02 1981-10-06 Lohmiller Edward W Energy converter

Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2474235A (en) * 1945-12-14 1949-06-28 Oscar C Dresser Pneumatic impact device
US2751748A (en) * 1951-09-03 1956-06-26 Bachl Herbert Thermodynamic plural-substance processes and plants for converting heat into mechanical energy
US3095698A (en) * 1957-09-18 1963-07-02 American Potash & Chem Corp Heat transfer medium
US3774392A (en) * 1972-01-06 1973-11-27 J Davies Installation including a prime mover and means for extracting energy from a hot fluid medium and using it to drive the prime mover
US4292808A (en) * 1979-04-02 1981-10-06 Lohmiller Edward W Energy converter

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