US1889295A - Differential and simultaneous control for the engines of multiple engine machines - Google Patents

Differential and simultaneous control for the engines of multiple engine machines Download PDF

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Publication number
US1889295A
US1889295A US501713A US50171330A US1889295A US 1889295 A US1889295 A US 1889295A US 501713 A US501713 A US 501713A US 50171330 A US50171330 A US 50171330A US 1889295 A US1889295 A US 1889295A
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levers
engines
engine
handles
lever
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US501713A
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Rosatelli Celestino
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Fiat SpA
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Fiat SpA
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    • BPERFORMING OPERATIONS; TRANSPORTING
    • B64AIRCRAFT; AVIATION; COSMONAUTICS
    • B64DEQUIPMENT FOR FITTING IN OR TO AIRCRAFT; FLIGHT SUITS; PARACHUTES; ARRANGEMENTS OR MOUNTING OF POWER PLANTS OR PROPULSION TRANSMISSIONS IN AIRCRAFT
    • B64D31/00Power plant control; Arrangement thereof
    • B64D31/02Initiating means
    • B64D31/04Initiating means actuated personally
    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y10TECHNICAL SUBJECTS COVERED BY FORMER USPC
    • Y10TTECHNICAL SUBJECTS COVERED BY FORMER US CLASSIFICATION
    • Y10T74/00Machine element or mechanism
    • Y10T74/19Gearing
    • Y10T74/19023Plural power paths to and/or from gearing
    • Y10T74/19126Plural drivers plural driven
    • Y10T74/1913Bevel
    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y10TECHNICAL SUBJECTS COVERED BY FORMER USPC
    • Y10TTECHNICAL SUBJECTS COVERED BY FORMER US CLASSIFICATION
    • Y10T74/00Machine element or mechanism
    • Y10T74/20Control lever and linkage systems
    • Y10T74/20012Multiple controlled elements

Definitions

  • T a sin e multiple operating device if it is to he'practically useful, should be capable of moving the two or three lateral handles operating the respective engines, without varying their mutual position. This permits the simultaneous increase ordecrease of the number of turns of all the engines by the same extent.
  • the apparatusaccording to this invention meets all the,above requirements. It is based essentially on the combination of the two known principles of the differential gear and of the control device of the friction lock or other similar type.
  • gines being placed in the middle and the other two laterally of'the former.
  • Figure 2 is a cross section thereof.
  • Fig. 3 is a cross-section of the lock device.
  • 1 denotes a frame, on which a pivot pin 2 ismounted and supports the mechanism for controlling the various engines (three, in the exam le 7 shown)
  • This mechanism comprises han es 3 and 4: serving for governing (e. g. for the carburetor and magneto control) the lateral engines and handle 5 serving for governing the central engine.
  • the handles 3 and 4 are riveted at 6 to a disk-shaped member 7 of friction actuating devices 21 while the handle 5 is fixed to a disk-shaped member of a friction operating device 23 similar to the former.
  • the friction actpating devices 21 are loosely mounted on s eeves 11 and 15 respectively slipped on, the pivot pin 2', while the frlction operated device 23 is loosely mount ed on a tlibular extension of the adjacent device 21.
  • Each friction actuating device includes a drum, in which an oval cam 17 is arranged which'is connected by means of a pin an slot connection 42 with the adjacent diskshaped member 7 and rigidly fixed to the hub of a lever 8', or 9, or 10; said levers are connected attheir otherend with the carburetor'or magneto rods of the respective en ne.
  • prings 16 are arranged in the space beparts of the cam 17 having a smaller radius of curvature, are forced by said springs between the drum and the cam for locking thetwo parts together.
  • a pair of projections 40 diametrically oppose fixed to the disk 7 is situated between pairs of adjacent balls 43, so that when the corresponding control handle 3, or 4, or 5 is displaced in one direction, said projections dis lace first a pair of diametrically opposed alls to disen age the cam 17 from the drum whereupon t e pins 42 engage one end of the respective slot to effect the displacement of the correspondinglever 8, or 9, or 10.
  • the other pair of diametrically opposed'balls is actuated and when the pins 42reach the other we I fected by means of the fork 12.
  • Said fork encloses a differential gear comprising a bevel pinion 18 fast with the lever 13 and two bevel wheels 19 connected by teeth couplings 20 with the drums of the friction actuating devices 21 of the lateral levers 8 and 9.
  • the drum of the friction device 23 of the central lever 10 is secured by means of screws 22 to the fork 12.
  • the unit is protected by a cylindrical sheet metal box 30 secured by screws 31 to the casing 1.
  • a sheet metal box 32 is secured by screws 33 on the casing 30 and thetwo conical grooved sectors 25 are riveted or welded to a central opening of said box.
  • the casing comprises a cylindrical bottom '34 with-two lateral ridges 35 enclosing the oil for lubricating the gearings of the differential mechanism; the central bearing 36 supporting the pin 2 and keeping the two bevel wheels 19 in spaced relation.
  • each engine 7 the handle 13 is rotated about its axis by means of the grip 14.
  • the pinion 18 is thus rotated and being in mesh with the two bevel Wheels 19 solidly connected withthe drums of the operating friction devices of the levers 7 8 and 9 controlling the lateral engines, it displaces said levers in opposite directions.
  • Engine control formultiple engine aeroplanes comprising levers for adjusting each 2 engine, handles for operating said levers, a friction lock device inserted between each of said levers and their respective handles, a
  • main lever connected with one member of said lock devices for simultaneously actuat-" 2 ing said adjusting levers.
  • Engine control for multiple engine aeroplanes comprising levers for adjusting each engine, handles'for operating said levers, a
  • friction lock device inserted between each of 1 said levers and their respective handles, a main control lever, a plmon on said lever and bevel gears on one member of each of said lock devices, said gears meshing with said pinion in order to simultaneously actuate" said adjusting levers.
  • An engine control for multiple engine aeroplanes comprising amain lever for simul taneously adjusting said engines, levers for controlling the individual engines, handles for actuating said levers, a friction lock device between each of said levers and its respective handle consisting of a drum connected with said main lever, an oval cam arranged on said drum, balls in the space between said cam and said drum, springs for forcing said balls between said drum and said cam for locking together said parts, a pin and slot connection between said cam and its respective lever and projections carried by the respective handle for removing said balls from the locked position, a pinion on the main lever, bevel gears on the drum of said friction lock device, said gears being in mesh with said pinion for simultaneously actuating said control levers and a box with guide slots for said handles, so that when one of said handles reaches the end of its respective guide slot, it carries said balls of the lock device into the released position for disconnecting the respective lever and permitting the latter motion of the others.
  • An engine control for multiple engine aeroplanes as defined by claim 5 provided with a grooved cone slidable on said main lever, a pair of grooved sectors fixed to said box for co-operating with said cone and a pressure member for releasing at will said cone from said sectors.
  • An engine control for multiple engine aeroplanes comprising levers "for adjusting each engine, handles for operating said levers, a friction lock device inserted between each of said levers and their respective handles, a main lever connected with one member of said lock devices for simultaneously actuating said adjusting levers and abox having a guide slot for said handles and means for disconnecting said levers from the main lever upon its contact with one end of the guide slot.
  • An engine control for multiple engine aeroplanes comprising levers for adjusting each engine, handles for operating said levers, a friction lock device inserted between each of said levers and their respective handles, a main control lever, a pinion on said lever and bevel gears on one member of each of said lock devices, said gears meshing with said pinion in order to simultaneously actuate said'adjusting levers and a box with a guide slot for said handles, and means for discon-' necting said levers from the main lever upon its contacting one end of its guide slot.

Description

Nov. 29. 1 932.
, i C. ROSATELLI DIFFERENTIAL AND SIMULTANEOUS CONTROL FOR THE ENGINES OF MULTIPLE ENGINE MACHINES Filed Dec. 11, 1930 2 Sheets-Sheet 1 ,Nov. 29, 1932 c, RQSATELL. 1,889,295
DIFFERENTIAL AND SIMUL'I'ANEOUS CONTROL FOR THE ENGINES OF'MULTIPLE ENGINE MACHINES 7 Filed Dec. 11, 1930 I 2 Sheets-Sheet 2 Fig. 3
Patented Nov. 29, 1932 PATENT OFFICE CELESTINO BOSL'IELLI, O1! TUBIN,
ITALY, assrenon. 'ro FIAT socm'rl. mom or TUBIN,'ITALY DEFERENTIAL AND SIMUIIIANEOUB GONTROL FOR THE ENGINES 01 mm ENGINE MACHINES I Application filed December 11, 1930, Serial No. 501,713, and in Italy October 9, 1980.
In modern multiple-engine machines (especially for air-craft purposes) the engine control is efiected through the operation of separate handles; this arrangement, besides being complicated in operation, does not allow of a rapid simultaneous control of the engines. One multiple operating device should "therefore be adopted which enables the operator to increase or decrease the number of turns of the engines by operating one handle'only, without var ing the adjustmdnt ofeach engine, said adiiustment being always eifected through separate operating devices.
lin most cases two engines are arranged parallel to the longitudinal axis of the machine, so that it is often necessary to. dispose of an operating device by which it is possible to increase the speed of one engine and to decrease the speed of the other engine by the same extent, which considerably sim lifies and facilitates the control of the machine on the ound and in flight.
T a sin e multiple operating device, if it is to he'practically useful, should be capable of moving the two or three lateral handles operating the respective engines, without varying their mutual position. This permits the simultaneous increase ordecrease of the number of turns of all the engines by the same extent.-
The apparatusaccording to this invention meets all the,above requirements. It is based essentially on the combination of the two known principles of the differential gear and of the control device of the friction lock or other similar type.
The accompanying drawings show by way of example a constructional form of the device according to this invention in connection with a three engine control, one of the en-.-
gines being placed in the middle and the other two laterally of'the former.
Figural is a longitudinal section through the device.
Figure 2 is a cross section thereof. Fig. 3 is a cross-section of the lock device. Referring to the drawings, 1 denotes a frame, on which a pivot pin 2 ismounted and supports the mechanism for controlling the various engines (three, in the exam le 7 shown) This mechanism comprises han es 3 and 4: serving for governing (e. g. for the carburetor and magneto control) the lateral engines and handle 5 serving for governing the central engine. The handles 3 and 4 are riveted at 6 to a disk-shaped member 7 of friction actuating devices 21 while the handle 5 is fixed to a disk-shaped member of a friction operating device 23 similar to the former.
The friction actpating devices 21 are loosely mounted on s eeves 11 and 15 respectively slipped on, the pivot pin 2', while the frlction operated device 23 is loosely mount ed on a tlibular extension of the adjacent device 21. a
Each friction actuating device includes a drum, in which an oval cam 17 is arranged which'is connected by means of a pin an slot connection 42 with the adjacent diskshaped member 7 and rigidly fixed to the hub of a lever 8', or 9, or 10; said levers are connected attheir otherend with the carburetor'or magneto rods of the respective en ne.
prings 16 are arranged in the space beparts of the cam 17 having a smaller radius of curvature, are forced by said springs between the drum and the cam for locking thetwo parts together.
A pair of projections 40 diametrically oppose fixed to the disk 7 is situated between pairs of adjacent balls 43, so that when the corresponding control handle 3, or 4, or 5 is displaced in one direction, said projections dis lace first a pair of diametrically opposed alls to disen age the cam 17 from the drum whereupon t e pins 42 engage one end of the respective slot to effect the displacement of the correspondinglever 8, or 9, or 10. When the control handle is displaced in the opposite direction, the other pair of diametrically opposed'balls is actuated and when the pins 42reach the other we I fected by means of the fork 12. Said fork encloses a differential gear comprising a bevel pinion 18 fast with the lever 13 and two bevel wheels 19 connected by teeth couplings 20 with the drums of the friction actuating devices 21 of the lateral levers 8 and 9. The drum of the friction device 23 of the central lever 10 is secured by means of screws 22 to the fork 12.
In order to lock the main lever 13 it is provided with a grooved cone 24, which is brought by means of a spring 26 into engagement with the double conical sector which is correspondingly grooved. To release the handle 13 a knob 27 is pressed by the hand and moves downwards through the rod 28 and the pin 29, the cone 24 which becomes thus disengaged from the sector 25.
The unit is protected by a cylindrical sheet metal box 30 secured by screws 31 to the casing 1. A sheet metal box 32 is secured by screws 33 on the casing 30 and thetwo conical grooved sectors 25 are riveted or welded to a central opening of said box.
The casing comprises a cylindrical bottom '34 with-two lateral ridges 35 enclosing the oil for lubricating the gearings of the differential mechanism; the central bearing 36 supporting the pin 2 and keeping the two bevel wheels 19 in spaced relation.
By this arrangement when the main lever 13 is at rest and consequently locked the grooved cone 24, the drums of the friction devices associated therewith are also locked and each of the levers 8, 9, and 10 may be actuated by the respective handles 3, 4 and 5 as above described. In order to effect the common engine control through the main handle 13, thesknob 27 is depressed thus releasing the grooved cone 24 from the sectors 25 and the handle is inclined in one or the other direction,'as required, so that by displacing the drums of the friction devices 21 and 23, these latter carry along the three levers 8, 9 and 10.
'When one of the handles 3, 4 :or 5 reaches the end of its stroke before the others, it strikes against the end of the slot in the box enclosing the unit and stops; its extensions I 40 are thus locked and acting on the balls 43 release. the handles 3, or 4 or-5 and corresponding levers 8, 9 or 10 of the drum of the corresponding friction device, which continues to rotate idle. The other handles (to: gether with the parts associated therewith) are permitted to move further until all the levers are in the fully on or off position, this being ossible also through the greater force of the andle 13 which is capable of performing an angular displacement almost twice as great as that of each handle 3, 4 or 5.
For the differential control of each engine 7 the handle 13 is rotated about its axis by means of the grip 14. The pinion 18 is thus rotated and being in mesh with the two bevel Wheels 19 solidly connected withthe drums of the operating friction devices of the levers 7 8 and 9 controlling the lateral engines, it displaces said levers in opposite directions.
What I claim is: 1. Engine control formultiple engine aeroplanes comprising levers for adjusting each 2 engine, handles for operating said levers, a friction lock device inserted between each of said levers and their respective handles, a
main lever connected with one member of said lock devices for simultaneously actuat-" 2 ing said adjusting levers.
2. Engine control for multiple engine aeroplanes comprising levers for adjusting each engine, handles'for operating said levers, a
friction lock device inserted between each of 1 said levers and their respective handles, a main control lever, a plmon on said lever and bevel gears on one member of each of said lock devices, said gears meshing with said pinion in order to simultaneously actuate" said adjusting levers.
3. Engine control for multiple engine aeroplanes comprlsing a casing, a pivot mounted on said casing, levers for adjusting each of the engines mounted on said pivot, handles 3 for actuating said levers mounted on said pivot, a friction lock device interposed between each of said levers and their respective handles, said device being mounted on said pivot and a main control lever mounted on I device for each of said levers and its respec tive handle, consisting of a drum connected with said main lever, an oval camwarranged on said drum, balls in the space between said cam and said drum, springs for forcing said balls between said drum and said cam for' locking together said parts, a pin and slot connection between said cam-and its respective lever and projections carried by. the respective handle for removing said balls from .the locked position and a box with guide slots for "said handles, so that when one of said handles reaches the end of its respective guide slot, it carries s'aidballs of the lock device into-the releasedvposition for disconnecting the respective lever and permitting the further motion of the others. Y
Leeaaee 5. An engine control for multiple engine aeroplanes comprising amain lever for simul taneously adjusting said engines, levers for controlling the individual engines, handles for actuating said levers, a friction lock device between each of said levers and its respective handle consisting of a drum connected with said main lever, an oval cam arranged on said drum, balls in the space between said cam and said drum, springs for forcing said balls between said drum and said cam for locking together said parts, a pin and slot connection between said cam and its respective lever and projections carried by the respective handle for removing said balls from the locked position, a pinion on the main lever, bevel gears on the drum of said friction lock device, said gears being in mesh with said pinion for simultaneously actuating said control levers and a box with guide slots for said handles, so that when one of said handles reaches the end of its respective guide slot, it carries said balls of the lock device into the released position for disconnecting the respective lever and permitting the latter motion of the others.
6. An engine control for multiple engine aeroplanes as defined by claim 5 'in which means are provided for locking said main 1ever in its adjusted position.
An engine control for multiple engine aeroplanes as defined by claim 5 provided with a grooved cone slidable on said main lever, a pair of grooved sectors fixed to said box for co-operating with said cone and a pressure member for releasing at will said cone from said sectors.
8. An engine control for multiple engine aeroplanes comprising levers "for adjusting each engine, handles for operating said levers, a friction lock device inserted between each of said levers and their respective handles, a main lever connected with one member of said lock devices for simultaneously actuating said adjusting levers and abox having a guide slot for said handles and means for disconnecting said levers from the main lever upon its contact with one end of the guide slot.
9. An engine control for multiple engine aeroplanes comprising levers for adjusting each engine, handles for operating said levers, a friction lock device inserted between each of said levers and their respective handles, a main control lever, a pinion on said lever and bevel gears on one member of each of said lock devices, said gears meshing with said pinion in order to simultaneously actuate said'adjusting levers and a box with a guide slot for said handles, and means for discon-' necting said levers from the main lever upon its contacting one end of its guide slot.
In testimony that I claim the foregoing as my invention, I have signed my name.
CELESTINO ROSATELLI.
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Cited By (25)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2429901A (en) * 1944-05-18 1947-10-28 Automatic Locking Devices Inc Instrument control adapter
US2439393A (en) * 1945-08-03 1948-04-13 Ralph W Kerr Synchronized control unit
US2444364A (en) * 1941-06-26 1948-06-29 Erwin J Panish Clutch and power supply control system
US2445602A (en) * 1945-07-19 1948-07-20 Ernest J Casaroll Adjustable control device
US2447469A (en) * 1944-10-20 1948-08-17 Automatic Locking Devices Inc Quadrant control
US2457610A (en) * 1943-05-22 1948-12-28 Westinghouse Air Brake Co Control apparatus for prime movers
US2458446A (en) * 1947-04-24 1949-01-04 Aero Supply Mfg Co Inc Self-locking lever control
US2492245A (en) * 1945-07-25 1949-12-27 Cons Vultee Aircraft Corp Aircraft control means
US2493272A (en) * 1944-05-18 1950-01-03 Automatic Locking Devices Inc Instrument control
US2497558A (en) * 1943-11-09 1950-02-14 Donald H Reeves And Associates Fluid valve assembly
US2506222A (en) * 1946-04-18 1950-05-02 Kesses Charles Controlling stick for airplanes
US2534168A (en) * 1946-03-01 1950-12-12 United Aircraft Corp Control for aircraft drives
US2559960A (en) * 1941-02-27 1951-07-10 Houplain Rene Benjamin Self-locking mechanism
US2568127A (en) * 1948-04-20 1951-09-18 Westinghouse Air Brake Co Fuel flow control responsive to turbine inlet temperature and speed for coal burning gas turbines
US2579959A (en) * 1950-09-13 1951-12-25 Delmore P Petersen Multiple throttle control
US2594888A (en) * 1948-04-22 1952-04-29 Armstrong Whitworth Co Eng Control of multiengine aircraft
US2608104A (en) * 1948-04-27 1952-08-26 Northrop Aircraft Inc Throttle system for jet engines
US2613547A (en) * 1948-12-07 1952-10-14 Lockheed Aircraft Corp Dual throttle control
US2621482A (en) * 1947-09-04 1952-12-16 Harold W Meade Pressure-operated mechanism for controlling fluid flow
US2910886A (en) * 1957-05-17 1959-11-03 Kaman Aircraft Corp Mechanism for adjusting throttles of a plurality of engines
US3041018A (en) * 1958-04-18 1962-06-26 Short Brothers & Harland Ltd Aircraft adapted for vertical take-off and landing
US3324658A (en) * 1963-11-26 1967-06-13 Arnold J Wilkinson Mechanism for the interconnection of throttle linkages in multi-engined vehicles
US3358962A (en) * 1964-09-08 1967-12-19 Dover Corp Self-locking positioning device
US20060230871A1 (en) * 2005-04-18 2006-10-19 Shuji Iekura Control device for marine propulsion system
US10836501B2 (en) * 2016-11-14 2020-11-17 Dassault Aviation Device for managing the mechanical energy of an aircraft, having an energy management auxiliary system, related aircraft and process

Cited By (26)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2559960A (en) * 1941-02-27 1951-07-10 Houplain Rene Benjamin Self-locking mechanism
US2444364A (en) * 1941-06-26 1948-06-29 Erwin J Panish Clutch and power supply control system
US2457610A (en) * 1943-05-22 1948-12-28 Westinghouse Air Brake Co Control apparatus for prime movers
US2497558A (en) * 1943-11-09 1950-02-14 Donald H Reeves And Associates Fluid valve assembly
US2429901A (en) * 1944-05-18 1947-10-28 Automatic Locking Devices Inc Instrument control adapter
US2493272A (en) * 1944-05-18 1950-01-03 Automatic Locking Devices Inc Instrument control
US2447469A (en) * 1944-10-20 1948-08-17 Automatic Locking Devices Inc Quadrant control
US2445602A (en) * 1945-07-19 1948-07-20 Ernest J Casaroll Adjustable control device
US2492245A (en) * 1945-07-25 1949-12-27 Cons Vultee Aircraft Corp Aircraft control means
US2439393A (en) * 1945-08-03 1948-04-13 Ralph W Kerr Synchronized control unit
US2534168A (en) * 1946-03-01 1950-12-12 United Aircraft Corp Control for aircraft drives
US2506222A (en) * 1946-04-18 1950-05-02 Kesses Charles Controlling stick for airplanes
US2458446A (en) * 1947-04-24 1949-01-04 Aero Supply Mfg Co Inc Self-locking lever control
US2621482A (en) * 1947-09-04 1952-12-16 Harold W Meade Pressure-operated mechanism for controlling fluid flow
US2568127A (en) * 1948-04-20 1951-09-18 Westinghouse Air Brake Co Fuel flow control responsive to turbine inlet temperature and speed for coal burning gas turbines
US2594888A (en) * 1948-04-22 1952-04-29 Armstrong Whitworth Co Eng Control of multiengine aircraft
US2608104A (en) * 1948-04-27 1952-08-26 Northrop Aircraft Inc Throttle system for jet engines
US2613547A (en) * 1948-12-07 1952-10-14 Lockheed Aircraft Corp Dual throttle control
US2579959A (en) * 1950-09-13 1951-12-25 Delmore P Petersen Multiple throttle control
US2910886A (en) * 1957-05-17 1959-11-03 Kaman Aircraft Corp Mechanism for adjusting throttles of a plurality of engines
US3041018A (en) * 1958-04-18 1962-06-26 Short Brothers & Harland Ltd Aircraft adapted for vertical take-off and landing
US3324658A (en) * 1963-11-26 1967-06-13 Arnold J Wilkinson Mechanism for the interconnection of throttle linkages in multi-engined vehicles
US3358962A (en) * 1964-09-08 1967-12-19 Dover Corp Self-locking positioning device
US20060230871A1 (en) * 2005-04-18 2006-10-19 Shuji Iekura Control device for marine propulsion system
US7665381B2 (en) * 2005-04-18 2010-02-23 Yamaha Hatsudoki Kabushiki Kaisha Control device for marine propulsion system
US10836501B2 (en) * 2016-11-14 2020-11-17 Dassault Aviation Device for managing the mechanical energy of an aircraft, having an energy management auxiliary system, related aircraft and process

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