US1727047A - Aeroplane - Google Patents

Aeroplane Download PDF

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Publication number
US1727047A
US1727047A US264409A US26440928A US1727047A US 1727047 A US1727047 A US 1727047A US 264409 A US264409 A US 264409A US 26440928 A US26440928 A US 26440928A US 1727047 A US1727047 A US 1727047A
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plane
aeroplane
fuselage
tail
wings
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US264409A
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Edward M Burchell
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    • BPERFORMING OPERATIONS; TRANSPORTING
    • B64AIRCRAFT; AVIATION; COSMONAUTICS
    • B64CAEROPLANES; HELICOPTERS
    • B64C13/00Control systems or transmitting systems for actuating flying-control surfaces, lift-increasing flaps, air brakes, or spoilers

Definitions

  • the ends of the bar 4 It is one obj ect of the invention to provide an aeroplane that has a large measure of inherent stability whereby to relieve the operator as much as possible of the incessant watchfulness ordinarily required and maintain a perfect equilibrium under varying conditions.
  • Figure 1 is a perspective illustration showing my improved construction.
  • Figure 2 is a sectional view on 22, Figure 1.
  • Figure 3 is a sectional view on 3-3, Figs ⁇ ure 1.
  • Figure 1 is a view on line 4.4, Figure 1.
  • Figure 5 is a view on line 5-5, Figure 1.
  • Figure 6 is a perspective of the control lever and its mounting.
  • Figure 7 is a perspective View of a portion of the aeroplane showing the mounting of the tail plane.
  • Figure 8 is a detail of the control lever.
  • I show at 1 a fuselage of any suitable type and preferably with propellers as 2 located at the rear thereof.
  • a frame 3 Erected upon the fuselage 1 as an integral part thereof is a frame 3 including a cross top bar 4 and a cross bar 5 positioned directly under bar 4. Mounted upon the bars 4 and 5 and extending upwardly a distance beyond the frame 3 is an arm 6. The arm 6 is positioned midway the length of bars 4 and 5 and the whole frame is so positioned relative to the fuselage 1 that if the arm 6 were extended downwardly it would pass substantially through the center of gravity of form pivot pins at 7 and 8 respectively.
  • a framework 9 is shown having pivotal connection with the cross bar 4 at 7 and 8, this frame extending forwardly and rearwardly of the bar and carrying a central supporting plane 10.
  • a relative rocking movement may be set up between the fuselage l and plane 10.
  • this movement or pivotal adjustment is secured through the medium of cables 11 and 12 connected to the front and rear ends of the plane 10 and passing into the fuselage over sheaves 13 and 14 and thence to the lower curved edge 15 of a lever 16 fulcrumed at 17 on suitable supports 18.
  • any shifting of the lever will impart a movement to the plane whereby it may be quickly moved into any desirable angle relative to the plane of the fuselage.
  • At 19 and 20 I show laterally extending wings pivotally connected at their inner ends to the plane 10 as shown at 21 and 22. This connection causes these wings tochange their angles of incidence simultaneously with the plane 10 and to the same degree, but permits them to be swung about axes lying in the plane of plane 10.
  • At 23 and 24 are shown cables connected at their ends to the wings 19 and 20 a distance from their pivotal mountings and slidably engaging upstanding posts 25 on frame 9, these cables serving as supports for the wings and as means for securing proper relative movements between them.
  • At 26 and 27 are cables attached to the under sides of the wings 19 and 20 at points spaced equally distant from their pivotal points and passing downwardly into fuselage 1 and over sheaves 28 and 29 and thence upwardly through conduits 3031 in the handle portion of lever 16 and around a sheave 32 as shown. Rotation of sheave 32 will obviously move wings 19 and 20 equally and in opposite directions.
  • a tail plane pivotally mounted upon a bar 34 as at 35, and this bar is in turn mounted upon a shaft 36 with which it turns.
  • the shaft 36 is revolubly mounted in frame 9 at 37 and 38 and is fitted withan operating lever 39 on its inner end.
  • the lever 39 extends upwardly a distance and is connected to the cable 23 so that a movement of the cable 23 will cause a rotating movement of the shaft 36 with consequent lateral deflection of the tail plane 33.
  • a cable 40 extends from the a downwardly extending support 43 at the rear end of frame 9 and to the frame .3.
  • the tail plane is also pivotally adjusted to an angle corresponding to that assumed by the wings l9 and
  • the parts are so arranged that a gust of air striking the plane from below and in front tends to force it upwardly and backwardly thereby making it become tail heavy and threatening to throw it into a tail spin.
  • the result is different; The whole structure is light and flexible'with the load properly positioned relative to the planes, and the planes and wings are instantly swung into a new position to meet the changed air current and the plane rides or volplanes forwardly on the rising air current without, perhaps, materially changing its formal level.
  • This illustration may be elaborated upon to show that frame mounted thereon and extending thereabove, a plane overlying the fuselage and pivotally mounted on the frame, a tail plane pivotally mounted on thefirst plane on an axis lying transverselythereof and also upon an axis coinciding'with the longitudinal axis of the first plane, laterally extending wing planes pivotally mounted on the first plane,
  • An aeroplane including a plane, a fuselage suspended therefrom, a pivotal connection between the plane and fuselage, opposite.
  • zly extending wings pivotally mounted on the plane and normally supported in the plane thereof, a tail plane pivotally mounted on the first plane and normally lying in the plane thereof, a control, control operated means for placing the first plane and tail plane in angular relation to each other, control operated means for moving the wings and first plane into angular relatlon to each other, and means act-uatedby movement of the wings for maintaining the tail plane in a planeparallel with the wing planes.
  • An aeroplane including a plane, a

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  • Engineering & Computer Science (AREA)
  • Automation & Control Theory (AREA)
  • Aviation & Aerospace Engineering (AREA)
  • Toys (AREA)

Description

T244. AERONAUTICS 7 Sept. 3', 1929.
Filed March 24, 1928 5 Sheets-Sheet 2 1' 244. AERONAUTICS LEV-K7" fa i313 Sept. 3, 1929. E. M. BURCHELL AEROPLANE (Filed March 24, 1928 3 Sheets$heet 3 Q QNNNNNQKEN I I EVE/V2 01? %4 ATTORH E y ?;44. AERONAUTlCS Patented Sept. 3, 1929.
UNITED STATES srafismaa EDWARD M. BURCHELL, OF SAN JOSE, CALIFORNIA.
AEROPLANE.
Application filed March 24, 1928. Serial No. 264,409.
the said fuselage. The ends of the bar 4 It is one obj ect of the invention to provide an aeroplane that has a large measure of inherent stability whereby to relieve the operator as much as possible of the incessant watchfulness ordinarily required and maintain a perfect equilibrium under varying conditions.
It is another ob 'ect of the invention, to provide a simple, novel and highly efficient controlling means for an aeroplane of the character indicated.
It is also an object of the invention to provide a simple control for an aeroplane of the character indicated that is highly and instantly effective whenever applied, and one that will be sensitive to angular adjustments and speed effects whereby to keep the operator constantly informed when a dangerous angle or speed has been reached.
It is a still further object to provide an aeroplane of the character indicated that will be simple in form and construction, economical to manufacture, positive in action and control, and highly eflicient in its practical application.
In the drawing:
Figure 1 is a perspective illustration showing my improved construction.
Figure 2 is a sectional view on 22, Figure 1.
Figure 3 is a sectional view on 3-3, Figs} ure 1.
Figure 1 is a view on line 4.4, Figure 1.
Figure 5 is a view on line 5-5, Figure 1.
Figure 6 is a perspective of the control lever and its mounting.
Figure 7 is a perspective View of a portion of the aeroplane showing the mounting of the tail plane.
Figure 8 is a detail of the control lever.
Referring now more particularly to the drawing, I show at 1 a fuselage of any suitable type and preferably with propellers as 2 located at the rear thereof.
Erected upon the fuselage 1 as an integral part thereof is a frame 3 including a cross top bar 4 and a cross bar 5 positioned directly under bar 4. Mounted upon the bars 4 and 5 and extending upwardly a distance beyond the frame 3 is an arm 6. The arm 6 is positioned midway the length of bars 4 and 5 and the whole frame is so positioned relative to the fuselage 1 that if the arm 6 were extended downwardly it would pass substantially through the center of gravity of form pivot pins at 7 and 8 respectively.
A framework 9 is shown having pivotal connection with the cross bar 4 at 7 and 8, this frame extending forwardly and rearwardly of the bar and carrying a central supporting plane 10. By means of this construction a relative rocking movement may be set up between the fuselage l and plane 10. In the present instance this movement or pivotal adjustment is secured through the medium of cables 11 and 12 connected to the front and rear ends of the plane 10 and passing into the fuselage over sheaves 13 and 14 and thence to the lower curved edge 15 of a lever 16 fulcrumed at 17 on suitable supports 18. Obviously, any shifting of the lever will impart a movement to the plane whereby it may be quickly moved into any desirable angle relative to the plane of the fuselage.
At 19 and 20 I show laterally extending wings pivotally connected at their inner ends to the plane 10 as shown at 21 and 22. This connection causes these wings tochange their angles of incidence simultaneously with the plane 10 and to the same degree, but permits them to be swung about axes lying in the plane of plane 10. At 23 and 24 are shown cables connected at their ends to the wings 19 and 20 a distance from their pivotal mountings and slidably engaging upstanding posts 25 on frame 9, these cables serving as supports for the wings and as means for securing proper relative movements between them. At 26 and 27 are cables attached to the under sides of the wings 19 and 20 at points spaced equally distant from their pivotal points and passing downwardly into fuselage 1 and over sheaves 28 and 29 and thence upwardly through conduits 3031 in the handle portion of lever 16 and around a sheave 32 as shown. Rotation of sheave 32 will obviously move wings 19 and 20 equally and in opposite directions.
At 33 I show a tail plane pivotally mounted upon a bar 34 as at 35, and this bar is in turn mounted upon a shaft 36 with which it turns. The shaft 36 is revolubly mounted in frame 9 at 37 and 38 and is fitted withan operating lever 39 on its inner end. The lever 39 extends upwardly a distance and is connected to the cable 23 so that a movement of the cable 23 will cause a rotating movement of the shaft 36 with consequent lateral deflection of the tail plane 33. A cable 40 extends from the a downwardly extending support 43 at the rear end of frame 9 and to the frame .3. By
means of'these cables 4.0 and 42 the tail plane is swung about its pivotal mounting 35 whenever the plane 10 is pivotally adjusted relative to fuselage 1; Guy wires are indicated at l3y means of the construction above described an inherently stable aeroplane is provided, and one that is under complete control from a single operating lever. The stability is secured through the relative arrangement .of the load and the supporting planes and the mode of operation of the several supporting planes relative to each other and to the load.
Operation of the sheave'33 in one direction swings one wing upwardly and the other downwardly, while a movement of the sheave in the opposite direction reverses the movement of the wings. Throwing 'thelever'16 forwardly draws'the nose of the fuselage and the front end of the plane 10 toward each other thereby changing the angle ofinoidenc'e of the plane 10 and wings 19 and 20 and at the same time swinging the tail plane33 downwardly. Throwing thelever in the opposite direction will have the reverse effect of tilting the plane lOupwardly and at the same time swing the tail plane upwardly. Through the medium of parts 36 and39 the tail plane is also pivotally adjusted to an angle corresponding to that assumed by the wings l9 and In the case of the usualform of aeroplane it is so heavily loaded and so rigidly constructed, and the parts are so arranged that a gust of air striking the plane from below and in front tends to force it upwardly and backwardly thereby making it become tail heavy and threatening to throw it into a tail spin. In'myimproved form of aeroplane the result is different; The whole structure is light and flexible'with the load properly positioned relative to the planes, and the planes and wings are instantly swung into a new position to meet the changed air current and the plane rides or volplanes forwardly on the rising air current without, perhaps, materially changing its formal level. This illustration may be elaborated upon to show that frame mounted thereon and extending thereabove, a plane overlying the fuselage and pivotally mounted on the frame, a tail plane pivotally mounted on thefirst plane on an axis lying transverselythereof and also upon an axis coinciding'with the longitudinal axis of the first plane, laterally extending wing planes pivotally mounted on the first plane,
cooperativemeans for simultaneously mov- I "ing-the first plane and tail plane through equal arcs in opposite directions, and cooperative means for moving the wing planes and tail plane through equal arcs in the same direction.
2. An aeroplane including a plane, a fuselage suspended therefrom, a pivotal connection between the plane and fuselage, opposite.-
zly extending wings pivotally mounted on the plane and normally supported in the plane thereof, a tail plane pivotally mounted on the first plane and normally lying in the plane thereof, a control, control operated means for placing the first plane and tail plane in angular relation to each other, control operated means for moving the wings and first plane into angular relatlon to each other, and means act-uatedby movement of the wings for maintaining the tail plane in a planeparallel with the wing planes.
3. An aeroplane including a plane, a
fuselage suspended therefrom, a pivotal connection between the plane'and fuselage, oppositely extending wings mounted on the plane, and a tail plane pivotally mounted on the first plane and on an axis lying transversely thereof and also upon an axis at right angles to the first axis, and means for controlling the pivotal movements of the first plane and the tail plane.
EDWARD M. BURCHELL.
US264409A 1928-03-24 1928-03-24 Aeroplane Expired - Lifetime US1727047A (en)

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Application Number Priority Date Filing Date Title
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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US3614032A (en) * 1969-04-28 1971-10-19 Thomas H Purcell Jr Aircraft

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US3614032A (en) * 1969-04-28 1971-10-19 Thomas H Purcell Jr Aircraft

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