US1002423A - Explosive-engine. - Google Patents

Explosive-engine. Download PDF

Info

Publication number
US1002423A
US1002423A US59941410A US1910599414A US1002423A US 1002423 A US1002423 A US 1002423A US 59941410 A US59941410 A US 59941410A US 1910599414 A US1910599414 A US 1910599414A US 1002423 A US1002423 A US 1002423A
Authority
US
United States
Prior art keywords
cylinder
piston
jacket
open
explosive
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
US59941410A
Inventor
John W Meaker
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.)
Individual
Original Assignee
Individual
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 Individual filed Critical Individual
Priority to US59941410A priority Critical patent/US1002423A/en
Application granted granted Critical
Publication of US1002423A publication Critical patent/US1002423A/en
Anticipated expiration legal-status Critical
Expired - Lifetime legal-status Critical Current

Links

Images

Classifications

    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F01MACHINES OR ENGINES IN GENERAL; ENGINE PLANTS IN GENERAL; STEAM ENGINES
    • F01PCOOLING OF MACHINES OR ENGINES IN GENERAL; COOLING OF INTERNAL-COMBUSTION ENGINES
    • F01P1/00Air cooling
    • F01P1/02Arrangements for cooling cylinders or cylinder heads, e.g. ducting cooling-air from its pressure source to cylinders or along cylinders

Definitions

  • the portion of the cylinder in which the initial ignition takes place that is, the explosion end of the cylinder, be positively swept with cold air currents in order that the cylinder be cooled uniformly as the remoter portions of the wall are less highly heated and consequently are readily provided for. It is also advantageous to cool the interior of the piston to further prevent unequal expansion of the parts.
  • This invention relates to an air cooled explosive engine and more especially to means for positively forcing air against the explosion chamber wall at the point of greatest compression and also into the interior of the piston adjacent the explosion chamber.
  • Figure 1 is a view in vertical section through the cylinder and piston of an engine embodying features of the invention, showing the piston at the moment of explosion; and Fig. 2 is a view partly in elevation and partly in section at right angles to the view of Fig. 1 showing the piston at the lower endof its stroke.
  • a base 1 and crank case 2 support an open ended cylinder having a lower enlarged portion 3 and an upper portion 4 of less diameter.
  • a crank shaft 5 in the base is coupled by a connecting rod 6 and wrist pin 7 to a piston having an enlarged lower end 8 fitting the bore of the cylinder portion 8 and an upper cylindrical extension 9 reciprocable through the smaller port-ion 4 of the cylinder.
  • Sets of packing rings 10 or like devices insure tight joints between the piston and cylinder.
  • Inlet and outlet valves one of which is indicated at 11 and which are operated by any preferred form of mechanism in time relation to the piston stroke, control the admission of an explosive mixture into the annular chamber indicated at 12 which sion end of the cylinder.
  • the lower portion 3 of the cylinder has longitudinally disposed ribs or fins 13 as heat radiating members.
  • An external acket 14 is supported concentrically over the upper portion 4 of the cylinder as by a perforat-ed flange collar 15 on the cylinder, the latter having perforations indicated at 16 and the lower margins of the jacket 14 entering the intervals between the upper ends of the ribs 13 so as to form air passages arranged to direct air forced out of the jacket directly down the cylinder wall.
  • An annular flange 19 on the upper end of the piston 9 is arranged to have a sliding fit in the jacket 14.
  • a cap 20 is rotatably secured over the upper end of the jacket 14 by a flange 18 and has a depending hollow extension 21 that is arranged to enter the piston when the latter is approaching its outward limit of motion.
  • the space between this extension 21' and the piston is in communication constantly with the open air through apertures 22 in the cap 20.
  • a se ries of openings 17 are formed near the upper end of the .jacket and may be brought into register more or less completely with openings in the flange 18 by turning the cap. is a result of this construction the down stroke of the piston forces all the air between the jacket and the upper portion of the piston, first against the upper portion of the compression chamber of the cylinder and then downwardly between the cylinder radiating ribs.
  • a cylinder having an open contracted upper end, outer radiating members on the lower portions of the cylinder, a piston fitting both the cylinder and the upper end through which it extends, and a jacket over the upper end of the cylinder in sliding engagement with the upper end of the piston, having openings at its lower end adapted to direct air expelled from the jacket by the piston along the cylinder between the radiating members.
  • an open-ended cylinder a piston reciprocable therein adapted to form with the cylinder an annular explosion chamber near the upper end of the cylinder, and a jacket on the upper end of the cylinder, the upper portion of the piston extending through the upper end of the cylinder into sliding engagement with the jacket and forming therewith an annular chamber with openings adjacent the outer wall of the explosion chamber.
  • an open-ended cylinder a piston reciprocable therein adapted to form with the cylinder an annular explosion chamber near the upper end of the latter, outer radiating members on the cylinder, and a jacket supported over the upper end of the cylinder in sliding engagement with the upper end of the piston, and
  • an open-ended cylinder a piston reciprocable therein adapted to form with the cylinder an annular explosion chamber near the upper end of the latter, the piston having an open, upper enlarged end extendin above the upper ,end of the cylinder, a jac et supported on the upper end of the cylinder in slidingengagement with the upperend of the piston and.
  • an open-ended cylinder a piston reciprocable therethrough adapted to form an annular explosion chamber with the upper portion of the cylinder, and provided with an exteriorly] 'fianged open upper endexterior to the cylinder, a cylindrical jacket supported on the cylinder in sliding engagement with the upper end of the piston, and provided at its lower end with openings and radiating members on the lower portion of the cylinder.
  • an open-ended cylinder having a lower enlarged portion and an upper portion of lesser diameter, a piston whose lower portion fits the lower portion of the cylinder and whose open-ended upper portion extends through the open end of the upper portion of the cylinder, a jacket supported concentrically over the upper end of the cylinder, and a flange on the upper end of the piston fitting the jacket, the lower end of the jacket having discharge outlets arranged to direct air expelled from the jacket by the piston along the outside of the cylinder. 7
  • an open-ended cylinder having a lower enlarged portion and an upper portion of lesser inner diameter, radiating members on the outside of the lower portion, a cylindrical jacket supported concentrically over the upper portion of the cylinder and arranged with openings at its lower ends between the radiating members of the cylinder, a piston whose lower portion fits the lower portion of the cylinder and whose open-ended upper portion is reciprocable through the contracted portion of the cylinder, and a flange on the upper end of the piston in sliding engagement with the acket.
  • an open-ended cylinder having a lower enlarged portion and an upper portion of lesser inner diameter, radiating members on the outside of the lower portion, a cylindrical jacket supported concentrically over the upper portion of the cylinder and arranged with openings at its lower end between the radiating members of the cylinder, a piston whose lower portion fits the lower portion of the cylinder and whose open-ended upper portion is recipro- 11 cable through the contracted portion of the cylinder, a flange on the upper end of the piston in sliding engagement with the jacket, and a cap closing the upper end of the jacket and having a center portion extending into the top of the piston.
  • an open-ended cylinder having a lower enlarged portion and an upper portion of lesser inner di- 2 ameter, radiating members on the outside of 129 the lower portion, a jacket secured concentrically over the upper portion with its lower end contacting with the radiating members and having openings in register with the spaces between the radiating mema depending extension on the cap entering the body of the piston and an annular slide on the jacket adapted to control inlet openings near the upper end thereof.
  • an open-ended cylinder having a lower enlarged portion and an upper portion of lesser inner diaineter, radiating members on the outside of the lower portion of the cylinder, a perforated collar encircling the upper portion of the cylinder adjacent the upper ends of the radiating members, a cylindrical jacket secured by the collar over the upper end of the cylinder with its lower marginal portion contacting with the radiating members, a cap closing the upper end of the jacket and and having a depending central extension and inlet openings around the upper end of the extension, a piston whose lower portion fits the lower portion of the cylinder and whose upper open-ended portion is reciprocable through the upper portion of the cylinder and around the cap extension, a flange on the upper end of the piston fitting the jacket, and an annular flange on the cap having openings adapted to be brought into register With inlet openings through the jacket near the upper end thereof by turning the cap. is

Description

J. W. MEAKER.
EXPLOSIVE ENGINE.
APPLICATION FILED 11110. 27,1910.
1,002,423. Patented Sept. 5,1911.
2 SHEETS-SHEET 1.
l7 QQ n 1010 Z nil 0&1 awe M 04 J? 6W] 7/6 f fl; WV. ZZea/ en a Ofl/SM &
COLUMBIA FLANOGRAPH c0., WASHINGTON D c J. W. MEAKER. EXPLOSIVE ENGINE.
1 APPLIOATION FILED DEC. 27, 1910.
Patented Spt. 5, 1911.
COLUMBIA PLANOGRAPH 50-, WASHINGTON, D. c.
JOHN W. MEAKER, OF DETROIT, MICHIGAN.
EXPLOSIVE-ENGINE.
Specification of Letters Patent.
Application filed December 27, 1910.
Patented Sept. 5, 1911'. Serial No. 599,414.
To all whom it may concern:
Be it known that 1, JOHN W. MEAKER, a citizen of the United States of America, residing at Detroit, in the county of Wayne and State of Michigan, have invented certain new and useful Improvements in Explosive-Engines, of which the following is a specification, reference being had therein to the accompanying drawings.
In the operation of explosive engines using air cooled cylinders, it is desirable that the portion of the cylinder in which the initial ignition takes place, that is, the explosion end of the cylinder, be positively swept with cold air currents in order that the cylinder be cooled uniformly as the remoter portions of the wall are less highly heated and consequently are readily provided for. It is also advantageous to cool the interior of the piston to further prevent unequal expansion of the parts.
This invention relates to an air cooled explosive engine and more especially to means for positively forcing air against the explosion chamber wall at the point of greatest compression and also into the interior of the piston adjacent the explosion chamber.
The invention consists in the matters hereinafter set forth, and more particularly pointed out in the appended claims.
In the drawings, Figure 1 is a view in vertical section through the cylinder and piston of an engine embodying features of the invention, showing the piston at the moment of explosion; and Fig. 2 is a view partly in elevation and partly in section at right angles to the view of Fig. 1 showing the piston at the lower endof its stroke.
As herein indicated, a base 1 and crank case 2 support an open ended cylinder having a lower enlarged portion 3 and an upper portion 4 of less diameter. A crank shaft 5 in the base is coupled by a connecting rod 6 and wrist pin 7 to a piston having an enlarged lower end 8 fitting the bore of the cylinder portion 8 and an upper cylindrical extension 9 reciprocable through the smaller port-ion 4 of the cylinder. Sets of packing rings 10 or like devices insure tight joints between the piston and cylinder. Inlet and outlet valves, one of which is indicated at 11 and which are operated by any preferred form of mechanism in time relation to the piston stroke, control the admission of an explosive mixture into the annular chamber indicated at 12 which sion end of the cylinder.
The lower portion 3 of the cylinder has longitudinally disposed ribs or fins 13 as heat radiating members. An external acket 14 is supported concentrically over the upper portion 4 of the cylinder as by a perforat-ed flange collar 15 on the cylinder, the latter having perforations indicated at 16 and the lower margins of the jacket 14 entering the intervals between the upper ends of the ribs 13 so as to form air passages arranged to direct air forced out of the jacket directly down the cylinder wall. An annular flange 19 on the upper end of the piston 9 is arranged to have a sliding fit in the jacket 14. A cap 20 is rotatably secured over the upper end of the jacket 14 by a flange 18 and has a depending hollow extension 21 that is arranged to enter the piston when the latter is approaching its outward limit of motion. The space between this extension 21' and the piston is in communication constantly with the open air through apertures 22 in the cap 20. A se ries of openings 17 are formed near the upper end of the .jacket and may be brought into register more or less completely with openings in the flange 18 by turning the cap. is a result of this construction the down stroke of the piston forces all the air between the jacket and the upper portion of the piston, first against the upper portion of the compression chamber of the cylinder and then downwardly between the cylinder radiating ribs. At the same time air has been drawn into the space between the end of the jacket and the interior of the piston and this is expelled on the piston upstroke while at the same time the fresh supply of air is drawn into the jacket. As a result fresh currents of cooled air are projected first against the compression end of the cylinder and then toward the cooler portions while at the same time the interior wall of the piston adjacent the compression end is thoroughly cooled by ingress of air thereto. The motion of the air is positive and as a result the cylinder is kept at an even temperature.
Obviously, changes in the details of construction may be made without departing from the spirit of the invention and I do not wish to limit myself to any particular form or arrangement of parts.
forms the compres- 4 the cylinder.
2. In an explosive engine, a cylinder having an open contracted upper end, outer radiating members on the lower portions of the cylinder, a piston fitting both the cylinder and the upper end through which it extends, and a jacket over the upper end of the cylinder in sliding engagement with the upper end of the piston, having openings at its lower end adapted to direct air expelled from the jacket by the piston along the cylinder between the radiating members.
3. In an explosive engine, an open-ended cylinder, a piston reciprocable therein adapted to form with the cylinder an annular explosion chamber near the upper end of the cylinder, and a jacket on the upper end of the cylinder, the upper portion of the piston extending through the upper end of the cylinder into sliding engagement with the jacket and forming therewith an annular chamber with openings adjacent the outer wall of the explosion chamber.
4. In an explosive engine, an open-ended cylinder, a piston reciprocable therein adapted to form with the cylinder an annular explosion chamber near the upper end of the latter, outer radiating members on the cylinder, and a jacket supported over the upper end of the cylinder in sliding engagement with the upper end of the piston, and
directing air expelled from the jacket by provided with openings adapted to direct air expelled therethrough by the piston along the radiating members.
5. In an explosive engine, an open-ended cylinder, a piston reciprocable therein adapted to form with the cylinder an annular explosion chamber near the upper end of the latter, the piston having an open, upper enlarged end extendin above the upper ,end of the cylinder, a jac et supported on the upper end of the cylinder in slidingengagement with the upperend of the piston and.
provided with openings at its lower end the pistonagainst and along the outside of the cylinder and a cap [on the upper end of v the jacket provided with a depending extension entering the upper end of'the piston.
6. In anexplosive engine, an open-ended cylinder, a piston reciprocable therethrough adapted to form an annular explosion chamber with the upper portion of the cylinder, and provided with an exteriorly] 'fianged open upper endexterior to the cylinder, a cylindrical jacket supported on the cylinder in sliding engagement with the upper end of the piston, and provided at its lower end with openings and radiating members on the lower portion of the cylinder.
7. In an explosive engine, an open-ended cylinder having a lower enlarged portion and an upper portion of lesser diameter, a piston whose lower portion fits the lower portion of the cylinder and whose open-ended upper portion extends through the open end of the upper portion of the cylinder, a jacket supported concentrically over the upper end of the cylinder, and a flange on the upper end of the piston fitting the jacket, the lower end of the jacket having discharge outlets arranged to direct air expelled from the jacket by the piston along the outside of the cylinder. 7
8. In an explosive engine, an open-ended cylinder having a lower enlarged portion and an upper portion of lesser inner diameter, radiating members on the outside of the lower portion, a cylindrical jacket supported concentrically over the upper portion of the cylinder and arranged with openings at its lower ends between the radiating members of the cylinder, a piston whose lower portion fits the lower portion of the cylinder and whose open-ended upper portion is reciprocable through the contracted portion of the cylinder, and a flange on the upper end of the piston in sliding engagement with the acket.
9. In an explosive engine, an open-ended cylinder having a lower enlarged portion and an upper portion of lesser inner diameter, radiating members on the outside of the lower portion, a cylindrical jacket supported concentrically over the upper portion of the cylinder and arranged with openings at its lower end between the radiating members of the cylinder, a piston whose lower portion fits the lower portion of the cylinder and whose open-ended upper portion is recipro- 11 cable through the contracted portion of the cylinder, a flange on the upper end of the piston in sliding engagement with the jacket, and a cap closing the upper end of the jacket and having a center portion extending into the top of the piston.
10. In an explosive engine an open-ended cylinder having a lower enlarged portion and an upper portion of lesser inner di- 2 ameter, radiating members on the outside of 129 the lower portion, a jacket secured concentrically over the upper portion with its lower end contacting with the radiating members and having openings in register with the spaces between the radiating mema depending extension on the cap entering the body of the piston and an annular slide on the jacket adapted to control inlet openings near the upper end thereof.
11. In an explosive engine, an open-ended cylinder having a lower enlarged portion and an upper portion of lesser inner diaineter, radiating members on the outside of the lower portion of the cylinder, a perforated collar encircling the upper portion of the cylinder adjacent the upper ends of the radiating members, a cylindrical jacket secured by the collar over the upper end of the cylinder with its lower marginal portion contacting with the radiating members, a cap closing the upper end of the jacket and and having a depending central extension and inlet openings around the upper end of the extension, a piston whose lower portion fits the lower portion of the cylinder and whose upper open-ended portion is reciprocable through the upper portion of the cylinder and around the cap extension, a flange on the upper end of the piston fitting the jacket, and an annular flange on the cap having openings adapted to be brought into register With inlet openings through the jacket near the upper end thereof by turning the cap. is
In testimony whereof I aifix my signature in presence of two witnesses.
C. R. STIOKNEY, ANNA C. RAVILER.
Copies of this patent may be obtained for five cents each, by addressing the Commissioner of Patents, Washington, D. C.
US59941410A 1910-12-27 1910-12-27 Explosive-engine. Expired - Lifetime US1002423A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
US59941410A US1002423A (en) 1910-12-27 1910-12-27 Explosive-engine.

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
US59941410A US1002423A (en) 1910-12-27 1910-12-27 Explosive-engine.

Publications (1)

Publication Number Publication Date
US1002423A true US1002423A (en) 1911-09-05

Family

ID=3070743

Family Applications (1)

Application Number Title Priority Date Filing Date
US59941410A Expired - Lifetime US1002423A (en) 1910-12-27 1910-12-27 Explosive-engine.

Country Status (1)

Country Link
US (1) US1002423A (en)

Similar Documents

Publication Publication Date Title
US1002423A (en) Explosive-engine.
US1746728A (en) Internal-combustion engine
US1363708A (en) Internal-combustion engine
US1015502A (en) Explosive-engine.
US2383648A (en) Internal-combustion engine
US966032A (en) Hot-air motor.
US1183904A (en) Internal-combustion engine.
US1096211A (en) Explosive-engine.
US1674832A (en) Construction and mounting of the cylinder of a double-acting two-acting two-stroke motor
US942140A (en) Explosive-engine.
US1456144A (en) Gas-engine valve
US909531A (en) Internal-combustion engine.
US531182A (en) Combustible-vapor engine
US1270295A (en) Internal-combustion engine.
US1341367A (en) Internal-combustion engine
US722787A (en) Gas-engine.
US1006989A (en) Gas-engine.
US1764329A (en) Two-cycle valveless internal-combustion engine
US751802A (en) Device for cooling piston-rods
US1438915A (en) Internal-combustion engine
US1064581A (en) Means for cooling combustion-engines.
US1097475A (en) Explosive-engine.
US652724A (en) Gas-engine.
US1042947A (en) Explosive-engine.
US1053013A (en) Internal-combustion engine.