US1012652A - Gas-engine. - Google Patents

Gas-engine. Download PDF

Info

Publication number
US1012652A
US1012652A US47944609A US1909479446A US1012652A US 1012652 A US1012652 A US 1012652A US 47944609 A US47944609 A US 47944609A US 1909479446 A US1909479446 A US 1909479446A US 1012652 A US1012652 A US 1012652A
Authority
US
United States
Prior art keywords
engine
air
charge
cylinder
valve
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
Application number
US47944609A
Inventor
Martin C Kessler
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
KESSLER MOTOR Co
Original Assignee
KESSLER MOTOR Co
Priority date (The priority date 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 date listed.)
Filing date
Publication date
Application filed by KESSLER MOTOR Co filed Critical KESSLER MOTOR Co
Priority to US47944609A priority Critical patent/US1012652A/en
Application granted granted Critical
Publication of US1012652A publication Critical patent/US1012652A/en
Anticipated expiration legal-status Critical
Expired - Lifetime legal-status Critical Current

Links

Images

Classifications

    • 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

Definitions

  • the time of admission of the air under pressure may be under'the control of the operator at all times to meet the requirements of varying speed and power, while the engine is in operation.
  • the purpose of roviding for an earlier or later opening of the compressed air valve, whichshould be entirely within the control of the operator, while the engine is running, is to insure the greatest possible volume of mixture in the cylinder, the tendency at high speed being to reduce the volume of charge taken in because the time is shortened.
  • FIG. 1 is a vertical sectional view through the engine showing the parts in the position at the end of the intake stroke
  • Fig. 2 is a plan view on an enlarged scale of the slidin cam
  • Fig. 3 is an end view on an en arged scale of said earn, the shaft being shown in cross-section.
  • the engine illustrated is of the four-cycle type, and the crank case is "used as a compression chamber.
  • A represents the cylinder of the engine; 1 is the crank case; 2 is the piston; 3 is the connecting rod; 4 is the crank shaft; 5 is the normal two to one cam shaft actuating the usual inlet and exhaust valves, while 6 is an auxiliary cam shaft for actuating the valve controlling the supply of air under pressure; 7 is the normal inlet valve; 8 is the exhaust valve; 9 is the inlet port to the crankcase having a butterfly valve b for regulating the crank case air; 10 is the outlet port; 11 is the auxiliary air valve which controls the passage of air under pressure from the crank case 1 to the engine cylinder A.
  • the numeral 12 indicates a taper cam for controlling the admission of the crank case air to the engine cylinder approximately-at the end of the intake stroke for the purpose of augmenting or increasing the normal charge; 13 is a straight cam for the purpose of admitting the compressed air of the crank case to the engine cylinder approximately at the end of the exhaust stroke; 14 is a pin or key fixed in the cam and extending into a key-Way or slot 15 which is cut in the shaft 6, on which the cam slides. This key-way or slot 15 is deflected at one end in the form of a spiral as at 16 for the purpose of advancing or retarding the time of admission of air under pressure while the engine is in operation, the position of the cam 12 on the shaft 6, being within the control of the operator.

Landscapes

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

Description

M. C. KESSLER.
GAS ENGINE.
APPLIOATION FILED 33.23, 1909.
1,01 2,652. Patented Dec.26, 1911.
11 1 L9 A; Iii I 13 I 31 g i a It 5 15 H 1 1 INVENTOR Wwr fiald UNITED STATES PATENT OFFICE.
MARTIN o. KESSLEB, or DENVER, COLORADO, ASSIGNOB. TO THE KESSLER MOTOR COMPANY, or DENVER, COLORADO, A CORPORATION or COLORADO.
GAS-ENGINE.
Specification Of- Letters Patent. Patented D 26, 1911,
"Application filed February 28, 1909. Serial No. 479,446,
To all whom it may concern:
Be it known that I, MARTIN C. KEBBLER, a citizen of the United States, residin at Denver, in the county of Denver and tate of-Colorado, have invented certain new and useful Im rovements in Gas-Engines, of
which the ollowing is a specification.
sure, or the additional charge, and the closing of the normal intake while the engine is in operation, it being desirable to provide means for advancing and retarding the opening of the compressed air valve to meet the varying demands for speed and power, by providing the greatest possible volume of charge in the cylinder at all speeds. In other words, the augmenting ofthe charge is utilized to increase the power at low speeds, as well as high speeds, it being desirable to provide perfect flexibility, and at the same time, maximum power.
-Itwill be readily seen that at a speed of I,
say five hundred revolutions per minute, it may be possible for the engine to receive a full piston displacement of air or charge, likewise the engine will receive its full benefit from the {additional airunder pressure, but if the speed be increased to say one thousand revolutions per minute, which is considered moderate for this type of engine, it willbe readily seen that it will be impossible to take in a full piston displacement of air or charge owing to its inertia. Also it will readily be seen that the engine will not receive its full benefit of additional air under ressure owi to the lack of time for the a ission of said air; therefore, it becomes necessary toadvance the time of admission of said air under pressure as the speed of the engine increases. And therefore it becomes possible to advance the time of admission of the air under pressure with- .out filling the cylinder or causing the cur-' rent of the normalintake to be reversed and blown back before the closing of the intake valve. In other words, the higher the engine speed, the more advance; of admission of the air.under pressurebecomes possible.
In my present invention, ,the time of admission of the air under pressure, ma be under'the control of the operator at all times to meet the requirements of varying speed and power, while the engine is in operation. The purpose of roviding for an earlier or later opening of the compressed air valve, whichshould be entirely within the control of the operator, while the engine is running, is to insure the greatest possible volume of mixture in the cylinder, the tendency at high speed being to reduce the volume of charge taken in because the time is shortened. To oflset this effect, the air valve is opened earlier, but atslow speeds, the air valve opening isgretarded else the air pressure coming into the cylinder from the crank case would blow the mixture coming in through the intake valve back through the carburetor, because it would destroy the efliciency of the mixure.
In the accompanying drawings :-Figure 1 is a vertical sectional view through the engine showing the parts in the position at the end of the intake stroke, Fig. 2 is a plan view on an enlarged scale of the slidin cam, and Fig. 3 is an end view on an en arged scale of said earn, the shaft being shown in cross-section.
The engine shown in the drawings is an example merely of a simple means of carrying out the broad idea of this invention, and I do not, therefore, wish to limit myself to any valve construction or mechanism for controllin the time of the admission of said air un er pressure,nor doIwish tolimit myself as to the location for the admission of said air under pressure, nor do I care to limit myself as to the compression mechamsm.
The engine illustrated is of the four-cycle type, and the crank case is "used as a compression chamber.
A, represents the cylinder of the engine; 1 is the crank case; 2 is the piston; 3 is the connecting rod; 4 is the crank shaft; 5 is the normal two to one cam shaft actuating the usual inlet and exhaust valves, while 6 is an auxiliary cam shaft for actuating the valve controlling the supply of air under pressure; 7 is the normal inlet valve; 8 is the exhaust valve; 9 is the inlet port to the crankcase having a butterfly valve b for regulating the crank case air; 10 is the outlet port; 11 is the auxiliary air valve which controls the passage of air under pressure from the crank case 1 to the engine cylinder A.
The numeral 12 indicates a taper cam for controlling the admission of the crank case air to the engine cylinder approximately-at the end of the intake stroke for the purpose of augmenting or increasing the normal charge; 13 is a straight cam for the purpose of admitting the compressed air of the crank case to the engine cylinder approximately at the end of the exhaust stroke; 14 is a pin or key fixed in the cam and extending into a key-Way or slot 15 which is cut in the shaft 6, on which the cam slides. This key-way or slot 15 is deflected at one end in the form of a spiral as at 16 for the purpose of advancing or retarding the time of admission of air under pressure while the engine is in operation, the position of the cam 12 on the shaft 6, being within the control of the operator.
The idea of this invention is to be able to operate at all speeds under the most favorable power producing conditions, that is to say, the greatest obtainable volume of charge, and the example of my invention illustrated is an application to a single .cylinder engine, because that will cover all multiples, the difierence involved being that in this case the sliding taper cam shown in detail in Fig. 2 is ta ered on one side only, I
namely the side which operates with the intake, while the opposite side which operates with the exhaust for scavenging is straight and opens the valve invariably for sweeping out exhaust gases.- In this way, I eflt'ectually prevent any of the charge from blowing back through the carbureter, while at the same time deriving the full benefit of the compressed air charge not only for scavenging but also for the effective augmenting of the charge in order to operate the engine at all speedsunder the most favorable power producing conditions.
Having fully described my invention, what I claim as new. and desire to. secure by Letters Patent, is
l. In an engine, means for. introducing into the cylinder a volume of air under pressure in addition to the regular charge due to piston displacement, and means actuated by the engine for controlling or varying the time of admission of the additional air while the engine is in operation.
2. In an engine in which an additional supply of air is introduced under pressure, means actuated by the engine for controlling and varying the time of'admission of the additional air with relation to the final admission ofthe normal intake charge while the engine is in operation.
3. In an engine, the combination of a port for admitting a supply of air additional to that drawn in by the piston, and means actuated by the engine for varying the time of admission of the additional air through said port. 4. In an engine, the combination of a port for admitting a supply of air additional to that drawn in by the piston, and means actuated by the engine within the control of the operator for varying the time of admission of the additional air through said port while the engine is in operation.
5. The combination with a cylinder and piston, the cylinder having an air inlet port, of a valve for said port, actuating means for said valve, and means to adjust said actuating means to cause the valve to open at every instroke of the engine, or at every alternate instroke of the engine, and to vary the time of opening on the alternate instrokes to meet the needs as the speed of the engine varies.
6. In an engine in which compressed air is received in the cylinder for augmenting the charge, means actuated by the engine for advancing and retarding the opening of the compressed air valve in order to meet the varying demands -for speed and power by providing the greatest possible volume of charge in the cylinder at all speeds.
7. In an engine in which compressed air is received in the cylinder for both scavenging and augmenting the charge, means actuated by the engine for advancing and retarding the opening of the compressed air valve in order to meet the varying demands for speed and power by providing the greatest possible volume of charge in the cylinder at all speeds.
8. In an engine, means for introducing into the cylinder a volume of air under pressure-in addition to the regular charge due to piston displacement, and means adjusted by the operator forcontrolling or varying the time of admission of the additional air while the engine is in operation.
9. In an engine in which an additional H. C. BROOKS, Jr., EDWARD C. MAHLER.
US47944609A 1909-02-23 1909-02-23 Gas-engine. Expired - Lifetime US1012652A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
US47944609A US1012652A (en) 1909-02-23 1909-02-23 Gas-engine.

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
US47944609A US1012652A (en) 1909-02-23 1909-02-23 Gas-engine.

Publications (1)

Publication Number Publication Date
US1012652A true US1012652A (en) 1911-12-26

Family

ID=3080960

Family Applications (1)

Application Number Title Priority Date Filing Date
US47944609A Expired - Lifetime US1012652A (en) 1909-02-23 1909-02-23 Gas-engine.

Country Status (1)

Country Link
US (1) US1012652A (en)

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US3182645A (en) * 1963-07-24 1965-05-11 Ora E Wilson Internal combustion engine

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US3182645A (en) * 1963-07-24 1965-05-11 Ora E Wilson Internal combustion engine

Similar Documents

Publication Publication Date Title
US1952881A (en) Internal combustion engine
US976858A (en) Internal-combustion engine.
US3186388A (en) Feeding of air for combustion in supercharged internal combustion engines
US1781147A (en) Supercharger for internal-combustion engines
US1012652A (en) Gas-engine.
US3042012A (en) Two-stroke internal combustion engines
US785687A (en) Internal-combustion engine.
US1070139A (en) Explosive-engine.
US1199616A (en) Scavenging-valve for internal-combustion engines.
US2428199A (en) Internal-combustion engine
US1307185A (en) Charles henri claudel
US1031245A (en) Internal-combustion engine.
US1138215A (en) Air-compressor.
US1170059A (en) Internal-combustion engine.
US1014078A (en) Two-cycle engine.
US1350135A (en) Two-stroke internal-combustion engine
US1234039A (en) Explosive-engine.
US1102025A (en) Fuel-injector for explosion-engines.
US961111A (en) Two-cycle gas-engine.
US880704A (en) Gas-engine.
US2383336A (en) Two-cycle solid-fuel injection supercharged engine
US1193753A (en) bayley
US945296A (en) Gas-engine.
US1858002A (en) Two cycle engine
US858280A (en) Two-cycle gas-engine.