US690443A - Speed-regulator for explosive-engines. - Google Patents

Speed-regulator for explosive-engines. Download PDF

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Publication number
US690443A
US690443A US5317801A US1901053178A US690443A US 690443 A US690443 A US 690443A US 5317801 A US5317801 A US 5317801A US 1901053178 A US1901053178 A US 1901053178A US 690443 A US690443 A US 690443A
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sleeve
engine
shaft
explosive
chamber
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US5317801A
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Albert L Kull
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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
    • F02B1/00Engines characterised by fuel-air mixture compression
    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y10TECHNICAL SUBJECTS COVERED BY FORMER USPC
    • Y10TTECHNICAL SUBJECTS COVERED BY FORMER US CLASSIFICATION
    • Y10T74/00Machine element or mechanism
    • Y10T74/19Gearing
    • Y10T74/1956Adjustable

Definitions

  • My invention has relation to a hydrocarbon or explosive engine, and in such connection it relates to the construction and arrangement of the parts of such an engine.
  • the principal object of my present invention is to so adjust the sparking device or iguiter and to so regulate the feeding of the charge to the explosion-chamber that when a low speed is required the charge is diminished in volume and also ignited after the completion of the compression by the piston and upon the power or return stroke of said piston.
  • The'means for adjusting the sparking device controls the mechanism for regulating the charge, and as a result there can be no burning of the mixture in the explosion-chamber, and consequently no choking or caking up of the engine.
  • FIG. 1 is a top or plan view of a hydrocarbon or explosive engine embodying main features of my invention.
  • Fig. 2 is a front elevational view of the same.
  • Fig. 3 is a vertical sectional view taken through one of the cylinders of the engine.
  • Fig. 4 is an enlarged top or plan view, partly sectioned, of the means for adjusting the sparking device and the mechanism for regulating the charge, intermediate parts being removed.
  • Fig. 5 is an enlarged detail view, in vertical section, of the two electrodes comprising the sparking device; and
  • Fig. 6 is a cross sectional view on the line 6 6 of Fig. 4.
  • the engine illustrated is of the multiple-cylinder type and is therefore provided with four cylinders a, in each of which reciprocates a piston 19.
  • Each explosion-chamber d has an inlet-opening d and an outlet opening or port (F, as illustrated in Fig. 8.
  • the inlet-openings d all communicate with a common pipe e, which in turn is fed by a pipe 6, leading from the mixing-chamber or carburetor.
  • Each inlet-opening d is controlled by a valve (1 normally closed on its seat by a spring 01 the tension of which, however, is sufficient to permit the valve (1 to open only during the suction or down stroke of the piston 17.
  • the valve d opens, the charge is drawn into the cylinder a and is compressed on the upstroke of the piston 11 in the explosion-chamber d.
  • the charge When so compressed, the charge is exploded by a suitable igniter or sparking device.
  • the outlet-port from the explosion-chamber d is controlled by a valve (1, held closed under tension of the spring d and provided with a rod or stem (1 extending downward and adapted to be shifted upward to open the valve 61 when a cam d controlled by the running-gear of the engine, impinges upon the end of the rod d
  • the impingement of the cam 62 is so timed that immediately after the explosion of the charge in the chamber (Z and the transmission of the force thus generated to the piston b the valve d will be opened to permit the exhaust or spent gases to be forced out by the upstroke of the piston 19.
  • the pistons bin the four cylinders are arranged to operate successively, so that the four cycles of the engine are con tinuous.
  • the sparking device or igniter for each cylinder'a consists of a stationary pin or elec trode g, forming one terminal of an electric circuit, and an oscillating or movable shaft g, carrying an arm or extension g forming the other terminal of the circuit.
  • the rodg and shaft g are properly insulated from each other.
  • the shaft g projects upward through the head of the cylinder and is attached to a curved arm or finger g
  • the free end of the arm or finger g rests under tension of a spring g against the periphery of a camsleeve 9 secured to and rotating with a shaft 9 as illustrated in Fig. i.
  • the finger 9 as the shaft g turns rides up the cam g of the sleeve g and turns the electrode g and its extension g so that said extension approaches and contacts with the fixed electrode g.
  • the further turning of the shaft g and the camsleeve 9 causes the finger g to suddenly drop off under tension of its spring 9 from the highest to the lowest point of the cam-sleeve, and the extension 9 is thereby suddenly snapped backward away from the fixed electrodeg to cause sparking between the electrodes. The spark thus produced will explode the compressed charge in the explosion-chamber d.
  • the sprocket h for rotating the shaft g is secured to or preferably formed on one end of a sleeve h,'having an internal spline 71 fitting in the slot or way h of an internal sleeve h, which is thus adapted to turn with the sprocket-sleeve h, as well as to be shifted in and out of the same.
  • the shaft 9 is surrounded by the internal sleeve 71 and is provided with a pin 7L engaging or traveling in an inclined slot h formed in the wall of said sleeve M. This pin h forms the connection between the shaft 9 and the sleeve h, whereby when the sleeve h rotates the shaft g revolves.
  • the shaft g When the sleeve h is shifted within the sprocket-sleeve h, the shaft g will turn in the sleeve k independently of the sleeve h, as indicated in full and dotted lines in Fig. 4, and the cam-sleeves g carried by the shaft 9 will be turned more or less to vary the time when the finger g will'slip off of the highest to the lowest portion of the camsurface of the sleeve g
  • the sparking between the electrodes g and g may be adjusted so as to take place after the charge has been completely compressed by the piston Z).
  • the means for so adjusting the sparking device also control the volume of the charge entering the explosion-chamber (1 through the following preferred mechanism:
  • a valve m of preferably the butterfly type.
  • the stem m of this valve is provided with an arm m pivotally connected to one end of a link m
  • the other end of this link m is pivotally connected, as at m, to a bracket m having a forked extension m", fitting in a groove m formed on the outer end of the sleeve 7%.
  • the sleeve h can rotate freely in the fork m, but when shifted back or forth causes said fork to shift in the same direction.
  • the movement of the fork m and bracket m through the link m causes the arm m of the valve m to be shifted to either shut ed a portion of the supply of vapor passing through the pipe 6' or to permit the full charge to pass through said pipe e.
  • the sprocket-sleeve h is supported in a two-part bearing M, which snugly fits a depressed or grooved portion of the exterior of the sleeve h, as clearly illustrated in Figs. 4 and 6.
  • the sleeve h is shifted back and forth by the fork m which for this purpose is secured to a slide m operated by a bell-crank lever m which in turn is controlled in its movement by an arm m under the control of the operator of the engine.
  • a series of cylinders, a series of explosion-chambers arranged to communicate directly with the cylinders, each chamber separated from the other chambers, a supply-pipe leading to all the explosion-chambers, a valve controlling the inlet from the supply-pipe to each chamber and operated by the suction in each cylinder, a feed-pipe leading from the mixing-chamber to the supplypipe, a valve controlling the feedpipe, at sparking device for each explosion-chamber, 'means for adjusting all the sparking devices simultaneously so as to vary the time when the spark may be formed, and mechanism for operating, the valve in the feed-pipe, said mechanism controlled by the means for adjustin g the sparking devices, substantially as and for the purposes described.
  • spect to the curved finger may be varied, sub- J. WALTER DOUGLASS, stantially as and for the purposes described. THOMAS M. SMITH.

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  • Engineering & Computer Science (AREA)
  • Chemical & Material Sciences (AREA)
  • Combustion & Propulsion (AREA)
  • Mechanical Engineering (AREA)
  • General Engineering & Computer Science (AREA)
  • Output Control And Ontrol Of Special Type Engine (AREA)

Description

'No. 690,443. Patented Jan; 7, 1902.
A. L. KUL'L. SPEED REGULATOR FOR EXPLUSIVE ENGINES.
(Application filed Mar. 28, 1901.)
3 Sheets-Sheet I.
(No mum.)
WWW;
THE wnmx PEYL'R! co. pnownjwov. wAsnmaroN. n. c.
' 'P atented Jan. 7-,1902. E A. L. KULL. SPEED REGULATOR FOB EXPLOSIVE ENGINES.
(Application filed Mar. 28, 1901.) I (No Model.) 3 Sheats-Sheet 2.
IHI
III
7 n4: mums bums cu. wnmuma. WASHINGYON o c.
Patented Ian. 7, i902,
A. KULL. SPEED BEGULATOR FOR EXPLOSIVE ENGINES.
(Application filed Mar. 28, 1901.)
3 Sheets$heet 3.
(" 0 Model.)
u fi wV//////////////////////A I UNITED STATES ATENT Fries.
ALBERT L. KULL, OF CAMDEN, NEW JERSEY.
SPEED-REGULATOR FOR EXPLOSIVE-ENGINES.
SPECIFICATION forming part of Letters Patent No. 690,443, dated January 7, 1902.
Application filed March 28, 1901. Serial No.- 53,178. (No model.)
To all whom, it mag concern:
Be it known that I, ALBERT L. KULL, a citizen of the United States, residingat Camden, in the county of Camden and State of New Jersey, have invented certain new and useful Improvements in Hydrocarbon or Explosive Engines, of which the following is a specification.
My invention has relation to a hydrocarbon or explosive engine, and in such connection it relates to the construction and arrangement of the parts of such an engine.
The principal object of my present invention is to so adjust the sparking device or iguiter and to so regulate the feeding of the charge to the explosion-chamber that when a low speed is required the charge is diminished in volume and also ignited after the completion of the compression by the piston and upon the power or return stroke of said piston. The'means for adjusting the sparking device controls the mechanism for regulating the charge, and as a result there can be no burning of the mixture in the explosion-chamber, and consequently no choking or caking up of the engine.
The nature and scope of my invention will be more fully understood from the following description, taken in connection with the accompanying drawings, forming part hereof, in which- Figure l is a top or plan view of a hydrocarbon or explosive engine embodying main features of my invention. Fig. 2 is a front elevational view of the same. Fig. 3 is a vertical sectional view taken through one of the cylinders of the engine. Fig. 4 is an enlarged top or plan view, partly sectioned, of the means for adjusting the sparking device and the mechanism for regulating the charge, intermediate parts being removed. Fig. 5 is an enlarged detail view, in vertical section, of the two electrodes comprising the sparking device; and Fig. 6 is a cross sectional view on the line 6 6 of Fig. 4.
Referring to the drawings, the engine illustrated is of the multiple-cylinder type and is therefore provided with four cylinders a, in each of which reciprocates a piston 19. The
cylinders a are separate and distinct from- Each explosion-chamber d has an inlet-opening d and an outlet opening or port (F, as illustrated in Fig. 8. The inlet-openings d all communicate with a common pipe e, which in turn is fed by a pipe 6, leading from the mixing-chamber or carburetor. (Not shown.) Each inlet-opening d is controlled by a valve (1 normally closed on its seat by a spring 01 the tension of which, however, is sufficient to permit the valve (1 to open only during the suction or down stroke of the piston 17. When the valve d opens, the charge is drawn into the cylinder a and is compressed on the upstroke of the piston 11 in the explosion-chamber d. When so compressed, the charge is exploded by a suitable igniter or sparking device. The outlet-port from the explosion-chamber d is controlled by a valve (1, held closed under tension of the spring d and provided with a rod or stem (1 extending downward and adapted to be shifted upward to open the valve 61 when a cam d controlled by the running-gear of the engine, impinges upon the end of the rod d The impingement of the cam 62 is so timed that immediately after the explosion of the charge in the chamber (Z and the transmission of the force thus generated to the piston b the valve d will be opened to permit the exhaust or spent gases to be forced out by the upstroke of the piston 19. The pistons bin the four cylinders are arranged to operate successively, so that the four cycles of the engine are con tinuous.
The sparking device or igniter for each cylinder'a consists of a stationary pin or elec trode g, forming one terminal of an electric circuit, and an oscillating or movable shaft g, carrying an arm or extension g forming the other terminal of the circuit. The rodg and shaft g are properly insulated from each other. The shaft g projects upward through the head of the cylinder and is attached to a curved arm or finger g The free end of the arm or finger g rests under tension of a spring g against the periphery of a camsleeve 9 secured to and rotating with a shaft 9 as illustrated in Fig. i. The finger 9 as the shaft g turns, rides up the cam g of the sleeve g and turns the electrode g and its extension g so that said extension approaches and contacts with the fixed electrode g. The further turning of the shaft g and the camsleeve 9 causes the finger g to suddenly drop off under tension of its spring 9 from the highest to the lowest point of the cam-sleeve, and the extension 9 is thereby suddenly snapped backward away from the fixed electrodeg to cause sparking between the electrodes. The spark thus produced will explode the compressed charge in the explosion-chamber d. When the engine is to be run at full speed, the snapping back of the movable electrode, and hence the production of a spark, takes place at the moment when the charge has been fully compressed by the upstroke of the piston b. The cam-sleeve g and its shaft g are adjusted initially, so that the sparking takes place at the proper time. The shaft 9 is uniformly driven by the gear of the engine, and hence when once properly adjusted the rotation of the cam-sleeve g and the consequent recurrence of the sparks cannot be varied. When the engine is to be slowed up, it is manifest that the time of the explosion in the combustion-chamber ought also to be varied, so that the piston b will not be subjected to as great a shock as when the engine is working at full speed. The adjustment of the electrodes to compensate for the slowing up of the engine may be accomplished in the following manner:
The sprocket h for rotating the shaft g is secured to or preferably formed on one end of a sleeve h,'having an internal spline 71 fitting in the slot or way h of an internal sleeve h, which is thus adapted to turn with the sprocket-sleeve h, as well as to be shifted in and out of the same. The shaft 9 is surrounded by the internal sleeve 71 and is provided with a pin 7L engaging or traveling in an inclined slot h formed in the wall of said sleeve M. This pin h forms the connection between the shaft 9 and the sleeve h, whereby when the sleeve h rotates the shaft g revolves. When the sleeve h is shifted within the sprocket-sleeve h, the shaft g will turn in the sleeve k independently of the sleeve h, as indicated in full and dotted lines in Fig. 4, and the cam-sleeves g carried by the shaft 9 will be turned more or less to vary the time when the finger g will'slip off of the highest to the lowest portion of the camsurface of the sleeve g By adjusting the internal sleeve h it necessarily follows that the sparking between the electrodes g and g may be adjusted so as to take place after the charge has been completely compressed by the piston Z). The means for so adjusting the sparking device also control the volume of the charge entering the explosion-chamber (1 through the following preferred mechanism: In the pipe 6', leading from the mixing-chamber or carbureter to the pipe 6, discharging to the combustion-chambers d, is located a valve m, of preferably the butterfly type. The stem m of this valve is provided with an arm m pivotally connected to one end of a link m The other end of this link m is pivotally connected, as at m, to a bracket m having a forked extension m", fitting in a groove m formed on the outer end of the sleeve 7%. The sleeve h can rotate freely in the fork m, but when shifted back or forth causes said fork to shift in the same direction. The movement of the fork m and bracket m through the link m causes the arm m of the valve m to be shifted to either shut ed a portion of the supply of vapor passing through the pipe 6' or to permit the full charge to pass through said pipe e. The sprocket-sleeve h is supported in a two-part bearing M, which snugly fits a depressed or grooved portion of the exterior of the sleeve h, as clearly illustrated in Figs. 4 and 6. The sleeve h is shifted back and forth by the fork m which for this purpose is secured to a slide m operated by a bell-crank lever m which in turn is controlled in its movement by an arm m under the control of the operator of the engine.
Having thus described the nature and obj ect of my invention, what I claim as new, and desire to secure by Letters Patent, is
1. In an explosive-engine of the multiplecylinder type, a series of cylinders, a series of explosion-chambers arranged to communicate directly with the cylinders, each chamber separated from the other chambers, a supply-pipe leading to all the explosion-chambers, a valve controlling the inlet from the supply-pipe to each chamber and operated by the suction in each cylinder, a feed-pipe leading from the mixing-chamber to the supplypipe, a valve controlling the feedpipe, at sparking device for each explosion-chamber, 'means for adjusting all the sparking devices simultaneously so as to vary the time when the spark may be formed, and mechanism for operating, the valve in the feed-pipe, said mechanism controlled by the means for adjustin g the sparking devices, substantially as and for the purposes described.
2. In an explosive-engine, a sparking de vice, afinger controlling said sparking device, a sleeve having a cam-surface over which the finger is adapted to ride, a shaft carrying said sleeve, a sprocket-sleeve adapted to be rotated directly by the engine, an interior sleeve to which the sprocket-sleeve is splined, said interior sleeve turning with and adapted to be shifted in the sprocket-sleeve, and a pin projecting from the shaft and adapted to en IIO . respect to the sprocket-sleeve, whereby the ter an inclined slot in the Walls of the inte- In testimony whereof I have hereunto set rior sleeve, all arranged so that When the inmy signature in the presence of two subscrib- 1o terior sleeve is shifted in the sprocket-sleeve, ing Witnesses.
the shaft and cam-sleeve may be turned'with ALBERT L. KULL.
relative position of the cam-snrfaee with re- Witnesses: spect to the curved finger may be varied, sub- J. WALTER DOUGLASS, stantially as and for the purposes described. THOMAS M. SMITH.
US5317801A 1901-03-28 1901-03-28 Speed-regulator for explosive-engines. Expired - Lifetime US690443A (en)

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US4135478A (en) * 1976-10-20 1979-01-23 Rassey Louis J Modular engine construction

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US4135478A (en) * 1976-10-20 1979-01-23 Rassey Louis J Modular engine construction

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