US1061396A - Explosive-engine. - Google Patents
Explosive-engine. Download PDFInfo
- Publication number
- US1061396A US1061396A US64901011A US1911649010A US1061396A US 1061396 A US1061396 A US 1061396A US 64901011 A US64901011 A US 64901011A US 1911649010 A US1911649010 A US 1911649010A US 1061396 A US1061396 A US 1061396A
- Authority
- US
- United States
- Prior art keywords
- explosive
- cylinder
- piston
- chamber
- enlarged
- 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
Links
- 239000002360 explosive Substances 0.000 description 81
- 230000006835 compression Effects 0.000 description 13
- 238000007906 compression Methods 0.000 description 13
- 238000012856 packing Methods 0.000 description 3
- 238000005192 partition Methods 0.000 description 3
- XLYOFNOQVPJJNP-UHFFFAOYSA-N water Substances O XLYOFNOQVPJJNP-UHFFFAOYSA-N 0.000 description 3
- 102100026933 Myelin-associated neurite-outgrowth inhibitor Human genes 0.000 description 2
- 238000010276 construction Methods 0.000 description 2
- 239000007789 gas Substances 0.000 description 2
- 239000000203 mixture Substances 0.000 description 2
- OKTJSMMVPCPJKN-UHFFFAOYSA-N Carbon Chemical compound [C] OKTJSMMVPCPJKN-UHFFFAOYSA-N 0.000 description 1
- 229910052799 carbon Inorganic materials 0.000 description 1
- 238000004880 explosion Methods 0.000 description 1
- 229920000136 polysorbate Polymers 0.000 description 1
- 238000007789 sealing Methods 0.000 description 1
Images
Classifications
-
- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F02—COMBUSTION ENGINES; HOT-GAS OR COMBUSTION-PRODUCT ENGINE PLANTS
- F02B—INTERNAL-COMBUSTION PISTON ENGINES; COMBUSTION ENGINES IN GENERAL
- F02B75/00—Other engines
- F02B75/02—Engines characterised by their cycles, e.g. six-stroke
-
- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F02—COMBUSTION ENGINES; HOT-GAS OR COMBUSTION-PRODUCT ENGINE PLANTS
- F02B—INTERNAL-COMBUSTION PISTON ENGINES; COMBUSTION ENGINES IN GENERAL
- F02B75/00—Other engines
- F02B75/02—Engines characterised by their cycles, e.g. six-stroke
- F02B2075/022—Engines characterised by their cycles, e.g. six-stroke having less than six strokes per cycle
- F02B2075/025—Engines characterised by their cycles, e.g. six-stroke having less than six strokes per cycle two
Definitions
- This invention relates to improvements in explosive engines, this particular engine being a double acting two-cycle engine, the cylinder of which is divided centrally by a partition upon opposite sides of which are oppositely disposed explosive chambers and in which are adapted to reciprocate two connected piston heads, one of said piston heads exploding and exhausting while the other piston head is charging and compressing, each cylinder of the particular engine being a unit 7m)- .90.
- the main object of the present invention is the provision of an explosive engine each cylinder of which is a separate power unit and is provided with two superposed piston receiving and explosive cylinders having oppositely disposed open ends for the reciprocatory reception of their respective piston heads, one of said heads being directly connected by means of a piston rod to the crank shaft of the engine, while the other head is connected through passages exterior of the cylinder explosive chambers to the other piston head, whereby the re ciprocation of one will corresporulingly reciprocate the other, said heads being reciprocated in the same direction, but acting oppositely with relation to exploding and exhausting.
- a further object of this invention is the provision of an explosive engine, each cylinder of which is a power unit, 7262' se, and is provided with two superposed explosive cylinders and piston heads, said piston heads being connected for movement in unity but acting oppositely with relation to exploding and exhausting, the upper pis ton head being provided with an enlarged piston rcciprocatingly mounted in a superimposed chamber above the exploding cylinders to control the intake of the explosive mixture in the lower cylinder, while the lower cylinder is provided with an enlarged piston mounted in an enlarged chamber at the lower end of the cylinder to draw in the explosive charge for the upper cylinder, the pipe leading from the carbureter and Specification of Letters Patent.
- the explosive charge manifold being provided with check valves or any means which will prevent the back flow ot' the explosive charge but permit its being forced from its mixing chamber through by-passes disposed exterior of the explosive cylinder to its proper cylinder.
- A. still further object of: the present invention is the provision of a double acting two-cyclc explosive engine, in which the conn'n'ession takes place within opposite ends of the cylinder and not in the crank case, the explosive cylinders being interposed between the compression chambers and said compression chambers being oppositely disposed with relation to the cylinder to which the explosive charge is admitted.
- l igure 1 is a view partly in side elevation and partly in section of an engine constructed in accordance with the present invention, two of said cylinders being shown in vertical section, the piston heads of one of said cylinders being shown in section to show the details of construction.
- Fig. 2 is an enlarged detail sectional view taken on line f22 of Fig. 1, showing a portion of the intake mani'tolds and the exhaust mani'lolds in elevation.
- Fig. 3 is a cross section taken on line 3-3 of Fig. 2.
- Fig. 4 is a cross section taken on line att of Fig. 2.
- the numeral 1 designates the crank case and base of the engine, which as shown in Figs. and 2 is composed of tour casing cylinders, and disposed within said crank case is the usual crank shaft 2, being connected at one end to the gears in the case
- the said crank case is divided into separate compartments 9, one to each casing cylinder of the engine, each cylinder of the engine being a separate unit and if desired may be cut out to use one, two, three or toiir or each alternate one or in pairs as desired, the flange 10 pro viding a means for the attachment of the vertically disposed casing cylinder 11 thereto.
- the said cylinder 11 is provided with the peculiarly shaped centrally disposed water jacket 12, and mounted centrally within the cylinder or outer casing is the main explosive cylinder 18, which as shown is centrally divided by means of the two partitions 14, the space 15 therebetween being a water jacket space and being in communication with the vertically disposed water jacket 12.
- the said cylinder is divided into the two oppositely disposed or superposed explosive chambers 16 and 17 respectively, each of said cylinders being provided with the intake ports 18 and 19, respectively, and with the exhaust ports 20 and 21, respectively, said ports being provided at the opposite ends of the respective explosive chambers.
- the piston head 28 has formed at its lower end the enlarged piston 25, having the packing rings 6 which permit the said piston head or auxiliary compression device to fitgas tight within the compression chamber and carbureted air supplying chamber 26 in the lower end of the main casing, a piston rod 27 connecting the lower piston head 28 with the crank shaft 2 as clearly illustrated in Fig. 2.
- a carbureter 88 is employed and has connected through its manifold 84, the upwardly extending branches 85 and the downwardly extending branches 86 of the intakes of the various cylinders of the mo' tor.
- the explosive charge will be instantly propelled into the chamber17, the port 19 then being open, so that upon the up-stroke of the piston 28, due to the explosive charge admitted and exploded in the chamber 16, on the upward movement of the piston 22, the said charge within the cylinder and chamber 17 will be compressed and finally exploded at the highest point of compression.
- the port 21 of the lower cylinder 17 leads into the exhaust chamber 12 through the branch conduit 13 to the main exhaust manifold 414, while the exhaust port 20 of the upper cylinder 16 leads into the exhaust chamber 15 through the branch conduit 16 to the manifold 44.
- the explosive charge is exhausted at the extreme end of the stroke of either piston, and by reason of the fact that the exhaust ports are substantially twice the area of the intake ports, and that the battle plates 24: are so disposed as to prevent the explosive charge entering the intake ports, said cxhaustec gases are thus emitted at that instant through the exhaust port.
- the cylinders and istons are rendered self-scavenging, thus (eeping the surfaces of the cylinders and pistons clean, and preventing the collection of carbon within the cylinders.
- the pistons 22 and 23 are provided with the usual packing rings a thereby making the proper joint between the walls of the cylinders and the respective piston heads.
- the spark plugs are mounted within the threaded apertures 17 and 48, respectively, disposed in line with the explosive ends of the respective chambers 16 and 17.
- the sealing caps 32 clearly shown are provided with a continuous compartment 52 which forms the means of communication with the upper ends of the casings and by means of the valves 53, the compression of the air or gases in the upper end of the respective chamber 31 may be relieved, the said valves 53 being relief valves either to be operated automatically by the pressure in the caps 32 or to be operated manually if desired.
- the cushioning of the air within the upper end of the cylinder 31 and in the chamber 52 of the casing or cap 32 and the communication between the upper ends of the various cylinders form a sort of compensating means, and under ordinary conditions will not affect the reciprocation of the pistons in their respective cylinders and as before stated should the compression be too great the same will be relieved by the relief valve 53.
- the ratio of the areas of the chambers 26 and 31 to their respective explosive chambers 17 and 16, is approximately three to two, that is the area of the chamber 26 or 31 is one and one-half times that of the area of the explosive chamber 17 or 16, thus providing a highly compressed charge when dolivered through the respective by-pass 11 or 12 through the intake ports 19 or 18, and finally to the explosive chamber 17 or 16.
- an explosive engine having a main cylinder, a eoiwentrically disposed reduced cylinder providing enlarged chambers beyond its respective ends within the main cylinder, said main cylinder having a carbureted air supply port at the junction of each enlarged chamber with its reduced cylinder, said reduced cylinder having a central diaphragm dividing said cylinder into oppositely disposed explosive chambers, each of said chambers being provided with intake and exhaust ports near one end and in substantially the same circumferential line, said reduced cylinder providing two parallel channels between its outer shell and the wall of the main cylinder, one of said channels forming communication between the lower enlarged chamber and the intake of the upper explosive chamber while the other channel forms communication between the upper enlarged chamber and the intake port of the lower explosive chamber, two superposed and connected explosive and explosive charge supplying pistons mounted in the respective ends of the main cylinder and reduced cylinder, a branched carbureted air supply manifold leading to each carbureted air supplying port, and a valve in each branch thereof to permit carbureted air to enter its enlarged
- An explosive engine having a main cylinder, a concentrically disposed reduced cylinder providing enlarged chambersbeyond its respective ends within the main cylinder, each enlarged chamber having a carbureted air intake port near its junction with the reduced cylinder, said reduced cylinder having a central diaph 'agm dividing said cylinder into oppositely disposed explosive chambers, each of said chambers being provided with intake and exhaust ports near one end and in substantially the same cireumferenlial line, said reduced cylinder pro viding two parallel channels between its outer shell and the wall of the main cylinder, one of said channels forming communication between the lower enlargedchamber and the intake of the upper explosive chamber while the other channel forms communication betwecn the upper enlarged chamber and the intake port of the lower explosive chamber, two superposed and connected explosive and explosive charge supplying pistons mounted in the respective ends of the main cylinder and reduced cylinder, a two branchedcarbureted air supply conduit in communication with the ends of the respective enlarged chambers adjacent the junction thereof with the
- An explosive engine having a main 3 ports of their respective exploslve chambers
- each enlarged chamber having a carbureted air intake port near its junction with the reduced cylinder
- said reduced cylinder having a central diaphragm dividing said cylinder into oppositely disposed explosive chambers, each of said chambers being provided with intake and exhaust ports near one end and in substantially the same circumferential line, said reduced cylinder providing two parallel channels be tween its outer shell and the wall of the main cylinder, one of said channels forming communication between the lower enlarged chamber and the intake of the upper explosive chamber, while the other channel forms communication between the upper enlarged chamber and the intake port of the lower explosive chamber, an explosive piston and a carbureted air supplying piston mounted in each explosive chamber of the reduced cylinder and the enlarged portion of the main cylinder, rods connected to the two enlarged pistons for connecting all of the pistons for movement in unison, a two branched carbureted air supplying manifold, each branch of which leads to its respective intake port
- An explosive engine having a main cylinder, a concentrically disposed reduced cylinder providing enlarged chambers beyond its respective ends within the main cylinder, each enlarged chamber having an intake port, said reduced cylinder having a central diaphragm dividing said cylinders into oppositely disposed explosive chambers, each of said chambers being provided with intake and exhaust ports near one end and in substantially the same circumferential line, said reduced cylinder providing two parallel channels between its outer shell and the wallsof the main cylinder, one of said channels forming communication between the lower enlarged chamber and the intake of the upper explosive chamber, while the other channel forms communication between the upper enlarged chamber and the intake port of the lower explosive chamber, two superposed and connected explosive and explosive charge supplying pistons mounted in the respectlve ends of the main cylinder V and reduced cylinder, the said explosive pis tons controlling both the intake and exhaust and a valve to each intake port of the enlarged chambers opened upon the outstroke of its explosive charge supplying piston, and
- An explosive engine having a main cylinder, a concentrically disposed reduced cylinder providing enlarged chambers beyond its respective ends within the main cylinder, each enlarged chamber having an intake port, said reduced cylinder having a central diaphragm, dividing said cylinders 3 into oppositely disposed explosive chambers,
- each of said chambers being provided with I intake and exhaust ports near one end and in substantially the same circumferential line
- said reduced cylinder providing two parallel channels between its outer shell and the wall of the main cylinder, one of said channels forming communication between the lower enlarged chamber and the intake of the upper explosive chamber, while theother channel forms communication between the upper enlarged chamber and the intake port of the lower explosive chamber, two superposed and connected explosive and explosive charge supplying pistons mounted in p the respective ends of the main cylinder, the
- said explosive pistons controlling both the intake and exhaust ports of their respective explosive chambers, a two branched carbureted air supply conduit having each branch in communication with its respective intake port of the enlarged chambers of the main cylinder, a valve in each branch, and an exhaust conduit leading from' the respective exhaust ports of the explosive chambers.
Landscapes
- Engineering & Computer Science (AREA)
- Chemical & Material Sciences (AREA)
- Combustion & Propulsion (AREA)
- Mechanical Engineering (AREA)
- General Engineering & Computer Science (AREA)
- Cylinder Crankcases Of Internal Combustion Engines (AREA)
Description
H. MOORE.
EXPLOSIVE EN GINB.
APPLICATION IILED SEPT. 13, 1911.
1,061,396. Patented May13, 1913.
2 SHEETS-SHEET 1.
Witnesses M nventor .M% m by l JWW M I Attorneys.
H. MOORE.
EXPLOSIVE ENGINE.
APPLICATION rum) SEPT. 13, 1911.
Patented May 13, 1913.
2 SHEETS-SHEET 2.
Wi nesses wmd r Attorneys.
UNITED T OFFICE.
HARRY W. MOORE, 0F NEBRASKA CITY, NEBRASKA, ASSIGNOR TO RALPH A. DUFF, or NEBRASKA CITY, NEBRASKA.
EXPLOSIVE-ENGINE.
To all whom it may concern Be it known that I, HARRY TV. Moons, a citizen of the United States, residing at Nebraska City, in the county of Otoe and State of Nebraska, have invented a new and useful Explosive-Engine, of which the tollowing is a specification.
This invention relates to improvements in explosive engines, this particular engine being a double acting two-cycle engine, the cylinder of which is divided centrally by a partition upon opposite sides of which are oppositely disposed explosive chambers and in which are adapted to reciprocate two connected piston heads, one of said piston heads exploding and exhausting while the other piston head is charging and compressing, each cylinder of the particular engine being a unit 7m)- .90.
The main object of the present invention is the provision of an explosive engine each cylinder of which is a separate power unit and is provided with two superposed piston receiving and explosive cylinders having oppositely disposed open ends for the reciprocatory reception of their respective piston heads, one of said heads being directly connected by means of a piston rod to the crank shaft of the engine, while the other head is connected through passages exterior of the cylinder explosive chambers to the other piston head, whereby the re ciprocation of one will corresporulingly reciprocate the other, said heads being reciprocated in the same direction, but acting oppositely with relation to exploding and exhausting. A
A further object of this invention is the provision of an explosive engine, each cylinder of which is a power unit, 7262' se, and is provided with two superposed explosive cylinders and piston heads, said piston heads being connected for movement in unity but acting oppositely with relation to exploding and exhausting, the upper pis ton head being provided with an enlarged piston rcciprocatingly mounted in a superimposed chamber above the exploding cylinders to control the intake of the explosive mixture in the lower cylinder, while the lower cylinder is provided with an enlarged piston mounted in an enlarged chamber at the lower end of the cylinder to draw in the explosive charge for the upper cylinder, the pipe leading from the carbureter and Specification of Letters Patent.
Application filed September 13, 1911.
atcnted May 13, 1913.
Serial No. 649,010.
the explosive charge manifold being provided with check valves or any means which will prevent the back flow ot' the explosive charge but permit its being forced from its mixing chamber through by-passes disposed exterior of the explosive cylinder to its proper cylinder.
A. still further object of: the present invention is the provision of a double acting two-cyclc explosive engine, in which the conn'n'ession takes place within opposite ends of the cylinder and not in the crank case, the explosive cylinders being interposed between the compression chambers and said compression chambers being oppositely disposed with relation to the cylinder to which the explosive charge is admitted.
\Vith the foregoing and other objects in view which will appear as the description proceeds, the invention resides in the combination and arrangement of parts and in the details of construction hereinafter described and claimed, it being understood that changes in the precise embodiment of invention herein disclosed can be made within the scope of what claimed without departing from the spirit of the invention.
In the drawings l igure 1. is a view partly in side elevation and partly in section of an engine constructed in accordance with the present invention, two of said cylinders being shown in vertical section, the piston heads of one of said cylinders being shown in section to show the details of construction. Fig. 2 is an enlarged detail sectional view taken on line f22 of Fig. 1, showing a portion of the intake mani'tolds and the exhaust mani'lolds in elevation. Fig. 3 is a cross section taken on line 3-3 of Fig. 2. Fig. 4 is a cross section taken on line att of Fig. 2.
deterring to the drawii'lgs, the numeral 1. designates the crank case and base of the engine, which as shown in Figs. and 2 is composed of tour casing cylinders, and disposed within said crank case is the usual crank shaft 2, being connected at one end to the gears in the case The said crank case is divided into separate compartments 9, one to each casing cylinder of the engine, each cylinder of the engine being a separate unit and if desired may be cut out to use one, two, three or toiir or each alternate one or in pairs as desired, the flange 10 pro viding a means for the attachment of the vertically disposed casing cylinder 11 thereto.
In describing the engine, a single cylinder will be described, which will suflice for the description of them all. The said cylinder 11 is provided with the peculiarly shaped centrally disposed water jacket 12, and mounted centrally within the cylinder or outer casing is the main explosive cylinder 18, which as shown is centrally divided by means of the two partitions 14, the space 15 therebetween being a water jacket space and being in communication with the vertically disposed water jacket 12. By this means it will be seen that the said cylinder is divided into the two oppositely disposed or superposed explosive chambers 16 and 17 respectively, each of said cylinders being provided with the intake ports 18 and 19, respectively, and with the exhaust ports 20 and 21, respectively, said ports being provided at the opposite ends of the respective explosive chambers.
Mounted Within the open ends of the explosive chambers 16 and 17 respectively, are the power piston heads 22 and 28 respectively, each one of which is provided at its sealed end with the batfle plates 24. The piston head 28 has formed at its lower end the enlarged piston 25, having the packing rings 6 which permit the said piston head or auxiliary compression device to fitgas tight within the compression chamber and carbureted air supplying chamber 26 in the lower end of the main casing, a piston rod 27 connecting the lower piston head 28 with the crank shaft 2 as clearly illustrated in Fig. 2.
Connected in diametrically opposed positions to the enlarged piston 25 are the two rods 28, which are mounted for reciprocation through the sleeves 29 formed exteriorly of the explosive cylinder of the motor, their upper ends being connected to the enlarged piston 80 provided with packing rings 0 and connected with the explosive piston 22, the said enlarged piston 80 being mounted for reciprocation within the explosive charge supplying chamber 81 disposed at the upper end of the casing of the en gine. By means of-the rods 28 it is apparent that the piston 22 and its enlarged piston 80 are connected for simultaneous movement to the lower piston 28 through the medium of the enlarged piston 25, and that by the action of the'explosive charges within the explosive chambers 16 and 17 upon opposite sides of the partition 14, that the piston 28 will be forced downwardly and at the same time pull downwardly with it the piston 22 and the enlarged piston 80, into explosive charging and compression position, the explosive charge being exploded at the highest point of compression so that the piston 28 is propelled upwardly and carries with it through the rods 28 the piston 25 into compression and exploding position. Thus the action is a continued double action and by reason of the fact that each cylinder is exploded every revolution of the crank shaft or full reciprocation of the respective piston head, a double acting two-cycle engine is provided. The upper ends of the respective casing are connected by means of the cap 82, the detail of which will be described later.
In order to supply the proper explosive charge to the cylinder or cylinders, at the proper time, a carbureter 88 is employed and has connected through its manifold 84, the upwardly extending branches 85 and the downwardly extending branches 86 of the intakes of the various cylinders of the mo' tor. These intakes are provided at their junction with the casing of the engine with the check valves 87 and 88 respectively, the branches 85 supplying the explosive mixture through the port 89 upon the upstroke of the piston 80, the action or suction of said piston 80 drawing the explosive charge through the intake conduit 85, check valve 87 and into the supplying chamber 81, the downward movement of said piston 80 causing the check valve 87 to close and consequently the explosive charge within the chamber 81 will be forced down through the vertical by-pass 41 through the intake 19 of the lower cylinder 17 this action compressing the charge within the by-pass so that the instant that the piston 28 assumes the position as shown in Fig. 8, the explosive charge will be instantly propelled into the chamber17, the port 19 then being open, so that upon the up-stroke of the piston 28, due to the explosive charge admitted and exploded in the chamber 16, on the upward movement of the piston 22, the said charge within the cylinder and chamber 17 will be compressed and finally exploded at the highest point of compression. It will thus be seen that the charge taken at the upper end of the casing is supplied to the lower cylinder 17 through the vertical by-pass 41, while the piston 25 upon its downward stroke, will draw in the explosive charge through the conduit 86, check valve 88 and port 40 into the supply chamber 26 at the lower end of the casing, the up-stroke of the piston 25 closing the check valve 88 and forcing said explosive charge upwardly through the bypass 42 into the intake port 18 of the upper explosive chamber 16, the piston 22 when at the position opposed to the position shown in Fig. 8, and beyond the port 18 permitting the sudden entrance of such compressed explosive charge, compressed within the by pass 42 to enter the port 18 and into the cylinder 16 similarly to the intake of the charge within the cylinder 17 as before describedj Thus it will be seen that the chambers at the opposite ends of the casing supply the explosive charge to the opposite cylinders, thus permitting the compression of the charge for one cylinder during the explosion and propulsion of the other piston in the other cylinder, whereby a greater compression of the explosive charge is permitted and its consequent maximum power gained therefrom.
The port 21 of the lower cylinder 17 leads into the exhaust chamber 12 through the branch conduit 13 to the main exhaust manifold 414, while the exhaust port 20 of the upper cylinder 16 leads into the exhaust chamber 15 through the branch conduit 16 to the manifold 44. By this arrangement, the explosive charge is exhausted at the extreme end of the stroke of either piston, and by reason of the fact that the exhaust ports are substantially twice the area of the intake ports, and that the battle plates 24: are so disposed as to prevent the explosive charge entering the intake ports, said cxhaustec gases are thus emitted at that instant through the exhaust port. By reason of the fact that the compression and supplying of the explosive charge is accomplished in this manner the cylinders and istons are rendered self-scavenging, thus (eeping the surfaces of the cylinders and pistons clean, and preventing the collection of carbon within the cylinders. The pistons 22 and 23 are provided with the usual packing rings a thereby making the proper joint between the walls of the cylinders and the respective piston heads.
As the present form of invention is especially designed for the use of the jump spark, the spark plugs (not shown) are mounted within the threaded apertures 17 and 48, respectively, disposed in line with the explosive ends of the respective chambers 16 and 17.
The sealing caps 32 clearly shown are provided with a continuous compartment 52 which forms the means of communication with the upper ends of the casings and by means of the valves 53, the compression of the air or gases in the upper end of the respective chamber 31 may be relieved, the said valves 53 being relief valves either to be operated automatically by the pressure in the caps 32 or to be operated manually if desired. The cushioning of the air within the upper end of the cylinder 31 and in the chamber 52 of the casing or cap 32 and the communication between the upper ends of the various cylinders form a sort of compensating means, and under ordinary conditions will not affect the reciprocation of the pistons in their respective cylinders and as before stated should the compression be too great the same will be relieved by the relief valve 53.
The ratio of the areas of the chambers 26 and 31 to their respective explosive chambers 17 and 16, is approximately three to two, that is the area of the chamber 26 or 31 is one and one-half times that of the area of the explosive chamber 17 or 16, thus providing a highly compressed charge when dolivered through the respective by-pass 11 or 12 through the intake ports 19 or 18, and finally to the explosive chamber 17 or 16.
\Vhat is claimed is:
1. an explosive engine, having a main cylinder, a eoiwentrically disposed reduced cylinder providing enlarged chambers beyond its respective ends within the main cylinder, said main cylinder having a carbureted air supply port at the junction of each enlarged chamber with its reduced cylinder, said reduced cylinder having a central diaphragm dividing said cylinder into oppositely disposed explosive chambers, each of said chambers being provided with intake and exhaust ports near one end and in substantially the same circumferential line, said reduced cylinder providing two parallel channels between its outer shell and the wall of the main cylinder, one of said channels forming communication between the lower enlarged chamber and the intake of the upper explosive chamber while the other channel forms communication between the upper enlarged chamber and the intake port of the lower explosive chamber, two superposed and connected explosive and explosive charge supplying pistons mounted in the respective ends of the main cylinder and reduced cylinder, a branched carbureted air supply manifold leading to each carbureted air supplying port, and a valve in each branch thereof to permit carbureted air to enter its enlarged chamber upon the out-stroke of its explosive charge supplying piston and to close on the in-stroke thereof.
2. An explosive engine, having a main cylinder, a concentrically disposed reduced cylinder providing enlarged chambersbeyond its respective ends within the main cylinder, each enlarged chamber having a carbureted air intake port near its junction with the reduced cylinder, said reduced cylinder having a central diaph 'agm dividing said cylinder into oppositely disposed explosive chambers, each of said chambers being provided with intake and exhaust ports near one end and in substantially the same cireumferenlial line, said reduced cylinder pro viding two parallel channels between its outer shell and the wall of the main cylinder, one of said channels forming communication between the lower enlargedchamber and the intake of the upper explosive chamber while the other channel forms communication betwecn the upper enlarged chamber and the intake port of the lower explosive chamber, two superposed and connected explosive and explosive charge supplying pistons mounted in the respective ends of the main cylinder and reduced cylinder, a two branchedcarbureted air supply conduit in communication with the ends of the respective enlarged chambers adjacent the junction thereof with the respective ends of the reduced cylinder, and a spring closed valve to each branch to permit the flow of carbureted air to its enlarged chamber upon the out-stroke of its piston and to close its branch upon the in-stroke thereof.
3. An explosive engine, having a main 3 ports of their respective exploslve chambers,
cylinder, a concentrically disposed reduced cylinder providing enlarged chambers beyond its respective ends within the main cylinder, each enlarged chamber having a carbureted air intake port near its junction with the reduced cylinder, said reduced cylinder having a central diaphragm dividing said cylinder into oppositely disposed explosive chambers, each of said chambers being provided with intake and exhaust ports near one end and in substantially the same circumferential line, said reduced cylinder providing two parallel channels be tween its outer shell and the wall of the main cylinder, one of said channels forming communication between the lower enlarged chamber and the intake of the upper explosive chamber, while the other channel forms communication between the upper enlarged chamber and the intake port of the lower explosive chamber, an explosive piston and a carbureted air supplying piston mounted in each explosive chamber of the reduced cylinder and the enlarged portion of the main cylinder, rods connected to the two enlarged pistons for connecting all of the pistons for movement in unison, a two branched carbureted air supplying manifold, each branch of which leads to its respective intake port of its enlarged chamber, and a valve in each branch to permit the supplying of carbureted air and to prevent back pressure in the manifold.
4. An explosive engine, having a main cylinder, a concentrically disposed reduced cylinder providing enlarged chambers beyond its respective ends within the main cylinder, each enlarged chamber having an intake port, said reduced cylinder having a central diaphragm dividing said cylinders into oppositely disposed explosive chambers, each of said chambers being provided with intake and exhaust ports near one end and in substantially the same circumferential line, said reduced cylinder providing two parallel channels between its outer shell and the wallsof the main cylinder, one of said channels forming communication between the lower enlarged chamber and the intake of the upper explosive chamber, while the other channel forms communication between the upper enlarged chamber and the intake port of the lower explosive chamber, two superposed and connected explosive and explosive charge supplying pistons mounted in the respectlve ends of the main cylinder V and reduced cylinder, the said explosive pis tons controlling both the intake and exhaust and a valve to each intake port of the enlarged chambers opened upon the outstroke of its explosive charge supplying piston, and
closed upon the in-stroke thereof.
5. An explosive engine, having a main cylinder, a concentrically disposed reduced cylinder providing enlarged chambers beyond its respective ends within the main cylinder, each enlarged chamber having an intake port, said reduced cylinder having a central diaphragm, dividing said cylinders 3 into oppositely disposed explosive chambers,
each of said chambers being provided with I intake and exhaust ports near one end and in substantially the same circumferential line, said reduced cylinder providing two parallel channels between its outer shell and the wall of the main cylinder, one of said channels forming communication between the lower enlarged chamber and the intake of the upper explosive chamber, while theother channel forms communication between the upper enlarged chamber and the intake port of the lower explosive chamber, two superposed and connected explosive and explosive charge supplying pistons mounted in p the respective ends of the main cylinder, the
said explosive pistons controlling both the intake and exhaust ports of their respective explosive chambers, a two branched carbureted air supply conduit having each branch in communication with its respective intake port of the enlarged chambers of the main cylinder, a valve in each branch, and an exhaust conduit leading from' the respective exhaust ports of the explosive chambers.
In testimony that I claim the foregoing as my own, I have hereto affixed my signature in the presence of two witnesses.
HARRY WV. MOORE.
lVitnesses GEO. R. BOURKE, RICHARD TOBIN.
Copies of this patent may be obtained for five cents each, by addressing the Commissioner of Patents,
Washington, D. C. e
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| US64901011A US1061396A (en) | 1911-09-13 | 1911-09-13 | Explosive-engine. |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| US64901011A US1061396A (en) | 1911-09-13 | 1911-09-13 | Explosive-engine. |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| US1061396A true US1061396A (en) | 1913-05-13 |
Family
ID=3129642
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| US64901011A Expired - Lifetime US1061396A (en) | 1911-09-13 | 1911-09-13 | Explosive-engine. |
Country Status (1)
| Country | Link |
|---|---|
| US (1) | US1061396A (en) |
-
1911
- 1911-09-13 US US64901011A patent/US1061396A/en not_active Expired - Lifetime
Similar Documents
| Publication | Publication Date | Title |
|---|---|---|
| US1040472A (en) | Gas-engine. | |
| US1045505A (en) | Two-stroke-cycle internal-combustion engine. | |
| US980134A (en) | Explosive-engine. | |
| US2918045A (en) | Double acting two stroke cycle internal combustion engine | |
| US1073656A (en) | Engine or motor. | |
| US1291032A (en) | Explosion-engine. | |
| US1717811A (en) | Internal-combustion engine | |
| US1079622A (en) | Internal-combustion engine. | |
| US996126A (en) | Gas-engine. | |
| US931531A (en) | Gas-engine. | |
| US874634A (en) | Two-cycle engine. | |
| US1316192A (en) | Gasolene-motor | |
| US1360689A (en) | Two-cycle gas-motor | |
| US1463973A (en) | Internal combustion engine | |
| US1082958A (en) | Explosive-engine. | |
| US1723865A (en) | Opposed-piston internal-combustion engine | |
| US1099860A (en) | Internal-combustion engine. | |
| US1001485A (en) | Explosive-engine. | |
| US1955976A (en) | Internal combustion engine | |
| US1152659A (en) | Two-stroke-cycle combustion-engine. | |
| US1813730A (en) | Internal combustion engine | |
| US1082341A (en) | Internal-combustion engine. | |
| US2063666A (en) | Two-cycle engine | |
| US957336A (en) | Internal-combustion engine. | |
| US956814A (en) | Two-cycle internal-combustion engine. |