US785240A - Thermic motor. - Google Patents

Thermic motor. Download PDF

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Publication number
US785240A
US785240A US73210799A US1899732107A US785240A US 785240 A US785240 A US 785240A US 73210799 A US73210799 A US 73210799A US 1899732107 A US1899732107 A US 1899732107A US 785240 A US785240 A US 785240A
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chamber
valve
cylinder
piston
engine
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US73210799A
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Gustaf Trinkler
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    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F02COMBUSTION ENGINES; HOT-GAS OR COMBUSTION-PRODUCT ENGINE PLANTS
    • F02MSUPPLYING COMBUSTION ENGINES IN GENERAL WITH COMBUSTIBLE MIXTURES OR CONSTITUENTS THEREOF
    • F02M67/00Apparatus in which fuel-injection is effected by means of high-pressure gas, the gas carrying the fuel into working cylinders of the engine, e.g. air-injection type
    • F02M67/02Apparatus in which fuel-injection is effected by means of high-pressure gas, the gas carrying the fuel into working cylinders of the engine, e.g. air-injection type the gas being compressed air, e.g. compressed in pumps
    • F02M67/04Apparatus in which fuel-injection is effected by means of high-pressure gas, the gas carrying the fuel into working cylinders of the engine, e.g. air-injection type the gas being compressed air, e.g. compressed in pumps the air being extracted from working cylinders of the engine

Definitions

  • Fig. 1 is a vertical sectional view.
  • Fig. 2 is a iorizontal sectional view.
  • Fig, 3 is a rear view of the cylinder.
  • Figs. 4:, and 5 are engine.
  • Fig. 1 is a vertical sectional view.
  • Fig. 2 is a iorizontal sectional view.
  • Fig, 3 is a rear view of the cylinder.
  • Figs. 4:, and 5 are engine.
  • Fig. 4:, and 5 are engine.
  • FIG. 8 is a detail view. Figs.
  • 9 and 10 are views of a two-cycle engine.
  • a "is a cylinder in A is the piston-rod, 'and B the cross-head.
  • - C is the connecting-rod D ,the crank-shaft serving to su port the engine.
  • B is the cy inder-head, containing the inlet-valve H and'the exhaust-valve J.
  • valves H and J are controlled by levers O O, acted upon by cams on the distributing-shaft P, which makes a half number driving-shaft D. f
  • the shaft P is driven by this shaft D by means of a gear and by the intermediate shaft Q.
  • N is the usual governor, (regulator,) act: ing upon the controlling device P by means of the connections P.
  • the liquid fuel is supplied by the feedingconduit R and runs through the device P into the port E, accumulating there until the valve F is opened.-
  • the valve F opens dun ing the suction period simultaneously with the air-waive H, which latter actuates the former by means of a lateral arm S.
  • the liquid accumulated in the port E is at once be applied to engines of kind, as four-cycle, two-cycle, horizon I in the Fig.6 1s a view of a, vertical 7 1s a view of an engine for which the piston or sliding with a great s eed;
  • valve F sucked in through the valve F and flows into the smuous conduit H J K.
  • This valveF is shown on a larger scale on Fig. 4.
  • the atmospheric air introduced into the engine by the valve H penetrates through the equilibrating-port M into the chamber 0 above and below the piston D, which remains stationary.
  • the chamber 0 constitutes a part of the compression-chamber of the cylinder A, and at the end of the compression the pressure therein is equal to' the pressure in the cylinder A.
  • the ressure in the chamber 0 will be also equal to thirty atmospheres and the li uid conduit H J K will remain in e' m rium; but at thesame time the pistonl), actuated by the lever T,-Fig. 3, sinks down, shuts the equilibrating-port M, and produces in the chamber 0 an excess of pressure.,which forces the liquid from the conduit H J K into the combustion-chamber of the cylinder..
  • the ignition in owing to the adiabatically-compressed air.
  • the lever T is actuated by a cam V by means of a link W.
  • a spring U returns the leverto its normal position.
  • the cam V such a construction as to start the movement of the lever T and the piston D
  • the feeding of the liquid uel is very quicklyperformed, and the combustion will be instantaneous and practically an explosion.
  • the liquid-controlling device P is shown on. the separate detail Fig. 5.
  • Fig. 6 shows a construction analogous to the construction that is shown on FigB 1, but applied to a vertical cylinder.
  • a C are respectively H J K, the sinuous conpiston.
  • analogous depressible piston D may be also ap lied to the insufilation of solid finely the coa '-dust a. free passage above the valve N J and a ter is ressed down ping down of this charge of coal-dust.
  • the lower edge of the pisfton M3. discovers the space 0 and the coal-' dust strews out, resting on the upper face of the valve N until the valve is de resse'd a ain, when it'dro s into the charm er P Frg.
  • the valve F a chamberv

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  • Engineering & Computer Science (AREA)
  • Chemical & Material Sciences (AREA)
  • Combustion & Propulsion (AREA)
  • Mechanical Engineering (AREA)
  • General Engineering & Computer Science (AREA)
  • Reciprocating Pumps (AREA)

Description

No. 785,240. I I 'PATENTED MAR. 21,1905 'G. TRINKLER.
. THERMIG MOTOR.
1 -APPLIOATION FILED SEPT. 29, 1899.
ZSHEBTS-SHEET 1.
. subject of the Em my invention may of th detail views.
I i E, the fly-Wheel; F ,the pulley; G, the frame "plunger works.
of revolutions as the UNITED STATES Patented March 21, 1905.
PATENT OFFICE.
THERMIQ MOTOR.
SPECIFICATION forming part of Letters PatentNo. 785,240, dated March 21,1905.
Application filqd fiaptcmber 29, 1899. Serial No. 732.107.
To all whom it mag /concern:
Be it known that I, Gusmr TRINKLER, a
eror of Russia, and a resident of St. Peters urg, Russia, haveinvented certain new and useful Improvements in Thermic Motors, of which the following is a specification. v
The devices forming the subject-matter of any tal, or vertical en 'ines. Figures 1, 2, and 3 e accompanymg'drawings show the apphcation of parts of my invention to a four cycle engine for liquid fuel.
Fig. 1 is a vertical sectional view. Fig. 2 is a iorizontal sectional view. Fig, 3 is a rear view of the cylinder. Figs. 4:, and 5 are engine. Fig.
powdered fuel. Fig. 8 is a detail view. Figs.
9 and 10 are views of a two-cycle engine.
A "is a cylinder in A is the piston-rod, 'and B the cross-head.
- C is the connecting-rod D ,the crank-shaft serving to su port the engine.
B is the cy inder-head, containing the inlet-valve H and'the exhaust-valve J.
- Air enters into the engine through the port L. The products of combustion escape through the port M.
The valves H and J are controlled by levers O O, acted upon by cams on the distributing-shaft P, which makes a half number driving-shaft D. f The shaft P is driven by this shaft D by means of a gear and by the intermediate shaft Q.
N is the usual governor, (regulator,) act: ing upon the controlling device P by means of the connections P.
The liquid fuel is supplied by the feedingconduit R and runs through the device P into the port E, accumulating there until the valve F is opened.- The valve F opens dun ing the suction period simultaneously with the air-waive H, which latter actuates the former by means of a lateral arm S. The liquid accumulated in the port E is at once be applied to engines of kind, as four-cycle, two-cycle, horizon I in the Fig.6 1s a view of a, vertical 7 1s a view of an engine for which the piston or sliding with a great s eed;
' sucked in through the valve F and flows into the smuous conduit H J K. This valveF is shown on a larger scale on Fig. 4. At the compression period the atmospheric air introduced into the engine by the valve H penetrates through the equilibrating-port M into the chamber 0 above and below the piston D, which remains stationary. Thus the chamber 0 constitutes a part of the compression-chamber of the cylinder A, and at the end of the compression the pressure therein is equal to' the pressure in the cylinder A. For instance, when the air in the cylinder has been compressed to thirty 'atmospheres the ressure in the chamber 0 will be also equal to thirty atmospheres and the li uid conduit H J K will remain in e' m rium; but at thesame time the pistonl), actuated by the lever T,-Fig. 3, sinks down, shuts the equilibrating-port M, and produces in the chamber 0 an excess of pressure.,which forces the liquid from the conduit H J K into the combustion-chamber of the cylinder..
The ignition in owing to the adiabatically-compressed air. The lever T is actuated by a cam V by means of a link W. A spring U returns the leverto its normal position. the cam V such a construction as to start the movement of the lever T and the piston D In this case the feeding of the liquid uel is very quicklyperformed, and the combustion will be instantaneous and practically an explosion. However, one can give the cam another construction, so as'to regulate the feeding of fuel in order to'cause the combustion to proceed gradually, thus preventing asudden rise of pressure.
The liquid-controlling device P is shown on. the separate detail Fig. 5. The liquid-is caused to flow R, Fig. 1, from an elevated tank and therefrom through an outlet S, whose crosssection may be modified by means of a ical spindle '1, upon which acts the speedregulator l Fig. 1, of the engine through the connections P The higher is lifted this spindle T the moreliquid flows through the opening S, controlled by this spindle,and
One can give,
therein through a supply-pipe runs eon-
this engine is spontaneous,
vice versa.
connected therewith and leading from a 'small pump of ordinary construct on.
Fig. 6 shows a construction analogous to the construction that is shown on FigB 1, but applied to a vertical cylinder. A C are respectively H J K, the sinuous conpiston. An
analogous depressible piston D may be also ap lied to the insufilation of solid finely the coa '-dust a. free passage above the valve N J and a ter is ressed down ping down of this charge of coal-dust. When the valve is lifted, the lower edge of the pisfton M3. discovers the space 0 and the coal-' dust strews out, resting on the upper face of the valve N until the valve is de resse'd a ain, when it'dro s into the charm er P Frg. 7, closed from slow by the The charge of coal-dust'is controlled by the pipe R which is'lifted orlowered by suite connections leading tothe speed-regulator of the engine acting on the small trunnions. or pins S Fig. 7, and thus varying the height of'the chamber 0 and the dimension of the slot formed at the lower stroke of A enin'g of the valve the piston M "The op takes place at the suction period when-the to no variation.
U, puts thechanncl K drivin -cylinder,
pressure in the working 0 inder surpasses not the pressure of the outer atmosphere or, generally, the pressure upon the coal-dust in. the funnel L At the compression period the coal-dust in the chamber P is subjected The gases compressed in the driving-cylinder penetrate through the conduits T' U J 2 into the chambers I and-O To cause the coal-dust to be'blowninto the the small piston D is moved from t e right to the left, closes the passage under the chamber I, com )resses the air in the chamber 0, and causes t is air to'rush through-the bore J to catch'the coal spilling through the bore K The liquid may 'be also sup-1 plied to the aperture E by means of a pipe the cylinder, the cylinderhead, and the piston;
'duit, and D- the depressible Dis pro- 1 .mosphere' When the the same lunger D .enginehas no suction period.
- connected with the cylinder by a from the chamber P and to carry this dust out into the driving-cylinder.
From foregoingit may be of the injecting devices-can be ap lied Without any modification to two-eye e motors. This is, for example, illustrated on'Figs. 9 andlO. The cylinder A is closed at the rlght hand end and serves as a pump for the air, which when the piston moves to the left is sucked through the valve right-hand chamber of the cylinder. Simul H and fills theeasily under stood that the above-described construction taneously compression is produced in the lefthand chamber, and when the piston reaches the left dead-point the combustion begins. Then the piston moves back to the right. In the leftcylinder-chamber an effectiveexpansion of gases is performed, an'dfin the right chamber a slight compression, about 0.3-at-' right dead-point, the ever 0 'and' shaft P cause the valve J to open, and the spent gases are exhausted through the port M. At
time the piston C opens the communication port Z and the 'ure "air from the right'cyhnder passes rapi chamber and fills it. Consequently by the e one. The liquid next left-hand stroke of the piston C a com:
'75 istonhas reached the v ly to the left e engine fuelenters,'as above escribed, throu h the valve F; but thislatter is actuated by t 1e exhaust valve J by means of a lateral arm S,
acting upon the spindle of the valve F. The
means for supplying fuel to the c a piston controlhng one of means for actuating said piston at the end of 'the compresslomstroke to create a pressure in the chamber in excess of that in the-cylinder and force the fuel throughthe' remaining port into the cylinder. I
In witness whereof I have hereunto set my hand in presence of two witnesses.
oUsTAF T I'NKLER.
Witnesses:
N. TIIEKALOFF, Y. BLAGK.
The valve F a chamberv
US73210799A 1899-09-29 1899-09-29 Thermic motor. Expired - Lifetime US785240A (en)

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2526075A (en) * 1947-03-08 1950-10-17 George H P Hansen Diesel engine

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2526075A (en) * 1947-03-08 1950-10-17 George H P Hansen Diesel engine

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