US987439A - Balancing-gear for airships. - Google Patents

Balancing-gear for airships. Download PDF

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US987439A
US987439A US56182810A US1910561828A US987439A US 987439 A US987439 A US 987439A US 56182810 A US56182810 A US 56182810A US 1910561828 A US1910561828 A US 1910561828A US 987439 A US987439 A US 987439A
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lever
rudder
ailerons
block
mast
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US56182810A
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Harold Mason De Graw
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    • BPERFORMING OPERATIONS; TRANSPORTING
    • B64AIRCRAFT; AVIATION; COSMONAUTICS
    • B64CAEROPLANES; HELICOPTERS
    • B64C17/00Aircraft stabilisation not otherwise provided for

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  • FIG. 1 is a perspective View of an aeroplane of the monoplane type, constructed and arranged in accordance with the present invention
  • Fig-'2' is a top plan view of the same, the plane being broken and contracted to show'the ailerons mounted on the ends thereof
  • Fig. 3 is a side elevation of the same
  • F ig'. 4 is adetail View on an enlarged scale and in side elevation, showing the steering mast and aileron adjusting devices connected therewith
  • Fig. 5' is a top plan view of the detail illustrated in Fig.4
  • Fig; 6 is a detail view on an enlarged scale, and in vertical section taken on the line 6 -6 in Fig. 5,
  • FIG. 7 is a detail view in horizontal section taken on the line 7- -7 in Fig. 4, showing on an enlarged scale the .construction and arrangement of the operating mechanism for shifting the floating pivot for regulating the adjustment of the pivots
  • Fig. 8 is a detail view on an enlarged scale, and in horizontal section taken on the line' 8-8 in Fig. 4, showing in plan the up er end of the vertical rack forming part of the shifting mechanism for the fioating pivot
  • FIG. 9 illustrates the disposition of the said parts in making a turn to the left, with the ad justment set as in Fig. 9;
  • Fig. 11 illustrates the disposition of the same parts when making a turn to the right, the parts being adjusted as in the former two figures; and
  • the present embodiment of theinvention employs a car body, the main structure whereof is triangular in cross section, longirtudlnal braces l3, 13 being cross braced by rods 14, 14, as in the usual aeroplane construction.
  • the preferred form of the frame is that wherein the base of the triangle is disposed in lowest position, and the braces 13, 13 thereof are converged at the rear upon a tiller. post- 15.
  • the tiller post 15 is vertical in arrangement, as shown, and has pivotally connected therewith by loops 16 ,a
  • the main body of, the machine is elongated, as shown in the drawings, and supports in suitable arrangement a motor 18, and a bearing standard 19 for the shaft 20 of the propeller 21. Any suitable construction for the parts mentioned may be adopted.
  • the aviato-rs carriage or basket Suspended from a central shaft22 is the aviato-rs carriage or basket, This is triangular in shape, and of openconstruction similar tot-hat of the main body.
  • Longitudinal braces 23, 23 of the said carriage are connected at the ends'by cross braces 24, 24, and by a middle brace 25.
  • the avi-ators seat 26 Between the mid dle brace-andthe'rear brace 24 is placed the avi-ators seat 26, having a vertical back 27.
  • the carriage is pivotally mounted upon the upper structure, and is controlled in the swing therefrom by piston rods 28, 28 and ()n the nvintors carriage, and inronveuient position for the aviators control, are placed a wheel post 30 for varying the rudder to steer the machine, and a lever 31 for varying the adjustment of the ailerons or extent of the warp of wing flexure, if planes permitting the warp or flexure control he used.
  • the lever 31 is maintained in set position by a quadrant 32, secured in position upon one of the braces 23 forming the struc ture of the lower frame. It is by the operation of a steering wheel 33 and the lever 31 that the aviator contr'ols the flight of the machine. The starting or stopping of the;
  • motor 18 is by means of the employment of any suitable'and well known contrivance.
  • the machine is provided with ground traction wheels 34, 34. Theseare mounted on the ends of vertical legs 35, 35, as shown in Fig. l of the drawings.
  • the wheels 34,- 34 serve the same purpose and in substantially the same manner, as the wheel carriers of all accepted types of aeroplanes.
  • the present inventio consists primarily in the method of control, and meflw-nism' for effecting the same, whereby the aeroplanes or ends of the main planes, are disposed to produce lifting or depressing effects.
  • the mechanism herein shown is best adapted to the use of ailerons 36, 36. These consist in the somewhat narrow elongated strips having an independent structure, and pivoted at 3T, 37 to the main lateral brace forming the forward edge of the levitation planes 38, 38.'
  • the planes 38,38 are slightly uptilted from their connection with the central brace 13 of the body structure of the machine, and extended laterally therefrom. The lateral extension and the longitudinal dimension of the planes are formed according to the design of the constructor.
  • the bracing whereby the structure is prevented from collapsing varies according to the design of the architect constructing the same, and this, to prevent ,confusion, has been omitted in the present illustration and description. Suffice it at this time to say that the planes 38, 38 are of sufficient area to carry the load for which the machine is calculated, and are properly placed to prevent collapsing or flexing from the plane of operation for which they are .de-. signed.
  • the rods 39, 39 have mounted on the upper and lower ends thereof pulleys 40, 40, over which are passed operating cables 41, 41 and 42.
  • the cables 41, 41 are each secured toan anchor block 43, and to the rea end of each of the ailerons 36.
  • the cable 42 is passed around the lower pulleys 40, 40 and connected to the rear end of the ailerons 36, 36 at the same point.
  • the cable 42 is stretched directly between the lower pulleys 40, 40 and the ailerons, serving merely as a balancing or return cable.
  • anchor block 43 is rigidlymounted on a bar 46.
  • a sleeve 44 isprovided with a flange 45 to form fastening .holds for the ends of the cables 41, 41.
  • he sleeve 44 is slidably mounted upon the pivoted bar 46.
  • a spiral spring 48 Between a collar '47 fixedly mounted on the said bar 46, and the sleeve 44, there is interposed a spiral spring 48, the operation of which is to extend the sleeve 44 carrying the block 43, and thereby automatically take up any slack in either or bothof the cables 41, 41.
  • the bar 46 is pivoted upon a bolt. 49 extended from a slide block 50. vThe bar 46 is extended. forward from the pivot bolt 49,
  • rockingarm 54 is securely mounted upon the shaft 22 and at the inner end thereof.
  • the shaft 22 is fixedly attached to the aviatorsjcarriage by triangularly disposed braces 55, 55.
  • the result of this action is to' elevate the rear end of the one aileron 36 on the one plane 38, while depressing in equal degree the rear end of the aileron 36 I on the opposite plane 38.
  • the operation of the ailerons is proportioned in their angularity to the plane of flight of the machine.
  • the base of the angular plane of the aileriins is the pivot 37, and the peak of the said ailerons is the rear end thereof.
  • the mechanism is constructed and arranged so that when the planes 38, 38, for be uptilted on. one side to change the angle relative to the aviators carriage, the aileron on the highest side is lifted at the rear end to form a downward inclination to produce a top or diving pressure.
  • the cables 51, 51 are anchored upon a flange 56 of the sleeve 57, at the end wherethe fact that the ailerons, being thus set,
  • sleeve 57 is in all respects similar to the construction of the 'sleeve 44 and the parts connected therewith.
  • the sleeve 57 at the forward end of the bar 46, is connected to 'a' spiral spring 60, which in turn is anchored to a collar 61.
  • Ailerons, plane sections and tips have heretofore been operated by connections with a swinging aviators carriage. These connections have heretofore been automatic and set.
  • a serious disadvantage in. the operation of flying machines has resulted from the control exercised thereby has not been proportioned to variation in wing pressures due to head winds, or to variation in speed of flight. This disadvantage may easily be appreciated when, by way of illustration, it is seen that a deflection which would operate'with sufiicient speed when a machine is traveling at twenty miles an hour would prove excessive for a machine traveling at the rate of sixtymiles an hour.
  • the extent of the deflection of the ailerons is regulated and controlled by the aviator to meet the varying needs of the condition of flight.
  • a quadrant 108 is provided to hold the lever 106 in set position.
  • the sliding block 104 is moved down on the arm 54, thereby proportionately shortening the length of the are over which the block 104 is carried.
  • the length of the path of the block 104 controls the amount of movement of the cables 51, 51, and the bar 46 connected therewith.
  • the aviator desires to shorten the movements of the ailerons in their vertical dis placement, by lifting the lever 106 he depresses the block 104, and thereby limits the movement of the bar 46 and the rise and fall of the ailerons 36, 36. It will be seen that by the operation of this mechanism the aviator has perfect control of the deflection of the ailerons when in directflight, accommodating the sanne to the speed of flight, and to variable or high wind pressures.
  • the block 50 carrying the pivotbolt 49 and the bar 46, is slidably mounted in a runway formed by tracks 62, 62.
  • The'tracks 62, 62 are formed in cross section substantially as shown in Fig. 6, and are suspended in bracket arms 63, 63 of a head 64.
  • the head 64 is bolted at 65 to a controlling mast 66.
  • the tracks 62 are united by framing headers 67 and 68, the latter being arched to permit .the passage therethrough of a lever arm 69.
  • the arm 69 is connected by means of a link 70 to the block 50, and is utilized for shifting the said block 50.
  • the link 70 is formed of a length adapted to extend the block 50 to the. rear of the tracks 62, when the said arm 69 is stopped against the cross framing 71 of the machine.
  • the framing 71 is provided with a bushing bearing 72 in'which the mast 66 is rotated. A.
  • the frames 71 and 73 are suitably secured to the braces of the up" v per body fram e.
  • cross framing 73 is provided at the bottom constructed and arranged concentrically with the pivot -;87 is aquadrant 88, whereby- 4.0
  • a bracket 76 which is provided with a tubular extension 77, provided to pass the mast 66 for adjustment thereon.
  • the bracket 76 is fixed in position on the mast 66 by a set screw 78.
  • Set out from the extension 77 is a: shoulder 79, which forms a guide for the operation of a rack bar 80.
  • the rack bar 80 is provided with a flange 81, which extends behind, and is held in guided relation with a guide flange 82 formed on the bracket 76 opposite the shoulder 79.
  • the flanges 81 and 82 are sufliciently lengthened and closely nested to prevent the separation of the bracket structure and the rack structure.
  • the rack 80 is provided with a series of gear teeth 83, which are normally engaged by the gear teeth of a sector 84:.
  • the sector 84 is fixedly mounted on the end of the shaft 7 5, as seen in Fig. 7 of the drawings.
  • At the upper end of the rack bar 80 it is provided with a collar 85, which encompasses the mast 66, as shown in Figz'8 of the drawings.
  • the rack 80 is reciprocated vertically on themast 66, and is guided in its reciprocation by the interlocking of the flanges 81 and 82 on the bracket 76, and by the collar 85 at the top of the said rack.
  • the lever 86. is held in setposition.
  • the rack 80 and lever 86 are connected by means of cables 89 and j90, both of which are reeved over pulleys 91, 91,92 and 93. and the former of to the lever 86 at'95, anchored to the said lethe lever 86.
  • the cable 90 is connected with the lower end of the rack 80, being guided from within the mast.66 by twisted pulleys 97, 97. Both-of the cables 89 and 90 are converged below the mast 66, and extended upward therethrough, the former passing to the top where'it is reeved over the pulley 93, while the latter is carried but a short distance within the mast and led therefrom over the pulleys 97, 97.
  • the aviator may, from the seat 26, by moving the lever 86, operate the cables 89 and 90 to lift the rack 80.
  • the rack 80 in rising, rotates upconnectin ropes 103,
  • the machine is steered by the aviator from the seat 26 by means of the steering wheel 33, and a winding block 98 on the end of the wheel post 30. Wound upon the said block 98 are tiller ropes 99, 99. These are led back and'properly supported upon the tiller bar 100, made fast to the rudder 17.
  • the rudder 17 is hinged at 16, 16 on the tiller post 15.
  • a second tiller bar 101 is secured to the rudder at the top thereof.
  • the tiller bar 101 is secured to a cross bar 102, fixedly mounted on the mast 66 by 103.
  • the machine is controlled or uided to change its vertical disposition by the diving planes .109, 109.
  • These planes are horizontally extended in frames suitably rigid to preserve the shape of the said planes.
  • Thegplanes are fixedly mounted upon a shaft 110.
  • the shaft 110 is pivotally mounted upon the frame, at the forward end thereof.
  • Fixedly connected to the shaft 110 is a depended arm 11, as seen best in Fig. 3 of the drawings.
  • the free end of the arm 111 is operatively connected with alever 112 by a connecting rod 113.
  • the lever 112 ispivotally mounted at 114 and is extended in' parallel relation to a quadrant 115.
  • the quadrant 115 is serrated as shown in Fig. 3 of the drawings, and the lever 112 is provided with a spring-actuated detent to engage in holding relation the serrations formed on the said quadrant 115.
  • the aviator may, by shifting the lever 112, vary the horizontal angle of the planes 109, 109. It is equally obvious that. the planes 109-,
  • a balancing gear comprising Wing fiexure members mounted on said'levitating means a gravitycontrolled pendant member piV- otally mounted on said body frame; means for controlling the swing of said pendant member; a transmission mechanism connecting said pendant member and said wing flexure members to change the angle of inclination of said flexure members in consonance with the transverse deflection of said body frame; and manually operated means for varying at will the ratio of the transmiss1on.
  • a balancing gear comprising wing fiexure members mountedon said levitating means; a gravity controlled pendant member pivotally mounted on saidbody frame; dash-pots mounted on said pendant member and provided with perforated pistons pivotally secured upon the said body frame and adapted to regulate the' speed of oscillation of said.
  • Wing flexure members mounted on said levitating means: a gravity controlled pendant member pivotally mounted on said body frame; a transmission mechanism connecting said pendant member and said Wing flexure members to change the angle of inclination of said flexure members in consonance with the transverse deflection of said body frame; a movable connector for said transmission mechanism and the said pendant member; vand a hand operated lever connected with said movable connector controlled pendant aviators. ,car;
  • Wing flexure members mounted on said levitating means: a gravity controlled pendant member pivotally mounted on said body frame; a rocking lever pivotally mounted ons'a'id frame; flexible connectors attached to'tliQend of said rocking lever to opei'ate-fr'om opposite sides thereof; an anchoring device for said connectors slidably mounted on'said pendant member; a lever mounted on, said pendant member adapted to be manually operated; and means connecting said lever and sliding device for regulating the position of said sliding device relative to the pivotal center of said pendant member.
  • a'steering gear having a rudder for varying the path offlight and means for shifting said rudder, a balancing gear, comprising Wing flexure members mounted'on said levitatingmeans; a gravity a rocking frame adjacent to the movable ends of said fiexu're membe rs and extended to the extremes of the movement thereof; flexible connectors attached to the end of said rocking lever and to the said flexure members, being guided over said vertical rods to defleet the said flexure members simultaneously and in opposite vertical directions in conrudder for varying the path lever; and means connecting sonance with the movement of said lever; an arm mounted on said aviators 'car radially'extended from the pivot thereof; a sliding device mounted on said arm; and transmission means connected with said sliding device and the end of said rocking lever opposite that attached to said flexible connectors adapted to move the said lever proportionately tothe movement of said arm; and operatingmeans manually controlled from the aviators car, connected with said
  • a steering gear having a of flight, and means for shifting said rudder; a balancing mounted on said levitating means; a gravity controlled pendant aviators car; an arm fixedly mounted on said aviators car and extended radially from the pivot thereof; a rocking lever pivotally mounted on said body frame and extended longitudinally thereon; a sliding block mounted on said arm; means operable from the aviators car for sliding said block to and from the pivot of said car; flexible resilient means connect ing said sliding block and the one end of said the opposite end of said rocking lever With said flexure members to vary the pitch of said-flexure members in consonance with the movement of said lever.
  • a balancing gear comprising a plurality of ailerons mounted on said planes and at the lateral extremes thereof; a gravity controlled aviators car; a rocking lever mounted on said body frame and extended longitudinally therewith to rock horizontally; vertical members fixedly mounted on the outer and rear edge of said planes; a cable connecting one end of said rocking lever and the free ends of said ailerons, said cable being supported on said vertical members; a second cable connected to the freeends of said ailerons and guided by said vertical members; cables attached to the end of said rocking lever'and guided on said body frame to turn the said lever on its pivot; an arm fixedly mounted on said aviators car and extended in line with and radially from the pivotal center of said car; a sliding block mounted on said arm attached to the latter of said cables; a hand
  • Wing flexure members 9 In an airship; embodying a carrying frame, an aviators oar suspended from said frame, and a rudder arranged to vary the horizontal path of flight a balancing gea'r comprising an auxiliary pivot mast having an elongated head and a cross arm fixedly mounted thereon; means for connecting the said cross arm and the tiller arm of the rudder in parallel relation; a rocking lever pivotally mounted on said elongated head to slide therein to and from the pivotal center of said mast; flexure members mounted on frame; vertical members fixed on sald frame in position ad acent to said flexure members; flexible connectors attached to said said cross arm and the tiller arm of the rud-' der in parallel relation; a rocking lever pi'votally mounted on said elongated head toslide therein to and from the pivotal center of said mast; flexure members mounted on sai frame; vertical members fixed on said frame in position adjacent to said flexure members; flexible connectors
  • a balancing gear comprising a rudder pivotally mounted on said frame to vary the horizontal path of flight; a mechanism for shifting said rudder; and a transmission mechanism interposed between said rudder and said flexure members embodying a floating pivot disposed in a track parallel to the "rudder extension and movable to vary the arc of travel of said floating pivot.
  • a balancing gear for air-ships comprising a rudder vertically mounted on said ship; an elongated track member pivotally mounted on said ship in parallel relation to said rudder; means connecting said track member and said rudder for maintaining the parallelism of the said rudder and said track member; ailerons pivotally mounted on the frame of the ship at the lateral extremes thereof; a slidable member mounted on said track member; flexible connections attached to said ailerons and said slidable member to vary the inclination of said ailerons; and means operable from the aviators car for shifting said slidable member in said track member to and from the pivotal center thereof.
  • a balancing gear for airships comprising av vertical pivot mounted on the frame of said airship and having a lateral extension; means connecting said lateral extension with the rudder of said ship to preserve the said rudder and said lateral extension in parallel relation; a plurality of ailerons mounted on said ship and at the lateral extremes thereof; vertical members disposed adjacent to the free ends of said ailerons; a rocking lever pivotally connected upon said lateral extension and in sliding relation thereto; connecting cables attached to said ailerons and to one end of said rocking lever; and means for shifting said lever on said extension, operable from the aviators car.
  • a balancing gear for airships com-. prising a mast pivotally mounted upon the frame of the ship and having a lateral extension; arudder pivotally mounted upon the said frame of the ship to vary the horizontalflight thereof; means connecting said rudder and said mast to preserve the parallel arrangement of said lateral extension and said rudder; a rocking lever pivoted in sliding relation upon said lateral extension of said mast; an aviators car pivotally mounted upon and pendant from the body frame of said ship, and having a member vertically extended from the pivot of said car; a plurality of elongated ailerons pivotally mounted on the levitating frame of said ship and at the extremes thereof; vertical members fixedly mounted on the said levitating frame at the outer and rear ends thereof in adjacent relation to the free ends of said ailerons; a plurality of cables attached to said ailerons and to the one end of said rocking lever to lift the same in consonance with the movement of said lever; a plurality of cables connecting the opposite end of said lever
  • fiighttherof means connecting said rudder and said mast to preserve the parallel arrangement of said lateral extension and rality of elongated ailerons pivotallymount ed on the levitating frame of said ship and at the extremes thereof; vertical members fixedly mounted on the said levitating frame at the outer and rear end thereof in adjacent relation to the free ends of said ailerons; a plurality of cables attached to said ailerons and to the one end of said rocking lever to lift vthe same in consonanee with the movement of said lever; a plurality of cables connecting the opposite end of said lever with said vertical member of the aviators car; means for maintaining the median position of said ailerons; means operable from the aviators car, for shifting the said rocking lever on said extension to and from said mast to augment and decrease the path of movement of the end of said vary the length of the movement .of saidconnection.
  • a balancing gear for airships comprising a mast pivotally mounted on.the frame of said ship; a T-shaped track mounted on said mast; a sliding block supported in said track; a rocking lever-pivotally mounted on said block; a lever pivoted 1 on said mast, movable in'line with said,

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Description

11. M. DE GRAW. I BALANCING GEAR FOR AIRS HI PS.
APPLICATION FILED MAY 17, 1910.
Patented M21121, 1911.
5 8HEETS-SHBBT 1.
Arrok/vm Patented 111111.21, 1911.
a sH'EBTS -SHBBT 3.
. DE GRAW H. M BALANCING GEAR FOR AIRSHIP S. APPLICATION FILED MAY 17 H. M. DE GRAW. BALANCING GEAR FOR 'AIRSHIPS.
APPLICATION FILED MAY 17, 1910.
I Patented M31221, 1911.
s SHEETS-SHEET 4.
HIHIII" 'TTWIEHHHHHM llll WITNESSES:
H. M. DE GRAW. BALANCING GEAR FOR AIRSHIPS. -APP-LIUATION FILED MAY17, 1910. v
Patented Mar. 21, 1911.
WITNESSES.
ATTORNEYS j UMTED STATES a e HAROLD MASON DE GRAW, 0F CAMDEN, 1\TEW JERSEY.
BALANCING-GEAR FOR AIRSHIPS..'
Specification of Letters Patent.
Application filed May 17, 1910.
Patented Mar. 21, 1911.
Serial No. 561,828.
fiexure and for connecting the samewit-h the tiller device; to providemeans for adapting the wing warping flexure or ailerons to the operation of the steering rudder; and to construct and arrange the mechanism for accomplishing the above stated purposes in a simple, efficient and workmanlike manner.
One embodiment of the present invention is disclosed in the structure illustrated in the accompanyingdrawings, in which like characters of reference denote corresponding parts in all the views, and in which- Figure 1 is a perspective View of an aeroplane of the monoplane type, constructed and arranged in accordance with the present invention; Fig-'2' is a top plan view of the same, the plane being broken and contracted to show'the ailerons mounted on the ends thereof; Fig. 3 is a side elevation of the same; F ig'. 4: is adetail View on an enlarged scale and in side elevation, showing the steering mast and aileron adjusting devices connected therewith; Fig. 5' is a top plan view of the detail illustrated in Fig.4; Fig; 6 is a detail view on an enlarged scale, and in vertical section taken on the line 6 -6 in Fig. 5,
n showing the construction and arrangement of the adjusting devices for regulatin'v the ailerons or plane warping;Fig. 7 is a detail view in horizontal section taken on the line 7- -7 in Fig. 4, showing on an enlarged scale the .construction and arrangement of the operating mechanism for shifting the floating pivot for regulating the adjustment of the pivots; Fig. 8 is a detail view on an enlarged scale, and in horizontal section taken on the line' 8-8 in Fig. 4, showing in plan the up er end of the vertical rack forming part of the shifting mechanism for the fioating pivot; Fig, 9 1s a fragmentary V1eW 1I1 plan, showing the rudder and balancing mechanism parallel withthe line of flight,
illustrates the disposition of the said parts in making a turn to the left, with the ad justment set as in Fig. 9; Fig. 11 illustrates the disposition of the same parts when making a turn to the right, the parts being adjusted as in the former two figures; and Fig.
12 illustrates the disposition of the parts mentioned when the rudder is held parallel with the straight line of flight and the ailerons are raised by the automatic balancing action of the machine, and when the floating and stationary pivots are more closely related than in the three former figures.
The present embodiment of theinvention employs a car body, the main structure whereof is triangular in cross section, longirtudlnal braces l3, 13 being cross braced by rods 14, 14, as in the usual aeroplane construction. The preferred form of the frame is that wherein the base of the triangle is disposed in lowest position, and the braces 13, 13 thereof are converged at the rear upon a tiller. post- 15. The tiller post 15 is vertical in arrangement, as shown, and has pivotally connected therewith by loops 16 ,a
rudder 17. The main body of, the machine is elongated, as shown in the drawings, and supports in suitable arrangement a motor 18, and a bearing standard 19 for the shaft 20 of the propeller 21. Any suitable construction for the parts mentioned may be adopted.
Suspended from a central shaft22 is the aviato-rs carriage or basket, This is triangular in shape, and of openconstruction similar tot-hat of the main body. Longitudinal braces 23, 23 of the said carriage are connected at the ends'by cross braces 24, 24, and by a middle brace 25. Between the mid dle brace-andthe'rear brace 24 is placed the avi-ators seat 26, having a vertical back 27.
.The carriage is pivotally mounted upon the upper structure, and is controlled in the swing therefrom by piston rods 28, 28 and ()n the nvintors carriage, and inronveuient position for the aviators control, are placed a wheel post 30 for varying the rudder to steer the machine, and a lever 31 for varying the adjustment of the ailerons or extent of the warp of wing flexure, if planes permitting the warp or flexure control he used. The lever 31 is maintained in set position by a quadrant 32, secured in position upon one of the braces 23 forming the struc ture of the lower frame. It is by the operation of a steering wheel 33 and the lever 31 that the aviator contr'ols the flight of the machine. The starting or stopping of the;
motor 18 is by means of the employment of any suitable'and well known contrivance.
The machine is provided with ground traction wheels 34, 34. Theseare mounted on the ends of vertical legs 35, 35, as shown in Fig. l of the drawings. The wheels 34,- 34 serve the same purpose and in substantially the same manner, as the wheel carriers of all accepted types of aeroplanes.
The present inventio consists primarily in the method of control, and meflw-nism' for effecting the same, whereby the aeroplanes or ends of the main planes, are disposed to produce lifting or depressing effects. The mechanism herein shown is best adapted to the use of ailerons 36, 36. These consist in the somewhat narrow elongated strips having an independent structure, and pivoted at 3T, 37 to the main lateral brace forming the forward edge of the levitation planes 38, 38.' The planes 38,38 are slightly uptilted from their connection with the central brace 13 of the body structure of the machine, and extended laterally therefrom. The lateral extension and the longitudinal dimension of the planes are formed according to the design of the constructor. Likewise the bracing whereby the structure is prevented from collapsing varies according to the design of the architect constructing the same, and this, to prevent ,confusion, has been omitted in the present illustration and description. Suffice it at this time to say that the planes 38, 38 are of sufficient area to carry the load for which the machine is calculated, and are properly placed to prevent collapsing or flexing from the plane of operation for which they are .de-. signed. At the outer and rear end of the planes 38 are fixedly secured vertical rods 39, 39. The rods 39, 39 have mounted on the upper and lower ends thereof pulleys 40, 40, over which are passed operating cables 41, 41 and 42. The cables 41, 41 are each secured toan anchor block 43, and to the rea end of each of the ailerons 36. The cable 42 is passed around the lower pulleys 40, 40 and connected to the rear end of the ailerons 36, 36 at the same point. The cable 42 is stretched directly between the lower pulleys 40, 40 and the ailerons, serving merely as a balancing or return cable. The
anchor block 43 is rigidlymounted on a bar 46. A sleeve 44 isprovided with a flange 45 to form fastening .holds for the ends of the cables 41, 41. he sleeve 44 is slidably mounted upon the pivoted bar 46. Between a collar '47 fixedly mounted on the said bar 46, and the sleeve 44, there is interposed a spiral spring 48, the operation of which is to extend the sleeve 44 carrying the block 43, and thereby automatically take up any slack in either or bothof the cables 41, 41. r
The bar 46 is pivoted upon a bolt. 49 extended from a slide block 50. vThe bar 46 is extended. forward from the pivot bolt 49,
of a rockingarm 54. The rocking'arm 54 is securely mounted upon the shaft 22 and at the inner end thereof. The shaft 22 is fixedly attached to the aviatorsjcarriage by triangularly disposed braces 55, 55.
With the construction and arrangement of the ailerons 36, 36, the cables 41, 41, the bar 46, the cables 51, 51 the rocking arm 54, and the aviators carriage, it-will be observed that as the carriage swings on the shaft 22 to change the angular relation of the said carriage with the planes 38, 38, the rocking arm 54 is moved to and from the one or the other of the pulleys '53, 53, to move, through the transmission cables 51, 51, the end of the bar 46 to which the said cables are attached in a direction opposite tothatfollowed by the upper end of the said rockmg arm 54. As the bar .46 is swung around the pivot bolt 49, the rear end thereof, to which are connected the cables 41, 41, is shifted, drawing on the one of said cables 41 and relieving the strain on the other.
The result of this action is to' elevate the rear end of the one aileron 36 on the one plane 38, while depressing in equal degree the rear end of the aileron 36 I on the opposite plane 38.
When the machine is in flight, the operation of the ailerons is proportioned in their angularity to the plane of flight of the machine. The base of the angular plane of the aileriins is the pivot 37, and the peak of the said ailerons is the rear end thereof. The mechanism is constructed and arranged so that when the planes 38, 38, for be uptilted on. one side to change the angle relative to the aviators carriage, the aileron on the highest side is lifted at the rear end to form a downward inclination to produce a top or diving pressure. Simultaneousl the aileron on the lowered plane 38 is shifi ed to lower the rear end of said aileron, forming thereby an inclined plane to produce under the same a levitating pressure. The two pressures 'operate to right the planes 38,bringing them to a position horiany reason,
zonta-l with the direction of gravity as represented by the hang of the aviators carriage. As the planes are thus corrected, the arm 54 resumes the vertical position, bringing the bar 46 to a central .position, where in thus swinging is made smooth and dc liberate by reason of the piston rods 28, 28
operating in the dashpots 29, 29.
The cables 51, 51 are anchored upon a flange 56 of the sleeve 57, at the end wherethe fact that the ailerons, being thus set,
of is a block 58, having mounted therein pulleys 59, 59. sleeve 57, and parts connected therewith, is in all respects similar to the construction of the 'sleeve 44 and the parts connected therewith. The sleeve 57, at the forward end of the bar 46, is connected to 'a' spiral spring 60, which in turn is anchored to a collar 61. By reason of the springs 48 and 60, the adjustment of the cables 41, 41 and 51, 51 is effected; and any slack or tension due to a motion of translation of the bar 46, is compensated in either cable and thus taken up.
Ailerons, plane sections and tips have heretofore been operated by connections with a swinging aviators carriage. These connections have heretofore been automatic and set. A serious disadvantage in. the operation of flying machines has resulted from the control exercised thereby has not been proportioned to variation in wing pressures due to head winds, or to variation in speed of flight. This disadvantage may easily be appreciated when, by way of illustration, it is seen that a deflection which would operate'with sufiicient speed when a machine is traveling at twenty miles an hour would prove excessive for a machine traveling at the rate of sixtymiles an hour. By means of the present construction the extent of the deflection of the ailerons is regulated and controlled by the aviator to meet the varying needs of the condition of flight.
The above mentioned control is needed for both the banking of theailerons in correspondence with the steering action of the rudder, and in the balancing of straight line flight." To govern the latter the rock- I ing arm 54 has mounted thereon a sliding block 104, to which the cables 51, 51 are securelj, fastened. By means of a cable 105 the block 104 is connected to a lever 106.
, of to receive the cable 105. A quadrant 108 isprovided to hold the lever 106 in set position. By the construction and arrangement.
The construction of theof the lever 106, and the cable 105 connected therewith, the sliding block 104 is moved down on the arm 54, thereby proportionately shortening the length of the are over which the block 104 is carried. As the block '104 is'moved toward the pivotal center of the arm 54 ashorter path for the said block is furnished for any given swing of the aviat-ors carriage. The length of the path of the block 104 controls the amount of movement of the cables 51, 51, and the bar 46 connected therewith. Thus, if in a high 'wind, or flying at a high rate of speed,
the aviator desires to shorten the movements of the ailerons in their vertical dis placement, by lifting the lever 106 he depresses the block 104, and thereby limits the movement of the bar 46 and the rise and fall of the ailerons 36, 36. It will be seen that by the operation of this mechanism the aviator has perfect control of the deflection of the ailerons when in directflight, accommodating the sanne to the speed of flight, and to variable or high wind pressures.
When the aviator desires to increase the.
deflection of the ailerons, he releases the lever 106. The block 104 is raised from its depressed position on the arm 54 by the spiral spring 60, which spring has been eX- tended by the downward pull on the block 104 exerted by the lever 106. \Vhen the lever 106, therefore, is released, the spring 60 expands to draw upon the cables 51, 51. which lift the block 104 to the top of the arm 54. I
The block 50, carrying the pivotbolt 49 and the bar 46, is slidably mounted in a runway formed by tracks 62, 62. The'tracks 62, 62 are formed in cross section substantially as shown in Fig. 6, and are suspended in bracket arms 63, 63 of a head 64. The head 64 is bolted at 65 to a controlling mast 66. The tracks 62 are united by framing headers 67 and 68, the latter being arched to permit .the passage therethrough of a lever arm 69. The arm 69 is connected by means of a link 70 to the block 50, and is utilized for shifting the said block 50. The link 70 is formed of a length adapted to extend the block 50 to the. rear of the tracks 62, when the said arm 69 is stopped against the cross framing 71 of the machine. The framing 71 is provided with a bushing bearing 72 in'which the mast 66 is rotated. A.
to carry a foot casting 74 in'which the said mast 66 is stepped. The frames 71 and 73 are suitably secured to the braces of the up" v per body fram e.
cross framing 73 is provided at the bottom constructed and arranged concentrically with the pivot -;87 is aquadrant 88, whereby- 4.0
the end. of a bracket 76, which is provided with a tubular extension 77, provided to pass the mast 66 for adjustment thereon. The bracket 76 is fixed in position on the mast 66 by a set screw 78. Set out from the extension 77 is a: shoulder 79, which forms a guide for the operation of a rack bar 80. The rack bar 80 is provided with a flange 81, which extends behind, and is held in guided relation with a guide flange 82 formed on the bracket 76 opposite the shoulder 79. The flanges 81 and 82 are sufliciently lengthened and closely nested to prevent the separation of the bracket structure and the rack structure. The rack 80 is provided with a series of gear teeth 83, which are normally engaged by the gear teeth of a sector 84:. The sector 84 is fixedly mounted on the end of the shaft 7 5, as seen in Fig. 7 of the drawings. At the upper end of the rack bar 80 it is provided with a collar 85, which encompasses the mast 66, as shown in Figz'8 of the drawings. The rack 80 is reciprocated vertically on themast 66, and is guided in its reciprocation by the interlocking of the flanges 81 and 82 on the bracket 76, and by the collar 85 at the top of the said rack.
When the rack 80 is reason of the toothed engagement between the said rack and the sector 84, the shaft 7 5 is rocked, and th'e lever arm 69 is moved. The reciprocation of the rack 80 is controlled from a lever 86 mounted on the frame of the aviators carriage at.87, and convenientto the hand of the aviator whe'nseatedin the seat 26. Erected upon the frame, and
the lever 86. is held in setposition. The rack 80 and lever 86 are connected by means of cables 89 and j90, both of which are reeved over pulleys 91, 91,92 and 93. and the former of to the lever 86 at'95, anchored to the said lethe lever 86. The cable 90 is connected with the lower end of the rack 80, being guided from within the mast.66 by twisted pulleys 97, 97. Both-of the cables 89 and 90 are converged below the mast 66, and extended upward therethrough, the former passing to the top where'it is reeved over the pulley 93, while the latter is carried but a short distance within the mast and led therefrom over the pulleys 97, 97.
It will be seen that with a construction arranged as shown and described, the aviator may, from the seat 26, by moving the lever 86, operate the cables 89 and 90 to lift the rack 80. The rack 80, in rising, rotates upconnectin ropes 103,
- the reciprocated, and byv ailerons.
'for the swing at the rate which is connected with I the upper end of the rack 80 at 94. The,
points of attachment of the said cables to the lever 86 are thus disposed on opposite sides of the pivot 87. of.
'he may, by shifting block 50 forms the ward the sector 84, and through the connection thereby, the lever arm 69 is moved forward, carrying the link 70 and block 50 connected therewith, changing the relative disposition of the bolt 49 with the center of the mast 66. V
The machine is steered by the aviator from the seat 26 by means of the steering wheel 33, and a winding block 98 on the end of the wheel post 30. Wound upon the said block 98 are tiller ropes 99, 99. These are led back and'properly supported upon the tiller bar 100, made fast to the rudder 17. As stated, the rudder 17 is hinged at 16, 16 on the tiller post 15. A second tiller bar 101 is secured to the rudder at the top thereof. The tiller bar 101 is secured to a cross bar 102, fixedly mounted on the mast 66 by 103. By this arran ement it Wlll be seen that the rudder 17 is eflected from side to side to change the horizontal flight of the machine at the will of the aviator, steering by means of the wheel 33 and tiller ropes connected therewith. It will also be seen that by reason of the connection between the rudder and the mast 66 that the said mast'is rotated in unison with said rudder, and that the tracks 62, 62 are. shifted in rudder 17. I
The arrangement of the mechanism Whereby the block 50 is shifted to and from the pivotal center of the mast 66 is provided to lessen or increase the automatic shift of the It will be readily perceived that the disposition of the ailerons, when the machine is in flight at the rate of sixty miles an hourwould require a different arrangement. than when traveling at the rate of twenty miles an hour. The bank needed of twenty miles an hour would overturn the machine if traveling at the rate of sixty miles an hour.
The variation of the deflection of the ailerons, when operating inf'conjunction with the rudder, and when employed for making What is termed a bank, is controlled by the mechanism hereinafter described.
; Wj-hen the aviator finds that by reason of 5 i 11 increased flight, or by reason of head Winds, that his bank .of the ailerons is too sensitive, rack 80, and-thereby. shift the pivot block 50 closer toward the rear end of the tracks 62. In doing this he has shortened the'arc parallel disposition with'the lie the lever 86, lower the of the swing of the. block 43 and the cables F11, 41 connected therewith.
In explanation of the operation of the bar 46 and the floating pivot block 50, attention is called to the fact that the end of the bar to which the cables 51, 51 are attached is the fixed point about which the-said bar 'isrotated, and that the shifting medium for'the said bar 46. This is best seen by reference pivotal connection on the to Figs. 9 to 12 inclusive of the-drawings. Thus, it will be seen that when the pivotal center of the bar 46 and the mast 66 coincide, the deflection of the tracks 62 from the longitudinal straight line does not affect the disposition of the-bar 46. When, however, as is illustrated in said figures of the drawings, the block-5O is removed from the pivotal center of the mast 66, then the arc of movement of the rear end of the bar &6 is increascd in proportion as the block 50 is advanced from the center of the said mast. In this manner the'avia'tor exerts perfect control over the ailerons when operating'in conjunction with the rudder 17.
In explanation of the diagrams shown in Figs- .19 to 12 inclusive, the disposition of the ailerons 36, 36 and rudder 17 shown in Fig.
, 9 is that wherein the machine is pursuing an even straight flight. In Fig. 10, the disposition of the ailerons and rudder is that wherein the machine is being turned in a horizontal direction, and as indicated by the arrow ,therein. It will be noted that the pivot block 50 has been advanced toward the noted in ,this connection that the arm 54 illustrates the extent of the inclination of the planes in each of said figures.
Then in flight the machine is controlled or uided to change its vertical disposition by the diving planes .109, 109. These planes are horizontally extended in frames suitably rigid to preserve the shape of the said planes.
Thegplanes are fixedly mounted upon a shaft 110. The shaft 110is pivotally mounted upon the frame, at the forward end thereof. Fixedly connected to the shaft 110 is a depended arm 11, as seen best in Fig. 3 of the drawings. The free end of the arm 111 is operatively connected with alever 112 by a connecting rod 113. The lever 112 ispivotally mounted at 114 and is extended in' parallel relation to a quadrant 115. The quadrant 115 is serrated as shown in Fig. 3 of the drawings, and the lever 112 is provided with a spring-actuated detent to engage in holding relation the serrations formed on the said quadrant 115. By means of this arrangement it is obvious that the aviator may, by shifting the lever 112, vary the horizontal angle of the planes 109, 109. It is equally obvious that. the planes 109-,
by means of the quadrant 115, will be at all times heldat the angle at which theaviator has elected to place the said planes.
While I herein describe the plane members as ailerons, it will be understood that wing flexure devices may be substituted therefor, and are intended to be compre hended within the term aileron as herein ing in the same manner as the gravity vertical force in the above description.
Having thus described my invention, what I claim as new and desire to secure by Letters Patent is:
1. Inan air ship embodying a body frame, levitating means, and a steering gear'having a rudder for varying. the path of flight and means for shifting said rudder; a balancing gear, comprising wing fleXure members mounted on said levitating means; a gravity controlled pendant member pivotally mounted on said body frame; a transmission mechanism connecting said pendant member and said Wing flexure members to change the angle of inclination of said flexure members in consonance'with the transverse deflection of said body frame; and manually operated means for varying at will the ratio of transmission.
' 2. In an airship, embodying a I body frame, levitating-means, and a steering gear having a rudder for varying the path, of flight and means for shifting said rudder, a balancing gear, comprising Wing fiexure members mounted on said'levitating means a gravitycontrolled pendant member piV- otally mounted on said body frame; means for controlling the swing of said pendant member; a transmission mechanism connecting said pendant member and said wing flexure members to change the angle of inclination of said flexure members in consonance with the transverse deflection of said body frame; and manually operated means for varying at will the ratio of the transmiss1on.-
3. In an airship, embodying a body frame, levitating means, and asteering gear having a rudder for varying the path of flight and means for shifting said rudder, a balancing gear, comprising wing fiexure members mountedon said levitating means; a gravity controlled pendant member pivotally mounted on saidbody frame; dash-pots mounted on said pendant member and provided with perforated pistons pivotally secured upon the said body frame and adapted to regulate the' speed of oscillation of said.
pendant member; a transmisison mechanism connectingsald pendant member and said Wing flexure members to change the angle f of'inclination of'said flexure members in consonance With the transverse deflection of said body frame; and manually operated means for varying at Will the ratio of the transmission.
4L In an airship, embodying a body frame, levitating means, and a steering gear having a rudder for varying the path of flight and means for shiftingsaid rudder, a balancing gear, comprising Wing flexure members mounted on said levitating means: a gravity controlled pendant member pivotally mounted on said body frame; a transmission mechanism connecting said pendant member and said Wing flexure members to change the angle of inclination of said flexure members in consonance with the transverse deflection of said body frame; a movable connector for said transmission mechanism and the said pendant member; vand a hand operated lever connected with said movable connector controlled pendant aviators. ,car;
lever pivotally mounted on saidbody frame, and extended longitudinally therewith; a, plura ity of vertical rods mounted onsaid,"
the operation whereof disposes the said connector to and from t-he'pivotal center of said pendant member to vary the are of travel ofisaid connector. I
5. In an airship, embodying a body frame, levitating means, and a steering gear having a rudder for varying the path of flight and means for shifting said rudder, a balancing gear, comprising Wing flexure members mounted on said levitating means: a gravity controlled pendant member pivotally mounted on said body frame; a rocking lever pivotally mounted ons'a'id frame; flexible connectors attached to'tliQend of said rocking lever to opei'ate-fr'om opposite sides thereof; an anchoring device for said connectors slidably mounted on'said pendant member; a lever mounted on, said pendant member adapted to be manually operated; and means connecting said lever and sliding device for regulating the position of said sliding device relative to the pivotal center of said pendant member.
6. In an airship, embodying a body frame,
levitating means, and a'steering gear having a rudder for varying the path offlight and means for shifting said rudder, a balancing gear, comprising Wing flexure members mounted'on said levitatingmeans; a gravity a rocking frame adjacent to the movable ends of said fiexu're membe rs and extended to the extremes of the movement thereof; flexible connectors attached to the end of said rocking lever and to the said flexure members, being guided over said vertical rods to defleet the said flexure members simultaneously and in opposite vertical directions in conrudder for varying the path lever; and means connecting sonance with the movement of said lever; an arm mounted on said aviators 'car radially'extended from the pivot thereof; a sliding device mounted on said arm; and transmission means connected with said sliding device and the end of said rocking lever opposite that attached to said flexible connectors adapted to move the said lever proportionately tothe movement of said arm; and operatingmeans manually controlled from the aviators car, connected with said sliding device for varying the disposition of said device an said arm.
- 7. In an airship,
embodying a body frame, levitating means,
a steering gear having a of flight, and means for shifting said rudder; a balancing mounted on said levitating means; a gravity controlled pendant aviators car; an arm fixedly mounted on said aviators car and extended radially from the pivot thereof; a rocking lever pivotally mounted on said body frame and extended longitudinally thereon; a sliding block mounted on said arm; means operable from the aviators car for sliding said block to and from the pivot of said car; flexible resilient means connect ing said sliding block and the one end of said the opposite end of said rocking lever With said flexure members to vary the pitch of said-flexure members in consonance with the movement of said lever.
8. In an airship, embodying a body frame, levitating planes, a'steering gear having-a rudder for varying the path of flight, and means for shifting said rudder, a balancing gear, comprising a plurality of ailerons mounted on said planes and at the lateral extremes thereof; a gravity controlled aviators car; a rocking lever mounted on said body frame and extended longitudinally therewith to rock horizontally; vertical members fixedly mounted on the outer and rear edge of said planes; a cable connecting one end of said rocking lever and the free ends of said ailerons, said cable being supported on said vertical members; a second cable connected to the freeends of said ailerons and guided by said vertical members; cables attached to the end of said rocking lever'and guided on said body frame to turn the said lever on its pivot; an arm fixedly mounted on said aviators car and extended in line with and radially from the pivotal center of said car; a sliding block mounted on said arm attached to the latter of said cables; a hand lever mounted on said car within reach of the aviator; a cable connecting said hand lever and said sliding block to depress the said block toward the pivotal center of said car; and. resilient means connected with the cable attached to said block to lift said block from said pivotal center.
gear, comprising Wing flexure members 9. In an airship; embodying a carrying frame, an aviators oar suspended from said frame, and a rudder arranged to vary the horizontal path of flight a balancing gea'r comprising an auxiliary pivot mast having an elongated head and a cross arm fixedly mounted thereon; means for connecting the said cross arm and the tiller arm of the rudder in parallel relation; a rocking lever pivotally mounted on said elongated head to slide therein to and from the pivotal center of said mast; flexure members mounted on frame; vertical members fixed on sald frame in position ad acent to said flexure members; flexible connectors attached to said said cross arm and the tiller arm of the rud-' der in parallel relation; a rocking lever pi'votally mounted on said elongated head toslide therein to and from the pivotal center of said mast; flexure members mounted on sai frame; vertical members fixed on said frame in position adjacent to said flexure members; flexible connectors attached to said flexure members and one end, of said rocking lever for transmitting the motion of said rocking lever to saidflexure members; a hand lever pivotally mounted on said aviators car; and cables connecting said hand lever and said rocking lever to slide the same in said elongated head.
11. In an airship, embodying a carrying frame, levitating planes attached to said frame, a plurality of flexure members mounted on said planes at the extremes thereof, and" an aviators car supported on said frame, a balancing gear, comprising a rudder pivotally mounted on said frame to vary the horizontal path of flight; a mechanism for shifting said rudder; and a transmission mechanism interposed between said rudder and said flexure members embodying a floating pivot disposed in a track parallel to the "rudder extension and movable to vary the arc of travel of said floating pivot.
12. A balancing gear for air-ships, comprising a rudder vertically mounted on said ship; an elongated track member pivotally mounted on said ship in parallel relation to said rudder; means connecting said track member and said rudder for maintaining the parallelism of the said rudder and said track member; ailerons pivotally mounted on the frame of the ship at the lateral extremes thereof; a slidable member mounted on said track member; flexible connections attached to said ailerons and said slidable member to vary the inclination of said ailerons; and means operable from the aviators car for shifting said slidable member in said track member to and from the pivotal center thereof.
"13. A balancing gear for airships, comprising av vertical pivot mounted on the frame of said airship and having a lateral extension; means connecting said lateral extension with the rudder of said ship to preserve the said rudder and said lateral extension in parallel relation; a plurality of ailerons mounted on said ship and at the lateral extremes thereof; vertical members disposed adjacent to the free ends of said ailerons; a rocking lever pivotally connected upon said lateral extension and in sliding relation thereto; connecting cables attached to said ailerons and to one end of said rocking lever; and means for shifting said lever on said extension, operable from the aviators car.
.14.. A balancing gear for airships, com-. prising a mast pivotally mounted upon the frame of the ship and having a lateral extension; arudder pivotally mounted upon the said frame of the ship to vary the horizontalflight thereof; means connecting said rudder and said mast to preserve the parallel arrangement of said lateral extension and said rudder; a rocking lever pivoted in sliding relation upon said lateral extension of said mast; an aviators car pivotally mounted upon and pendant from the body frame of said ship, and having a member vertically extended from the pivot of said car; a plurality of elongated ailerons pivotally mounted on the levitating frame of said ship and at the extremes thereof; vertical members fixedly mounted on the said levitating frame at the outer and rear ends thereof in adjacent relation to the free ends of said ailerons; a plurality of cables attached to said ailerons and to the one end of said rocking lever to lift the same in consonance with the movement of said lever; a plurality of cables connecting the opposite end of said lever with said vertical member of the aviators car; means for maintaining the median position of said ailerons; and means operable from the avia- 'tors car for shifting the said rocking lever on said extension to and from said mast, to
augment and decrease the path of movement of the end of said lever connected with the said ailerons.
15. A balancing gear for airships, com-.
fiighttherof; means connecting said rudder and said mast to preserve the parallel arrangement of said lateral extension and rality of elongated ailerons pivotallymount ed on the levitating frame of said ship and at the extremes thereof; vertical members fixedly mounted on the said levitating frame at the outer and rear end thereof in adjacent relation to the free ends of said ailerons; a plurality of cables attached to said ailerons and to the one end of said rocking lever to lift vthe same in consonanee with the movement of said lever; a plurality of cables connecting the opposite end of said lever with said vertical member of the aviators car; means for maintaining the median position of said ailerons; means operable from the aviators car, for shifting the said rocking lever on said extension to and from said mast to augment and decrease the path of movement of the end of said vary the length of the movement .of saidconnection.
16. A balancing gear for airships, comprising a mast pivotally mounted on.the frame of said ship; a T-shaped track mounted on said mast; a sliding block supported in said track; a rocking lever-pivotally mounted on said block; a lever pivoted 1 on said mast, movable in'line with said,
track; reciprocating means slidably mounted on said mast, connected with said lever to rock the same; and means operable from the aviators car, rocating means.
In testimony whereof I have signed this specification in the presence of two subscribing Witnesses.
HAROLD MASON DE" ear sew. Vitnesses:
GEORGE N/WATKINS, THOMAS L. GASKILL.
for adjusting said recip- Copies of this patent may be obtained for five cents each, by addressing the commissioner Washington, D. C.
of Patents,
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