US1000410A - Explosive-generator. - Google Patents

Explosive-generator. Download PDF

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US1000410A
US1000410A US55930410A US1910559304A US1000410A US 1000410 A US1000410 A US 1000410A US 55930410 A US55930410 A US 55930410A US 1910559304 A US1910559304 A US 1910559304A US 1000410 A US1000410 A US 1000410A
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compression
air
fuel
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compression chambers
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William N Howell
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    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F02COMBUSTION ENGINES; HOT-GAS OR COMBUSTION-PRODUCT ENGINE PLANTS
    • F02BINTERNAL-COMBUSTION PISTON ENGINES; COMBUSTION ENGINES IN GENERAL
    • F02B71/00Free-piston engines; Engines without rotary main shaft
    • F02B71/04Adaptations of such engines for special use; Combinations of such engines with apparatus driven thereby
    • F02B71/045Adaptations of such engines for special use; Combinations of such engines with apparatus driven thereby with hydrostatic transmission

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  • My invention has reference to explosive generators for producing power and consists of certain improvements which are fully set forth in the following specification and The objectof my 1 a generator of ener shown in the accompanying drawing which which shall be simple,
  • My object is also to provide an apparatus and method which will enable the produc tion of .energy from combustion of ,fuel under pressure conditions which shall. be
  • my invention When my invention is utilized for the purpose of operating engines similar to steam engines which .vary their power and speed under throttling or variations in degree of expansion, I generate, in an auto matic manner, high tension gases by internal combustion of air and fuel under high compression and utilize the gases so generated ,to perform the dual function of mamtaining the generator in operation and providing the high tension compressed gases which may be utilized in the engine in the same manner that -steam might. be employed therein.
  • My object is, further, to provide a simple and inexpensive generator 0 power by means nvention is to provide of internal combustion which may be operated without the requirement of ignition devices other than that due to'the compression of the .air within the generator itself; and finally, my ob ect is to provide a form of apparatus for generating energy from the explosive force ofair and fuel whichv may produce energy under various conditions of pressure by its own internal action and by proper ad ustment to suit the requirements for which the power is utilized.
  • My invention consists of means for utilizmg the momentum of a body of fluid to produce the compression and alsoregulate .the admixture of air and fuel to be burned, and further to produce the heat-necessary by the compression of the gases to insure ignition thereof in the act of exploding them and these improvements comprehend the various features of constructions hereinafter more fully described and more particularly defined in the claims.
  • Figure 1 is an elevation of ail-explosive generator embodying my improvements
  • Flg. 2 is a sectional elevation of a portion of the same .on a larger scale
  • Fig. 3 is a. sectional elevation of. the lower part of Fig. 1
  • Figs. 4 and 5 are similar sectional elevations to Fig. 3 illustrating modified constructions
  • Fig. 6 is a perspective view illustrating the generator fluid containing tubes bent into a horizontal position
  • Figs. 7 and 8 are elevations of modified arrangements of the fluid containbe provided with power devices which may the top spring actuated check valves and are capable of: adjustment so as to open under a predetermined pressure.
  • each of the heads 4 is a further provided with an automatic check valve or inlet 8 by which atmospheric air may be drawn into the chamber to form. a mixture with the hydrocarbon vapors produced therein from the hydrocarbon fluid delivered through the pipe 25.
  • the piston 17 of the oil pump 16 works through packing 18 on' the pump cylinder and has a very small movement; namely, just su'fiicient to insure the proper charge of oil being delivered to the head to produce therein, with the' air passing through the valve inlet 6, the rightadmixture to produce an automatic explosion when the said gases are compressed.
  • the lower end of the piston 17 is provided with a piston rod 19, upon the .bottom of which is adjustably screwed a cap 20.
  • a coil spring 21 Arranged about the cap 20 and resting upon an annular collar thereon is a coil spring 21, the upper end of which presses against a cap plate 16 upon the cylinder 16, the said cap plate perform.- ing the function of sustaining the spring and also limiting'the downward'movement of the piston.
  • the pum thus described is arranged exactly over t e head 4 and is operated by a "piston'12 arranged within a 2 cylinder 11 formed in the upper part of the body of the head 4.
  • a port 13 communicates with the interior of the cylinder 11 below the piston 12, and. opens into the interior chamber of the head 4. The piston.
  • the piston. 12 and the piston rod 14, therefore, act to produce a positive thrust upon the pump plunger to forcethe' oil into the head 4 against the pressure therein, but permit the'plunger to return to its lowest position independently of the descent of the piston 12 within itscylinderf Furthermore, by adjusting the cap 20. upon the rod 19 of the plunger "17 it is evident that the plunger 17 may be made to assume diflerent normal positions within the pump cylinder, and thereby vary the amount .ofoil .which will be forced into the pipe 25 with plunger and the each upward stroke of the operating piston 12.
  • each of the heads 4 is further provided with a relief pipe29 communicating with an exhaust pipe 30, and each of these relief pipes 29 is provided with a positively closing valve 31. These valves are so constructed that the pressure within the head 4 will cause'the valves to tightly fit their seats and prevent the escape of the gases from the heads into the exhaust pipe.
  • the two valves 31 corresponding to the respective heads are connected by a rocking lever having a handle 33, the said rocking lever 32 being loosely sleeved upon the exhaust pipe 30 and spring pressed upward by a coil spring 34, which normally keeps both valves tight upon their seats.
  • This construction is such that if the handle 33 is rocked to the right (Fig. 1) the valve to the right hand headwill be opened to relieve the said head of pressure and permit it to exhaust through the exhaust pipe 30, while the valve to the left-hand head wlll beheld tight to its seat. The reverse operation will take place if the handle is moved to the left.
  • the preferred construction thereof consists of the following mechanism: 45 is the valve piece which seats upon the outer face of the valve seat so that the pressure from the chamber of the head 4 will tend toforcethe valve piece away from its seat when the gases are escaping into the pipe 6.
  • the valve piece 45 is provided with a stem 46 which extends through a stufiing box 47.
  • the amount of pressure required to overcome the tension of the spring 50 may be regulated. Furthermore,by this construction the spring isnot reached by-the hot gases which are passing from the head 4 into the plpe 6 and consequently the temper of the spring is not affected as would be the case if the spring were arranged within the valve body.
  • An outer case may be employed about the spring as indicated in Fig.2, but this is immaterial and may be omitted if so desired. While this particular character of relief valve is excellently adapted for the duties.
  • valve may beus ifso desired. While I have shown the U shaped as these pipes may be arranged horizontally as indicated in F 1g. 6, or in any other suitable manner desired. Furthermore, while the heads 4 are directed upward, this is not necesshry, although it is preferable. For instance, Fi 1 may be considered as a plan view instea of an elevation and the appipes 2, plane,
  • any other form v paratus would embody my invention and would work in the same manner as if arranged vertically. It is also evident that the bend 3 might be straightened out so that these ipes 2, 2 may lie in the same straight line. prefer, however, to employ the bend 3 so as tobring the heads 4 reasonably close together to make the operative mechanism more compact.
  • Figs. 1, 3, 4 and 5 the part 3 is made in the form of a cylinder, each end of which is in constant communication with the pipes 2.
  • Pistonrod 37 extends through stufl'ing boxes 44 and may be connected by.
  • the piston rod is provided with a piston 38 working in the cylinder and forming therein a very loose fitting so that the water while driving the piston forward may freely escape around the said piston.
  • Each reversal: of the flow ofthe water through the bend and its cylinder 3, will cause a reciprocation of the piston 38 and its piston 'rod 37 with the result of transferring the energy. of the moving body of water into rotary or other .motion/ i In Fig. 4, the reciprocating piston rod and piston have been replaced by a propel-' ler 40 upon a rotary shaft 39.
  • Therush of water alternately in opposite directions past 7 any manner desired and may be modified into continuous motion by any of the well known mechanieal movements in use by engineers,
  • Fig. I- have shown a pivoted flapper 41 arrangedin the path of the water flowing j through the bend 3.
  • This flapper is rocked dent that the operation of the devices shown first in one direction and then in the other and the'rocking shaft thereby operated may transmit its, mot-ion by any suitable mechanical movement as desired.
  • Figs. 3, 4 and 5 may be employed for any useful purpose in COIljllIlCtlOIl or separate hand head 4 communicating therewith. This produces a considerable difference in level of the liquid in the two pipes 2.
  • the valve 28 may then be closed.
  • the hand lever 33 is then rocked to the right which action opens the valve 31 between the exhaust pipe 30 and the right hand head 4 and relieves the pressure therein: This same action positively holds the other valve 31 communicating with the left hand head 4 tightly upon its seat. This condition is maintained for a moment and 'then the pressure is unbalanced in this manner, the weight of the column of liquid in the left hand pipe 2, supplemented by the compression of'the air in its head 4, causes the liquid to rush down the left'hand pipe 'and rise up inthe right-hand pipe toward the righthand head 4, producing therein a compression of the air, because before this com-.
  • the apparatus will now contmue to operate automatically by producing mixtures" and exploding them alternately in the two heads 4, 4.
  • the supply of air will be automatically drawn in through the check valves'8 and at this time the valves 28 in the compressed air pipes 27 willbe permanently closed.
  • the explosive mixture produced in the heads will be very accurate to insure the ifnailclmum energy from a given amount of
  • the compresslon which takes place in the heads 4 may reach a thousand pounds to the square inch and this would'overcome the spring 21 of the pump and cause thepiston 12 and the pump plunger 17 to operate to force the fuel int-o the chamber of the head4 only when the air therein had been compressed to this high pressure and brought to a. highly heated state by thesaid' compression.
  • the moving column of water or other fluid through the bend 3 alternately in oppo .site directions may be utilized as before stated to produce mechanical power by its action upon a. piston, a propeller, a flapper, or in fact. upon any other mechanism which may be affected by the moving fluid.
  • my improved method of generating power resides in the utilization .of the momentum of a column of water or is introduced into this heated space it is vaporized and burned under the most favorable conditions for producing mechanical results.
  • myimproved apparatus embodies simplicity of construction and lightness in weight as compared with an exat the moment of highest compression, a small part of the water which entersthe.
  • moving column of, liquid may be directly employed for positively operatingamechanical power transmitting device.
  • a fluid in the tubular passage and free 1 1 to flow toward and from each compressionchamber alternately, means for admitting fuel to the compression chambers alternately, means vfor admitting air into the compression chambers alternately, relief devices for permitting the escape of the products from the burned air and fuelfrom the, compression chambers when under high pressure, and timing devices for insuring the admission of the fuel to the compression chambers at a time when the air therein is under high compression.
  • timing devices for insuring the admis sion of the fuel to the compression chambers at a time when the air therein is'under high compression; said devices being provided with adjustable means for varying the amount of the fuel which is delivered to the compression chamber at each charge thereof.
  • lief devices for permitting the escape of the products from theburned air and fuel from the compression chambers and when under s.. combination of a tubular passage terminathigh pressure'consisting of spring actuated check valves, relief pipes from the relief check valves terminatingin a commonreservoir, devices for insuring the admission of the fuel to the compression chambers at a time When the air therein is under high compression, a pipe for delivering gas from the reservoir to the place of use, "and a means for controlling the flow of gas through the said 1 e. p In adevic'eof the character described,the
  • flmeans for admitting air into the compression chambers alternately wherein it is compressed by' the action of the fluid
  • relief devices for permitting the escape of the products from the burned fair and fuel from thecompression chambers and when under high pressure
  • tubular passage consisting of two upright portions supporting heads at the .top in which the compression chambers are formed and connected at the bottom to form" a substantially U-s'haped passage, afluid in i I fuel tothe compressionchambers alternately,
  • a'device for securing power from explosive mixtures the combination of a chamber in which the explosive mixture is burned, means for supplying an explosive vmixture to said chamber, and a relief valve.
  • avalve c'asingopening from the chamber a'valve piece seating upon the case against thepressure of the chamber and having a stem extending through-the case, a stufling box around the stem, and a coiled spring outside of the case entirely clear of the passage of the hot products of combustion and normally held in a stretched condition, said ,springihaving one. end connected with the case and thej'other end act-' ing upon the valve stem to. force the valve apiece upon its seat, and means to adjust the j tension of the spring by varying its stretched condition; v v
  • the hereindescribed method ofgencrating power which consists in putting a confined body of fluid'into 'rapid reciprocationibetween two compression chambers, al-.
  • The.herein described method of gen erating'power which consists in putting a confined body of fluid into rapid reciprocation between two compression chambers, alternately supplying air to the compression chambers when the liquid is moving awayfrom said compression chambers, alternately supplying fuel to the compression chambers when the liquid approaching the said compression chambers respectively, explod high compression, relieving the compression chamber of the gases produced by the explosion simultaneously with the action of the said expanding gases to propel the fluid away from the compression chamber in which the explosion is taking place and toward the other compression chamber, re-" peating the said operation alternately in each compression chamber, receiving the gases produced by the explosion in a receiver, and utilizingthe said gases in a continuous manner under throttling control.
  • the herein described method of generating power whichconsists in putting a confined body of fluid int-o rapid reciprocation between two compression chambers, alternately supplying air. to the'compression chambers when the liquid is moving away from said compression chambers, alternately supplying fuel to the compression chambers when the liquid is approaching the said compression chambers respectively, exploding the mixture of airand fuelwhen under high compression, relieving the compression chamber of the gases produced by the explo sion simultaneously a with v the. action of the said expanding gases to propel the fluid away from thefcompression Chai'nberiin which the explosion is taking place and to- Ward the other compression chamber, re-

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Description

W. N. HOWELL.
EXPLOSIVB GENERATOR.
APPLICATION FILED MAY 4, 1910.
1,000,410. Patented Aug. 15, 1911.
3 SHEETS-SHEET 1.
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J M I J r 4 2 29 4 7 I l i .11 0 l I O U 6 3i 3 1 m-j 5 w th moses n W. N. HOWELL.
EXPLOSIVE GENERATOR.
APPLIOATION FILED MAY 4, 1910.
5 n u 2-1 do a 3 SHEET8-SHEET 2.
Patented Aug. 15, 1911.
v m A 5 .I||l...\|| W B 1 AI "fig l 1 A w W 5. WE? Q E FIG lm Meow W. N. HOWELL.
EXPLOSIVE GENERATOR.
APPLICATION FILED MAY 4, 1910.
Patented Aug. 15, 1911.
3 SH-EETSSHEET 3.
M'f. R. How 22L UNITED STATES PATENT, onnrcn.
n. nownnn, or Barnes-roar, connnc'rrcur.
. nxrLosrvn-enmmron.
Specified! 011mm Patented Aug. 15, 1911. Application filed Kay 4, 1910. Serial No. 559,304.
.To all whom it may concern.
Be itknown that I, WILLIAM N.'HOWELL,
a citizen of the United States, and a resident of Bridgeport, coun of Fairfield, State of Connecticut, have invented'an Improvement in Explosive-Generators, of which the following is'a specification. I
7 My invention has reference to explosive generators for producing power and consists of certain improvements which are fully set forth in the following specification and The objectof my 1 a generator of ener shown in the accompanying drawing which which shall be simple,
, compact and capa le of producing power under widely-variable conditions to suit the particular uses for which the energy is to be employed; and more particularly, my inven tion is intended to utilize the explosive en- .ergy due to the combustion of air and carbon or hydrocarbon mixtures under high compression, said utilization, however, being accomplished in a secondary manner by transmitting the energy produced inthe generator to the machine or apparatus to be operated and which may be otherwise independent of the generator itself.
My object is also to provide an apparatus and method which will enable the produc tion of .energy from combustion of ,fuel under pressure conditions which shall. be
' very economical as to consumption of the fuel employed per givemhorse power.
When my invention is utilized for the purpose of operating engines similar to steam engines which .vary their power and speed under throttling or variations in degree of expansion, I generate, in an auto matic manner, high tension gases by internal combustion of air and fuel under high compression and utilize the gases so generated ,to perform the dual function of mamtaining the generator in operation and providing the high tension compressed gases which may be utilized in the engine in the same manner that -steam might. be employed therein.
' When my invention is otherwise utilized for the purpose ofproducing mechanical power, the operation of the generator causes a fluid 5 body to be set into motion and the'inertia of the said fluid body is directly caused to operate mechanical devices for the purpose of transmitting the power so generated.
My object is, further, to provide a simple and inexpensive generator 0 power by means nvention is to provide of internal combustion which may be operated without the requirement of ignition devices other than that due to'the compression of the .air within the generator itself; and finally, my ob ect is to provide a form of apparatus for generating energy from the explosive force ofair and fuel whichv may produce energy under various conditions of pressure by its own internal action and by proper ad ustment to suit the requirements for which the power is utilized.
My invention consists of means for utilizmg the momentum of a body of fluid to produce the compression and alsoregulate .the admixture of air and fuel to be burned, and further to produce the heat-necessary by the compression of the gases to insure ignition thereof in the act of exploding them and these improvements comprehend the various features of constructions hereinafter more fully described and more particularly defined in the claims.
In that form of my apparatus in which the body of fluid, whose momentum is the means of producing compression, is water, the said water is brought into contact with the heated surfaces of the metal in the combustion chambersand thereby keeps the apparatus from excessive heating; .and moreover, a small portion of the water is vaporized at the moment of highest compression and explosion and is thereby utilized to augment the gases produced and forced into the receiver for subsequent use by expansion.
Referring to the drawings, Figure 1 is an elevation of ail-explosive generator embodying my improvements; Flg. 2 is a sectional elevation of a portion of the same .on a larger scale; Fig. 3 is a. sectional elevation of. the lower part of Fig. 1; Figs. 4 and 5 are similar sectional elevations to Fig. 3 illustrating modified constructions and Fig. 6 is a perspective view illustrating the generator fluid containing tubes bent into a horizontal position, and Figs. 7 and 8 are elevations of modified arrangements of the fluid containbe provided with power devices which may the top spring actuated check valves and are capable of: adjustment so as to open under a predetermined pressure. While these relief valves 7 may be made in any suitable manner desired, the particular'construction preferred is clearly illustrated in Fig. 2 and will be described further on in the specification. The gases which are delivered from the heads 4 into the receiyer'5 may be employed'tooperate an engine of any suitable construction by conveying to sa1d englne the said gases under the initial pressure of.
the said receiver by meansof a supply pipe 9 having a control valve 10. As the gases are delivered to the receiver 5 under high pressure and exhaust in the said receiver 1na continuous manner, they may be supplied to an engine very much the same as steam is supplied thereto for operating it by means of expansion. Each of the heads 4 is a further provided with an automatic check valve or inlet 8 by which atmospheric air may be drawn into the chamber to form. a mixture with the hydrocarbon vapors produced therein from the hydrocarbon fluid delivered through the pipe 25.
24 is a source of hydrocarbon fluid which is delivered by a pipe 23 to each of the pumps 16 of the respective heads 4. The oil is drawn into the cylinder of pump 16 through check valve 22 when the piston 17 descends. When the piston 17 is forced upward, the charge of hydrocarbon contained within the cylinder 16 is forced through the check valve 26 and into the pipe 25, by which it is delivered into the head 4.
The piston 17 of the oil pump 16 works through packing 18 on' the pump cylinder and has a very small movement; namely, just su'fiicient to insure the proper charge of oil being delivered to the head to produce therein, with the' air passing through the valve inlet 6, the rightadmixture to produce an automatic explosion when the said gases are compressed. The lower end of the piston 17 is provided with a piston rod 19, upon the .bottom of which is adjustably screwed a cap 20. Arranged about the cap 20 and resting upon an annular collar thereon is a coil spring 21, the upper end of which presses against a cap plate 16 upon the cylinder 16, the said cap plate perform.- ing the function of sustaining the spring and also limiting'the downward'movement of the piston. The pum thus described is arranged exactly over t e head 4 and is operated by a "piston'12 arranged within a 2 cylinder 11 formed in the upper part of the body of the head 4. A port 13 communicates with the interior of the cylinder 11 below the piston 12, and. opens into the interior chamber of the head 4. The piston.
12 is provided with a piston rod which extends upward througha stuffing box 15 and abuts against the bottom of the cap 20 on the pump plunger. By examining Fig. 2, it is evi ent that'any pressure applied to the bottom of the piston 12 will'necessarily force the plunger 17 of the oil pump 16 upward and cause a discharge of the oil intov the pipe 25 atthemoment of the existence of .the required pressure Within the head 4 :which creates the-pressure upon the bottom [of the pist0n.'12., The pressure to overcome the spring 21 should approximate the maximum pressure of the compression of the air in the compression chamber before admisv which is commensurable withthe size of the pipe and this action may continue to be performed long after the piston 12 has returned to its normal position in the bottom of. its cylinder 11. The piston. 12 and the piston rod 14, therefore, act to produce a positive thrust upon the pump plunger to forcethe' oil into the head 4 against the pressure therein, but permit the'plunger to return to its lowest position independently of the descent of the piston 12 within itscylinderf Furthermore, by adjusting the cap 20. upon the rod 19 of the plunger "17 it is evident that the plunger 17 may be made to assume diflerent normal positions within the pump cylinder, and thereby vary the amount .ofoil .which will be forced into the pipe 25 with plunger and the each upward stroke of the operating piston 12. WVith the adjustment of the devices shown, a maximum oil dc:- livery is preduced, and while ordinarily the machine should be carefully designed so just the right amount of oil is delivered into the head of the chamber 4 to produce the desired explosive mixture, the provision of means for adjustment would be desirable as such adjustment would be required according to the chemical composition of the hydrocarbon fluid which might be employed. 7 271s a pipe leading from a source of air pressure and is providedwith a valve 28,
by which air or gas may be. delivered into the head 4 when desired, as in starting the operation of the apparatus. As shown, thereheads.
is apipe 27 and valve 28 for each of the In fact all of the mechanism which has been described is employed in connection with each of the two heads 4 and it will, therefore, not be necessary to repeat the description in connection with each of the said heads. Each of the heads 4 is further provided with a relief pipe29 communicating with an exhaust pipe 30, and each of these relief pipes 29 is provided with a positively closing valve 31. These valves are so constructed that the pressure within the head 4 will cause'the valves to tightly fit their seats and prevent the escape of the gases from the heads into the exhaust pipe. The two valves 31 corresponding to the respective heads are connected by a rocking lever having a handle 33, the said rocking lever 32 being loosely sleeved upon the exhaust pipe 30 and spring pressed upward by a coil spring 34, which normally keeps both valves tight upon their seats. This construction is such that if the handle 33 is rocked to the right (Fig. 1) the valve to the right hand headwill be opened to relieve the said head of pressure and permit it to exhaust through the exhaust pipe 30, while the valve to the left-hand head wlll beheld tight to its seat. The reverse operation will take place if the handle is moved to the left.
Referring to the relief valve 7 the preferred construction thereof consists of the following mechanism: 45 is the valve piece which seats upon the outer face of the valve seat so that the pressure from the chamber of the head 4 will tend toforcethe valve piece away from its seat when the gases are escaping into the pipe 6. The valve piece 45 is provided with a stem 46 which extends through a stufiing box 47.
48 1s a nut through which an. adjusting screw 49 extends, the'inne-r end of said adjusting screwabutting upon the end of the stem 46. A coil spring 50 surrounds the screw and stem and is secured at oneend to the nut 48 and at theother end to the cap of the stuffing box 47. It will now beseen that when the valve piece 45 is forced away from its valve seat, it will move the screw 49 and the nut 48 backward or away from the stufling box cap and hence put the spring 50 under tension. By adjusting the screw 49,
the amount of pressure required to overcome the tension of the spring 50 may be regulated. Furthermore,by this construction the spring isnot reached by-the hot gases which are passing from the head 4 into the plpe 6 and consequently the temper of the spring is not affected as would be the case if the spring were arranged within the valve body. An outer case may be employed about the spring as indicated in Fig.2, but this is immaterial and may be omitted if so desired. While this particular character of relief valve is excellently adapted for the duties.
3, 2 in Fig. 1 as arranged in a vertica I do not restrict myselfto this arrangement,
of valve may beus ifso desired. While I have shown the U shaped as these pipes may be arranged horizontally as indicated in F 1g. 6, or in any other suitable manner desired. Furthermore, while the heads 4 are directed upward, this is not necesshry, although it is preferable. For instance, Fi 1 may be considered as a plan view instea of an elevation and the appipes 2, plane,
l of my improved apparatus, any other form v paratus would embody my invention and would work in the same manner as if arranged vertically. It is also evident that the bend 3 might be straightened out so that these ipes 2, 2 may lie in the same straight line. prefer, however, to employ the bend 3 so as tobring the heads 4 reasonably close together to make the operative mechanism more compact.
In the modification shown in Fig. 8, I
have shown the pipes 2, 3, 2 as arranged in a perfect circle, the-only advantage of this however, is that the resistance to the flow of the water is at all times uniform as no abrupt bends or straight parts are provided through which the water is required to chan e its general form during its flow.
In Flg. 7 I have illustrated what is intended to represent a battery of generators each embodying my improvements, but which taken together wil. multiply the volume of gas generated to suit the requirements of larger engines. I
As hereinbefore stated, I may provide the bend 3 with a power transmitting mechanism and such devices are shownin Figs. 1, 3, 4 and 5. In Figs. 1 and 3 the part 3 is made in the form of a cylinder, each end of which is in constant communication with the pipes 2. Pistonrod 37 extends through stufl'ing boxes 44 and may be connected by.
the usual connecting rod with a crank or arranged for transmitting power in any other suitable way. The piston rod is provided with a piston 38 working in the cylinder and forming therein a very loose fitting so that the water while driving the piston forward may freely escape around the said piston. Each reversal: of the flow ofthe water through the bend and its cylinder 3, will cause a reciprocation of the piston 38 and its piston 'rod 37 with the result of transferring the energy. of the moving body of water into rotary or other .motion/ i In Fig. 4, the reciprocating piston rod and piston have been replaced by a propel-' ler 40 upon a rotary shaft 39. Therush of water alternately in opposite directions past 7 any manner desired and may be modified into continuous motion by any of the well known mechanieal movements in use by engineers,
- In Fig. I-have shown a pivoted flapper 41 arrangedin the path of the water flowing j through the bend 3. I This flapper is rocked dent that the operation of the devices shown first in one direction and then in the other and the'rocking shaft thereby operated may transmit its, mot-ion by any suitable mechanical movement as desired. It is eviin Figs. 3, 4 and 5 may be employed for any useful purpose in COIljllIlCtlOIl or separate hand head 4 communicating therewith. This produces a considerable difference in level of the liquid in the two pipes 2. The valve 28 may then be closed. The hand lever 33 is then rocked to the right which action opens the valve 31 between the exhaust pipe 30 and the right hand head 4 and relieves the pressure therein: This same action positively holds the other valve 31 communicating with the left hand head 4 tightly upon its seat. This condition is maintained for a moment and 'then the pressure is unbalanced in this manner, the weight of the column of liquid in the left hand pipe 2, supplemented by the compression of'the air in its head 4, causes the liquid to rush down the left'hand pipe 'and rise up inthe right-hand pipe toward the righthand head 4, producing therein a compression of the air, because before this com-.
pression takes place fully the valve 31 has been closed. This action may be accelerated gases in the right-hand head4, said by admitting a charge of compressed air by the pipe 27 into the left-hand head4. As in each case, where a pressure is produced in the heads 4, the piston 12 operating upon the oil plunger 17 causes a discharge of hydrocarbon into the chamber of the head and, while this mixture would not produce ignipressure, it will ignite when the production of such pressure is accomplished rapidly with the-attendant generation of heat due to suchrapid compression. It will, .there-.
fore, be seen that when the column of liquid is causedto rush up the right-hand pipe 2 and produce a compression of the said ases if of the proper admixture and if su cient heat is generated, will explode. If the tion from a gradual production of the said valve 31 has been closed,the said explosion of the gases will expend the power produced thereby in two ways; namely, by forcing the liquid downward in the right leg or pipe 2 and upward in the left leg or pipe 2 to compress and heat the explosive .charge in the left head 4, and secondly to discharge the surplus gas under. its high pressure due to the explosion through. the relief valve 7 and pipe 6 into the receiver 5. If'the' ignition has taken place, the apparatus will now contmue to operate automatically by producing mixtures" and exploding them alternately in the two heads 4, 4. In making these admixtures the supply of air will be automatically drawn in through the check valves'8 and at this time the valves 28 in the compressed air pipes 27 willbe permanently closed. By regulating the supply of oil, the explosive mixture produced in the heads will be very accurate to insure the ifnailclmum energy from a given amount of In the operation of this device the compresslon which takes place in the heads 4 may reach a thousand pounds to the square inch and this would'overcome the spring 21 of the pump and cause thepiston 12 and the pump plunger 17 to operate to force the fuel int-o the chamber of the head4 only when the air therein had been compressed to this high pressure and brought to a. highly heated state by thesaid' compression. When the fuel is thus injected, it is instantly vaporized a'ndburned with the air contained withhead is instantly raised to a considerablyhigher pressure before the inertiaof the column of moving water or liquid can be reversed in direction, and consequently this excess pressure is relieved byforcing the burned gases through the relief valve 7 and pipe 6 into the receiver 5. The main part of the gases produced by burning the fuel in this manner are discharged through the relief valve and only a relatively small portion of the high pressure gases remains in the clearance or compression space in the head to accelerate the water column in the opposite direction when said gases expand down to atmospheric pressure. The exin the head, and the pressure within the said pansion of these gases below atmospheric pressure is due to the moving column of water which has been put into motion by the gases when'existing above atmospheric pressure, and ,when said pressure below the atmosphere is reached, the atmospheric air is sucked through the check valve 8 into the head for the purpose of providing the air portion of the charge for the next compression and explosion when the in the tubes and 3 brings the same in conheads is vaporized and the'high tensionwapor so produced ceiver 5. U y
In stating the above operation of the apparatus, I have assumed that the explosion takes place upon the first compres-' sion and vibration of the hand lever 33; but it is evident that if it fails to produce the desired result on the first throw of the lever 33, the operation may be repeated in the reverse direction, namely, by throwing the lever 33 to the left, so as to relieve the pressure in the left-hand head at the right time. It is also evident that, while the charging valves 28 for compressed air are shown as-"ordinary hand valves, they may, by simple -mechanical connections, be made to automatically operate by the same lever 33, but this is immaterial to my invention because, in any event, they. are only utilized in producing the initial movement of the column of liquid. My invention is more particularly directed to the means of generating.
the burned gases under pressureand the maintaining the column of liquid in reciprocating motion, than to the device for first starting it in motion, as this latter may be modified in various ways without departing from the essential characteristics of my invention.
The moving column of water or other fluid through the bend 3 alternately in oppo .site directions may be utilized as before stated to produce mechanical power by its action upon a. piston, a propeller, a flapper, or in fact. upon any other mechanism which may be affected by the moving fluid.
I have described my invention with reference to ordinary water for use in the U- shaped fluid chamber or pipes, but it is evident that mercury or any other fluid may be employed in place of or in combination with-- water.
The advantage of my improved method of generating power resides in the utilization .of the momentum of a column of water or is introduced into this heated space it is vaporized and burned under the most favorable conditions for producing mechanical results. Moreover, myimproved apparatus embodies simplicity of construction and lightness in weight as compared with an exat the moment of highest compression, a small part of the water which entersthe.
augments and passes with the products of combustion into the relosive engine of the sam p in so di erases with the necessity of elaborately pac ed pistons, flywheels, gearing and heavy foundations. I, furthermore, securethe ca'-,
pacity in my improved generator of generating gaseous products of combustion under pressure which may be used either-in theorsteam turbine, or as before explained, the
moving column of, liquid may be directly employed for positively operatingamechanical power transmitting device.
While I have described my invention in the form which I consider excellently adapted for general purposes for which it is designed, desire it to be understood that I-do not l1m1tor restrictmyself as to details of 'dinary reciprocating steam engine or in a construction, as these may be modified or varied in many ways without departing from the principles of the invention.
.Having now described my invention, what I claim as new and desire to secure by Letters Patent, is
1. In a device of the character described, the comb1nat-ion of a tubular passage terminat-mg at each end in a compression chamher. a fluid in the tubular passage and free 1 1 to flow toward and from each compressionchamber alternately, means for admitting fuel to the compression chambers alternately, means vfor admitting air into the compression chambers alternately, relief devices for permitting the escape of the products from the burned air and fuelfrom the, compression chambers when under high pressure, and timing devices for insuring the admission of the fuel to the compression chambers at a time when the air therein is under high compression. 2. In a device of the character described,
minating at each end in a compression chamber, a fluid in the tubular passage and free to flow toward and from each compression chamber alternately, means for, admitaction of the piston until the compressed air .has reached a high condition of compression for insuring the admission of the fuel to the compression chambers at atime when the air therein is under. high compression, means for admitting air into the compression chambers alternately wherein it is compressed by the action of the fluid, and relief devices for permitting the escape of the products from the burned air and fuel from the compression chambers when under high pressure. 3. In a device of the character described,
the combination of a tubular passage terthe combination of a tubular passage terminating at each end in-a compression chamber, a fluid in the tubular passage and free to flow toward a'nd'from each com ression chamberv alternately, ducts for a mitting "fuel to the com ression chambers alternately,
means or admitting air into the compression chambers alternately wherein it is compressed by the action of the ffluid, relief devices for permitting the escape i of the products from the burned air and fuel from the compression chambers and when under high pressure,
and timing devices for insuring the admis sion of the fuel to the compression chambers at a time when the air therein is'under high compression; said devices being provided with adjustable means for varying the amount of the fuel which is delivered to the compression chamber at each charge thereof.
l. In a device of the character described, the combination of a tubular passage terminating at each end in'a compression chamber, a fluid in the tubular passage and free to flow toward and from each compression .chamber alternately, pipes for admitting fuel to the compression chambers alternately, means for admitting air into the compression chambers alternately whereln it is compressed by the action of the fluid, re-
lief devices for permitting the escape of the products from theburned air and fuel from the compression chambers and when under s.. combination of a tubular passage terminathigh pressure'consisting of spring actuated check valves, relief pipes from the relief check valves terminatingin a commonreservoir, devices for insuring the admission of the fuel to the compression chambers at a time When the air therein is under high compression, a pipe for delivering gas from the reservoir to the place of use, "and a means for controlling the flow of gas through the said 1 e. p In adevic'eof the character described,the
ing-at each end in a compression chamber, a fluid in the tubular passage and free to flow toward and from each compression chamber alternately, pipes for admitting fuel to the compression chambers alternately,
flmeans for admitting air into the compression chambers alternately wherein it is compressed by' the action of the fluid, relief devices for permitting the escape of the products from the burned fair and fuel from thecompression chambers and when under high pressure, devices for insuring the admission ofwthe fuel to the compression chambers at a time when the air therein is under high compression and having adjustable means to regulate the quantity of fuel to be delivered to the compression chambers beforeexplosion of the mixtures therein.
6. In a deviceoffthe character described, the combination of a tubular passage terminating at each'end in a compression chamber, a fluid in the tubular passage and free to flow toward and from each compression chamber alternately, pipes for admitting means-for admitting air into the compression chambers alternately wherein it is compressed by the action of the fluid relief devices for permittingithe escape of the products from the burned air and fuel fromthe compression chambers and when under high pressure, devices for insuring the admission of the fuel to the compression'chambers at a time when the air therein is underhigh compression and powertransmitting devices arranged m the tubular passage intermediate of the compression chambers adapted to be operated by the reciprocating'movement of the fluid within the said tubular passage under the action of theexplosive forces generated in the compression chambers.
7. In a device of the character described, the combination of a tubular passage terminating at each end in a compression cham-.
ber, said tubular passage consisting of two upright portions supporting heads at the .top in which the compression chambers are formed and connected at the bottom to form" a substantially U-s'haped passage, afluid in i I fuel tothe compressionchambers alternately,
the tubular passage and free to flow toward and from each compression chamber alternately, ducts for admitting fuel to] the compression chambers alternately wherein it is- V compressed by the'action of the fluid, means for admitting air into the compression chambers alternately, relief devices for permitting the escape of the products from the burned air and fuel fromthe compression chambers when under high pressure, and devices for insuring the admission of the fuel to the compression chambers at a time when the air therein is under high compression.
8. In a device of the character described, the combination of a tubular passage terminating at each end in a' compression chamber, a fluid in thevtubular passage and free to flow toward and from each compression chamber alternately, means for admitting fuel to the compression chambers alternately, ducts for admitting air into the compression chambers alternately wherein it is the other'fcompression chamber, said means ,being'employed when starting the reciproca- 'I-tion of fluid. v
9, In adevice of the character described,
thecombination of a tubular passage termif natin'g at each end in a .compresslon cham-' her, a fluid in the tubular passage and free to flow toward and from each compresslon chamber alternately, ducts for admitting fuel to the compression chambers alternately, means for admitting air intothe compression chambers alternately wherein it is compressed by the action of the fluid, relief dey according to the requirements when starting the apparatus as aforesaid.
' 10. In a device of the character described, the combination of a tubular passage terminating at each end in a compression cham her, a fluid in the tubular passage and free to flow toward and from each compression chamber alternately, ducts for admitting fuel to the compression chambers alternately, means for. admitting air into the compression chambers alternately wherein it is compressed by the action of the fluid, relief devices for permitting the escape of the products from the burned air and fuel from the compression chambers and when under high pressure, devices for insuring the admission of the fuel to the compression chambers at a time when the air therein 'is under high compression, means for admitting a charge of compressed air or gas to each of the compression chambers as may be required in starting the reciprocating of the fluid between the compression chambers, and hand controlleddevices for relieving the compression in each of the compression chambers according to the requirements when starting the apparatus as aforesaid, said hand controlled devices consisting of an exhaust pipe having communication with each of the com-- 'pression chambers, exhaust valves arranged between the compression chambers and the pipe, devices common to'both of thevalves for holding them normally closed and hand operated means for separately opening either of-said exhaust valves.
. 11. In a device for securing power from explosive mixtures, the combination of a,
chamber in which the explosive mixture is burned, means for supplying an explosive mixture to said and a reliefvalve forthe productsproduced-by-the explosion 'co'nsistin v of a valve casing opening-{from the cham I r', a valve piece seating u on the case against the pressure of the cham errand having a stem extending through the case, a stutfing box around the stem, and acoiled spr1ng outside of'the case entirely clear of the passage of the hot products of, combus:
tion-and normally held in a stretched condition,said spring having one endficonnected with the'case and the other end acting upon the'valvestemto force the valve piece upon itsseat. I 1
\ 12. In a'device for securing power from explosive mixtures, the combination of a chamber in which the explosive mixture is burned, means for supplying an explosive vmixture to said chamber, and a relief valve.
for-the products produced by the explosion consisting of avalve c'asingopening from the chamber, a'valve piece seating upon the case against thepressure of the chamber and having a stem extending through-the case, a stufling box around the stem, and a coiled spring outside of the case entirely clear of the passage of the hot products of combustion and normally held in a stretched condition, said ,springihaving one. end connected with the case and thej'other end act-' ing upon the valve stem to. force the valve apiece upon its seat, and means to adjust the j tension of the spring by varying its stretched condition; v v
13. The hereindescribed method ofgencrating power which consists in putting a confined body of fluid'into 'rapid reciprocationibetween two compression chambers, al-.
ternately supplying air to the compression chambers when the liquid is moving away from said compression chambers, alternately supplying fuel to the compression chambers when the liquid is approaching the said compression chambers respectively, exploding the mixture of air and fuel when under high compression, relieving the compression chamber of the gases produced by the explosion simultaneously withv the actionof thesaid expanding gases to propel the fluid away from the compression chamber in which the explosion is taking-place and toward the other compressionchamber, repeating the said operation alternately in each compression chamber, and utilizing the power of the exploded-mixture.
14.The.herein described method of gen: erating'power which consists in putting a confined body of fluid into rapid reciprocation between two compression chambers, alternately supplying air to the compression chambers when the liquid is moving awayfrom said compression chambers, alternately supplying fuel to the compression chambers when the liquid approaching the said compression chambers respectively, explod high compression, relieving the compression chamber of the gases produced by the explosion simultaneously with the action of the said expanding gases to propel the fluid away from the compression chamber in which the explosion is taking place and toward the other compression chamber, re-" peating the said operation alternately in each compression chamber, receiving the gases produced by the explosion in a receiver, and utilizingthe said gases in a continuous manner under throttling control.
15, The herein described method of generating power whichconsists in putting a confined body of fluid int-o rapid reciprocation between two compression chambers, alternately supplying air. to the'compression chambers when the liquid is moving away from said compression chambers, alternately supplying fuel to the compression chambers when the liquid is approaching the said compression chambers respectively, exploding the mixture of airand fuelwhen under high compression, relieving the compression chamber of the gases produced by the explo sion simultaneously a with v the. action of the said expanding gases to propel the fluid away from thefcompression Chai'nberiin which the explosion is taking place and to- Ward the other compression chamber, re-
peating the said operation alternately in each compression chamber, and utilizingthe power of the inertia of the. reciprocating body of liquid by causing said liquid to operate upon mechanical power transmitting.
devices.
In testimony of which invention, I hereunto set my hand. 1 1
WILLIAM N. HOWELL.
Witnesses:
Dams F. KELLER,v
G. HOWARD SCRIBNER.
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Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2658486A (en) * 1947-04-23 1953-11-10 Waide Hal De Engine for transmitting forces developed therein
US3066476A (en) * 1960-02-06 1962-12-04 Beteiligungs & Patentverw Gmbh Arrangement for converting a reciprocatory movement into a rotary movement
US20070107678A1 (en) * 2005-07-29 2007-05-17 Atkins Clyde D Sr Fluid piston engine

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2658486A (en) * 1947-04-23 1953-11-10 Waide Hal De Engine for transmitting forces developed therein
US3066476A (en) * 1960-02-06 1962-12-04 Beteiligungs & Patentverw Gmbh Arrangement for converting a reciprocatory movement into a rotary movement
US20070107678A1 (en) * 2005-07-29 2007-05-17 Atkins Clyde D Sr Fluid piston engine
US7350483B2 (en) 2005-07-29 2008-04-01 Atkins Sr Clyde D Fluid piston engine

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