US556914A - Wind-motor - Google Patents

Wind-motor Download PDF

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US556914A
US556914A US556914DA US556914A US 556914 A US556914 A US 556914A US 556914D A US556914D A US 556914DA US 556914 A US556914 A US 556914A
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rudder
wheel
wind
wing
rod
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    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F03MACHINES OR ENGINES FOR LIQUIDS; WIND, SPRING, OR WEIGHT MOTORS; PRODUCING MECHANICAL POWER OR A REACTIVE PROPULSIVE THRUST, NOT OTHERWISE PROVIDED FOR
    • F03DWIND MOTORS
    • F03D7/00Controlling wind motors 
    • F03D7/02Controlling wind motors  the wind motors having rotation axis substantially parallel to the air flow entering the rotor
    • F03D7/0204Controlling wind motors  the wind motors having rotation axis substantially parallel to the air flow entering the rotor for orientation in relation to wind direction
    • F03D7/0208Orientating out of wind
    • F03D7/0212Orientating out of wind the rotating axis remaining horizontal
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F03MACHINES OR ENGINES FOR LIQUIDS; WIND, SPRING, OR WEIGHT MOTORS; PRODUCING MECHANICAL POWER OR A REACTIVE PROPULSIVE THRUST, NOT OTHERWISE PROVIDED FOR
    • F03DWIND MOTORS
    • F03D9/00Adaptations of wind motors for special use; Combinations of wind motors with apparatus driven thereby; Wind motors specially adapted for installation in particular locations
    • F03D9/20Wind motors characterised by the driven apparatus
    • F03D9/28Wind motors characterised by the driven apparatus the apparatus being a pump or a compressor
    • 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
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02EREDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E10/00Energy generation through renewable energy sources
    • Y02E10/70Wind energy
    • Y02E10/72Wind turbines with rotation axis in wind direction

Definitions

  • This invention has for its object the production of means for pumping water by the action of the wind upon the blades or sails of a wi 11d-wheel in a simple and etlicient manner.
  • the win d-wheel to be hereinafter described is so light th at it will rotate and perform useful work in the lightest breezes, while possessing strength suiiicient to withstand the severest hurricane,the construction of the wheel being such that it can be shipped in pieces and quickly put together,and when so pnt together is entirely self-contained, whereby it can be applied to or removed intact from its shaft.
  • the wheel-rim is made light and thin, depending upon compression. for its strength, the spokes connecting the rim and hub being mere wires under high tensional strain and giving great rigidity to the wheel.
  • Figure l in elevation and partially in section represents a wind-wheel and rudder embodyin g one form of my invention, the wheel being shown at right angles to the spectator and with the supporting-standard and pumprod broken out to save space.
  • Fig. 2 is an end view of the rudder, looking toward the left
  • Fig. 3 is a top or plan view of the mechanism shown in Fig. 1 and illustrating one form ot mechanism for turning the rudder relative to the plane of the wheel.
  • Fig. i is a partial front elevation of the windwheel.
  • Fig. 5 is a similar view showing a modified form of wheel.
  • Fig. 6 is a side ele- Serial No. 564,902. (No model.)
  • Fig. 7 is a top or plan view thereof.
  • Fig. 8 is a plan view of yet another modification of the rudder.
  • Fig. 9 in elevation represents a modilied form of attachment for the rudder and the connections between it and the wind-wheel.
  • Fig. l() is a top or plan view thereof; and Figs. 1l, 12, 13, and le are cross-sectional views of various forms of wind-blades, showing the mode of attaching them to the spokes of the wheel.
  • the wheel comprises a rim a of comparatively thin metal of suitable breadth, a hub I), and spokes c, the rim having drilled therein a row ci' holes near each edge, the holes in one row being set forward of the holes in the other row a distance depending upon the angle of the blades.
  • the hub h is preferably made of cast metal, having annular disks h" and b2 at its front and rear end, respectively, the disk b having alaterally-extended peripheral flange b3, in which two rows of holes are drilled corresponding to the holes in the wheel-rim o..
  • a series ot rods or wires e under tension pass through the outer rows of holes on the rim a and disklike flange b3 and retained in place under tension by suitable nuts c' and e2, while a second series of similar rods or wires f pass through the inner rows of holes in rim and flange and are retained by nuts f' and f2, and owing to the staggered arrangement of the holes in the two rows the pairs of tension members determine the angle of the blades.
  • the disk b2 has a row of holes therein, and a central row is made in the wheel-rim a to receive tension members t, retained in place by nuts g and bolts g2, as clearly shown in Figs. l and 4, and by means of the nuts on the threaded tension members e, f and g the latter can be stretched very tightly to bring the rim rigid and true with the hub.
  • the hub b is longer than the width of the rim c, and when the spokes c and f are under proper tension relative to the lateral braces g the rim is brought substantially into a plane equidistant from the hub ends.
  • a wheel thus constructed is a large bicycle-wheel with a flat rim, possessing the same advantages of extreme lightness and IOO strength, the differences in details of construction adapting it for use as a wind-wheel.
  • the iiange h3 is narrower than the rim a the inner ends of the tension members e and 5 f converge, and to pairs of said members the wind-blades are attached, said members thus serving a double purpose.
  • the wires g at the back of the wheel are tension-braces and may be wider apart than the member e and. f.
  • the blades may be made of wood, metal, papier-mache, leatheroid, or other suitable material, and they may be attached to their supporting members in various ways.
  • Fig. 1l I have shown in cross-section a non-metallic blade c, provided on oneface with grooves c parallel to its longitudinal edges, which latter converge toward its in ⁇ ner end at an angle corresponding to the angle between the two wires c and f of any pair, and by pressing the blade against the wires to embed them in the grooves and then moving the blade longitudinally toward the wheel center it becomes wedged in place and can be retained by a staple or other device.
  • a sheet-metal blade d is shown with its longitudinal edges d2 bent around the tension members.
  • FIG. 14 Yet another modification of blade is shown at (Z3, Fig. 14, wherein the longitudinal edges are grooved at d4 to receive the tension members, the shape of the blades, whatever the manner of attaching them to the tension members, being shown in Figs. 1 and Li.
  • the complete wheel is fixed by a suitable set-screw bx, Fig. 1, upon a spindle or shaft b4 rotatable in a bearing B in a bracket-like casting B, said spindle or shaft having fast on its inner end a crank or disk b5, to which the pump-rod is connected, as will be described.
  • the casting B has a vertical hub B2 provided with raceways to receive balls U5, held in place by flanges 15 and 1G on the upper end of a hollow supporting-standard D, forming an extended and antifriction-bearin g ⁇ for the bracket B and the weight carried thereby, and renders the rudder very sensitive.
  • In the bearing B is formed an oil-reservoir 6, and a wick 7 feeds the oil to the shaft L, oil being introduced into the reservoir by means of an oil-cup 8.
  • the pump-rod F passes through the hollow standard D and above the top of the latter has a loose sleeve p held in place by collars 2 2 on the rod and connected pivotally to the forked end 1)/ of a pitman P pivoted at its upper end tothe crank-disk if at p2, whereby the pump-rod-may be freely rotated while being securely connected to the pitman P.
  • a rudder-casting H is hinged to the casting B by a pintle h, and the arms h of the rudder are bolted to the casting il, said arms being grooved to receive thin boards, forming the rudder H.
  • the arms 71. are bent at h toward their outer ends, (see Fig. 3,) and .fr wing H2 is pivoted to them or to the face or' the main rudder H', said wing being normally extended at an opposite and equal angle to the main rudder.
  • a fiat or other suitable weight 1V is suspended by toggle-arms 7b2 between the rudder H and the wing H2, said toggle-arms beingpivotally connected at their outer ends thereto, the weight XV normally tending to separatethe wing from the rudder as far as permitted by a chain or other flexible limiting device 12.
  • the rudder is thus turned on the standard D the wheel is turned out of the wind a distance proportional to the pressure and velocity of the wind above a predetermined amount, determined by the weight XV, so that excessive wheel velocity, shocks, jars, tre., will be prevented, the wing acting in conjunction with the rudder as a speed-governor, and only operatin g when necessary.
  • FIG. G and 7 A modified form of rudder and governor is shown in Figs. G and 7, wherein the ruddercasting K has rigidly attached thereto the rudder K, to the outer end of which the wing K2 is hinged KX, and normally kept in parallelism with the rudder.
  • a lever 7c pivoted at k to the rudder K', has a plate 76X secured to its upper end transversely to the length ot' the rudder, the lower end of the lever being attached to one end of a spring S, the other end of which is attached to the rudder to normally maintain the lever in the position shown in Fig. G, though obviously a weight on the end of the lever would subserve the same purpose.
  • a link 7a2, pivoted at one end to the lever 71:, is pivoted at its other end to an upright pin- 7a2 on a bent arm 7J* rigidly connected to the wing K2.
  • wing L' is hinged at or near its center at 35 to the outer end of the rudder L and by the same actuating mechanism (shown in Figs. 6 and 7) is swung into dotted-line position (shown in Fig. S) by the abnormal windpressure.
  • weights or springs may be used to balance a corresponding wind-pressue in any of the rudders shown, and other counterbalancing devices might be employed without departing from the spirit of my invention.
  • the pump-rod which may of necessity extend to or near the ground, to start and stop the wind-motor without necessitating a climb to the top of the tower or building.
  • a bearing 40 is fixed and through it is passed the depending hub -m of a gear-wheel m', a collar m2 on the lower end of the hub retaining it in the bearing.
  • the hub has a square or otherthan round hole through it, through which is extended the pump-rod l? having a corresponding cross-section, so that rotation of the rod will turn the hub and gear m', the rod being free to be reciprocated.
  • a segment-gear m3 in mesh with the gear m is pivoted on the pintle 7L of the rudder, Fig.
  • a long tooth mx at each end of the segment-gear 'm3 serves as a stop to prevent disengagement with the gear m'.
  • a slightly-modified construction is shown wherein the wheel-supporting bracket B5 has hubs BG to embrace the 'top of the standard, and the rudder-casting H5 is also provided with hubs H5, which also embrace the standard, the gear m rotatable by the pump-rod engaging a semicircular gear m7 journaled at m8 on an arm of the bracket B5 and provided with a longitudinally-slotted arm m9, which engages a pin m10 on the rudder, and in Fig. l0 the dotted lines show the position of the rudder and the gear when turned to stop the wheel.
  • My improved wind-motor is not restricted to pumping purposes, as by countersinking the outer ends of the tension members e and f and the braces g the rim a may be used as a pulley for driving a belt to transmit power to any desired piece of apparatus.
  • wind-blades may be regulated by turnbuckles or other devices, and said tension members may be arranged tangentially to the hub, as shown in Fig. 5.
  • the members e2 and j2O shown are connected to the ⁇ flange D30 of the hub-disk Z210 tangentially, and the braces g2O are also tangentially connected to the hub, crossing the other blade-supporting members, as shown in Fig. 5.
  • the Wires form the chief structural feature of the wheel, holding the rim and hub together while said wiresare under tension, and also serving in addition to support the wind-blades.
  • the governing devices controlling the rudders herein are not affected by the wind until its force or pressure becomes greater than desired, whereupon they act to prevent undue wheel velocity.
  • An ordinary side vane or rudder as heretofore used acts constantly, and does not permit the Wheel to steadily face the wind even when the latter is light, and hence is not a governor in the use of the term as herein employed.
  • a wind-wheel comprising a rim, an elongated hub, a double series of tension members fixed at their outer ends to the rim. and at their inner ends to one end of the hub, means to apply tensile strain to said tension members, and brace members under tension connecting the rim and the other end of the hub, the double series of tension members supporting wind-blades at an angle to the plane of the wheel, substantially as described.
  • a wind-wheel comprising a rim, an elongated hub having disks at or near its ends, tension spokes or wires connected at their IOO IIO
  • a main rudder a wing pivotally connected thereto and adapted to be swung toward or from the main rudder, and a governor to control the angular position of the win g relative to the rudder, said governor being actuated I by wind-pressure above a predetermined amount, substantially as described.
  • a rudder for wind-wheels comprising a main rudder, a wing pivotally connected thereto, meansA to normally maintain the said wing at a given angle relative to the main rudder, and a governor actuated by the pressure of the wind above a predetermined amount, to vary the angle of the wing to the main rudder, substantially as described.
  • a wind-motor a wind-wheel, a main rudder connected thereto, and relatively iXed to move the wheel relatively to the direction of the wind, a pivotally-mounted win g or auX- iliary rudder, and a governor controlled by excessive wind-pressure, to swing the wing at an angle to the main rudder, whereby the portionally out of the wind, substantially as described.
  • a rudder for wind-wheels comprising a main rudder, a wing pivotally connected thereto and adapted to be swung toward or away from it laterally, means to normally hold said wing fixed relatively to the main rudder, a blade pivotally supported on the latter and at right angles thereto, and connections between said blade and wing, whereby when the wind-pressure upon the blade overcomes the resistance of the holding means said blade and wing will be turned, to change the an- I gle between the wing and main rudder, substantially as described.
  • connections between the two castings includ- .in g a gear through which the rod reci procates and which is rotatable therewith, and means .to rotate the rod and gear to change the angle between the two cast-ings, substantially as described.

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  • Life Sciences & Earth Sciences (AREA)
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  • Chemical & Material Sciences (AREA)
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Description

XS V m e h S 3 m Wm Mmm AM DMD Bm @.W W d. d 0 M Patented Mar. 24, 1896.
5 x Z 702705 e j l 3 Sheets-Sheet 3 W. C. BRAMWBLL.
(No Model.)
WIND MOTOR.
No. 556,914 Patented Mar. 24, 1896.
waanzin rmweaa www ANDREW EGRAKAMJHUTO-UTHU WASMNETDILU c UNITED STATES PATENT Enron.
VILIAM C. BRAMWELL, OF HYDE PARK, MASSACHUS ITTS.
WIND-MOTORl SPECIFICATION forming part of Letters Patent No. 556,914, dated March 24, 1896.
Application filed October '7, l 895- To @ZZ whom t may concern:
le it known that LW'ILLIAM BRAMWELL, of Hyde Park, county of Norfolk, State oi Massachusetts, have invented an Improvement in rind-Motors, of which the following description, in connection with the accompanying drawings, is a specification, like letters and figures on the drawings representing like parts.
This invention has for its object the production of means for pumping water by the action of the wind upon the blades or sails of a wi 11d-wheel in a simple and etlicient manner.
The win d-wheel to be hereinafter described is so light th at it will rotate and perform useful work in the lightest breezes, while possessing strength suiiicient to withstand the severest hurricane,the construction of the wheel being such that it can be shipped in pieces and quickly put together,and when so pnt together is entirely self-contained, whereby it can be applied to or removed intact from its shaft. The wheel-rim is made light and thin, depending upon compression. for its strength, the spokes connecting the rim and hub being mere wires under high tensional strain and giving great rigidity to the wheel.
l have provided simple mechanism for conveniently starting and stopping the wheel from at or near the ground by means of the pump-rod, and the speed of the wheel in high winds is governed automatically by devices attached to the rudder and acting when a predetermined pressure of the wind on said rudj der is exceeded, as will be hereinafter described in the specification and particularly pointed out in the claims.
Figure l in elevation and partially in section represents a wind-wheel and rudder embodyin g one form of my invention, the wheel being shown at right angles to the spectator and with the supporting-standard and pumprod broken out to save space. Fig. 2 is an end view of the rudder, looking toward the left, Fig. l. Fig. 3 is a top or plan view of the mechanism shown in Fig. 1 and illustrating one form ot mechanism for turning the rudder relative to the plane of the wheel. Fig. i is a partial front elevation of the windwheel. Fig. 5 is a similar view showing a modified form of wheel. Fig. 6 is a side ele- Serial No. 564,902. (No model.)
vation of a modified form of rudder and governor therefor. Fig. 7 is a top or plan view thereof. Fig. 8 is a plan view of yet another modification of the rudder. Fig. 9 in elevation represents a modilied form of attachment for the rudder and the connections between it and the wind-wheel. Fig. l() is a top or plan view thereof; and Figs. 1l, 12, 13, and le are cross-sectional views of various forms of wind-blades, showing the mode of attaching them to the spokes of the wheel.
Referring to Figs. l, 3 and i, the wheel comprises a rim a of comparatively thin metal of suitable breadth, a hub I), and spokes c, the rim having drilled therein a row ci' holes near each edge, the holes in one row being set forward of the holes in the other row a distance depending upon the angle of the blades. The hub h is preferably made of cast metal, having annular disks h" and b2 at its front and rear end, respectively, the disk b having alaterally-extended peripheral flange b3, in which two rows of holes are drilled corresponding to the holes in the wheel-rim o.. A series ot rods or wires e under tension pass through the outer rows of holes on the rim a and disklike flange b3 and retained in place under tension by suitable nuts c' and e2, while a second series of similar rods or wires f pass through the inner rows of holes in rim and flange and are retained by nuts f' and f2, and owing to the staggered arrangement of the holes in the two rows the pairs of tension members determine the angle of the blades. The disk b2 has a row of holes therein, and a central row is made in the wheel-rim a to receive tension members t, retained in place by nuts g and bolts g2, as clearly shown in Figs. l and 4, and by means of the nuts on the threaded tension members e, f and g the latter can be stretched very tightly to bring the rim rigid and true with the hub.
As will be seen in Figs. l and 3, the hub b is longer than the width of the rim c, and when the spokes c and f are under proper tension relative to the lateral braces g the rim is brought substantially into a plane equidistant from the hub ends.
In principle a wheel thus constructed is a large bicycle-wheel with a flat rim, possessing the same advantages of extreme lightness and IOO strength, the differences in details of construction adapting it for use as a wind-wheel. As the iiange h3 is narrower than the rim a the inner ends of the tension members e and 5 f converge, and to pairs of said members the wind-blades are attached, said members thus serving a double purpose.
The wires g at the back of the wheel are tension-braces and may be wider apart than the member e and. f.
The blades may be made of wood, metal, papier-mache, leatheroid, or other suitable material, and they may be attached to their supporting members in various ways.
In Fig. 1l I have shown in cross-section a non-metallic blade c, provided on oneface with grooves c parallel to its longitudinal edges, which latter converge toward its in` ner end at an angle corresponding to the angle between the two wires c and f of any pair, and by pressing the blade against the wires to embed them in the grooves and then moving the blade longitudinally toward the wheel center it becomes wedged in place and can be retained by a staple or other device.
In Figs. 1 and -t and in Fig. 12 the blade d is shown as held to the two tension members by small staples 10, passed through the blade and clinched or bent over its face, and in Fig. 13 a sheet-metal blade d is shown with its longitudinal edges d2 bent around the tension members.
Yet another modification of blade is shown at (Z3, Fig. 14, wherein the longitudinal edges are grooved at d4 to receive the tension members, the shape of the blades, whatever the manner of attaching them to the tension members, being shown in Figs. 1 and Li.
The complete wheel is fixed by a suitable set-screw bx, Fig. 1, upon a spindle or shaft b4 rotatable in a bearing B in a bracket-like casting B, said spindle or shaft having fast on its inner end a crank or disk b5, to which the pump-rod is connected, as will be described. The casting B has a vertical hub B2 provided with raceways to receive balls U5, held in place by flanges 15 and 1G on the upper end of a hollow supporting-standard D, forming an extended and antifriction-bearin g `for the bracket B and the weight carried thereby, and renders the rudder very sensitive. In the bearing B is formed an oil-reservoir 6, and a wick 7 feeds the oil to the shaft L, oil being introduced into the reservoir by means of an oil-cup 8.
The pump-rod F passes through the hollow standard D and above the top of the latter has a loose sleeve p held in place by collars 2 2 on the rod and connected pivotally to the forked end 1)/ of a pitman P pivoted at its upper end tothe crank-disk if at p2, whereby the pump-rod-may be freely rotated while being securely connected to the pitman P.
A rudder-casting H is hinged to the casting B by a pintle h, and the arms h of the rudder are bolted to the casting il, said arms being grooved to receive thin boards, forming the rudder H. The arms 71. are bent at h toward their outer ends, (see Fig. 3,) and .fr wing H2 is pivoted to them or to the face or' the main rudder H', said wing being normally extended at an opposite and equal angle to the main rudder.
Referring to Fig. 2, a fiat or other suitable weight 1V is suspended by toggle-arms 7b2 between the rudder H and the wing H2, said toggle-arms beingpivotally connected at their outer ends thereto, the weight XV normally tending to separatethe wing from the rudder as far as permitted by a chain or other flexible limiting device 12.
Should the force of the wind increase sufficiently to press the wing inward, thereby overcoming the weight NV, the said wing would collapse more or less nearly to the dotted-line position, Fig. 3, thereby destroying the equilibrium of the rudder. The wind coming in the direction of arrow 20, Fig. 3. the rudder will be turned more or less in the direction of arrow 25, Fig. 3, according to the amount of inward movement of the wing H2, the wind-pressure acting against the outer face of. the bent portion of the rudder. Then the rudder is thus turned on the standard D the wheel is turned out of the wind a distance proportional to the pressure and velocity of the wind above a predetermined amount, determined by the weight XV, so that excessive wheel velocity, shocks, jars, tre., will be prevented, the wing acting in conjunction with the rudder as a speed-governor, and only operatin g when necessary.
A modified form of rudder and governor is shown in Figs. G and 7, wherein the ruddercasting K has rigidly attached thereto the rudder K, to the outer end of which the wing K2 is hinged KX, and normally kept in parallelism with the rudder.
Vhen it is necessary to counteract high velocity and wind-pressure, the wing is turned more or less nearly into dotted-line position, Fig. 7, whereby the rudder will be turned in the direction oi arrow 30. A lever 7c, pivoted at k to the rudder K', has a plate 76X secured to its upper end transversely to the length ot' the rudder, the lower end of the lever being attached to one end of a spring S, the other end of which is attached to the rudder to normally maintain the lever in the position shown in Fig. G, though obviously a weight on the end of the lever would subserve the same purpose. A link 7a2, pivoted at one end to the lever 71:, is pivoted at its other end to an upright pin- 7a2 on a bent arm 7J* rigidly connected to the wing K2.
XVhen the pressure and velocity of the wind exceed a predetermined amount it acts on the plate 75X at nearly a right angle thereto, forces the lever back against the spring S, and through the link 7a2 opens the wing K2, so that practically the rudder is bent, and the wind-pressure acting upon said wing will turn the rudder in direction of arrow 30 to throw the wheel out of the wind.
In the modification shown in Fig. S the wing L' is hinged at or near its center at 35 to the outer end of the rudder L and by the same actuating mechanism (shown in Figs. 6 and 7) is swung into dotted-line position (shown in Fig. S) by the abnormal windpressure.
Obviously weights or springs may be used to balance a corresponding wind-pressue in any of the rudders shown, and other counterbalancing devices might be employed without departing from the spirit of my invention.
I have herein utilized the pump-rod, which may of necessity extend to or near the ground, to start and stop the wind-motor without necessitating a climb to the top of the tower or building.
At the top of the standard D a bearing 40 is fixed and through it is passed the depending hub -m of a gear-wheel m', a collar m2 on the lower end of the hub retaining it in the bearing. The hub has a square or otherthan round hole through it, through which is extended the pump-rod l? having a corresponding cross-section, so that rotation of the rod will turn the hub and gear m', the rod being free to be reciprocated. A segment-gear m3 in mesh with the gear m is pivoted on the pintle 7L of the rudder, Fig. 3, and has an extended arm fm,4 provided with a hole or slot to receive a pin m5 secured to the rudder, so that rotation of the gear m' by means of the pump-rod P will cause the segment-gear m3 to be turned, thereby swinging the rudder on its pintle relative to the plane of the windwheel.
ln Fig. 3 the posit-ion of the wheel relative to the rudder is shown by dotted lines when the rudder is thus turned to its full extent.
At the lower end of the pump-rod I have shown in Fig. l a standard D2 rotatably supporting a controlling hand-wheel DE having a squared hole, through which a squared portion of the pump-rod passes and can be reciprocated, rotation of the wheel turning the rod to turn the geai` Im and thereby the rudder to start or stop the wheel.
Other devices may of course be used for effecting the rotative movement of the pumprod.
A long tooth mx at each end of the segment-gear 'm3 serves as a stop to prevent disengagement with the gear m'.
Much cumbersome and heavy mechanism is dispensed with, and a convenient and ready means of starting and stopping the wheel is provided.
In Figs. 9 and 10 a slightly-modified construction is shown wherein the wheel-supporting bracket B5 has hubs BG to embrace the 'top of the standard, and the rudder-casting H5 is also provided with hubs H5, which also embrace the standard, the gear m rotatable by the pump-rod engaging a semicircular gear m7 journaled at m8 on an arm of the bracket B5 and provided with a longitudinally-slotted arm m9, which engages a pin m10 on the rudder, and in Fig. l0 the dotted lines show the position of the rudder and the gear when turned to stop the wheel.
My improved wind-motor is not restricted to pumping purposes, as by countersinking the outer ends of the tension members e and f and the braces g the rim a may be used as a pulley for driving a belt to transmit power to any desired piece of apparatus.
Other means may be employed for attaching the wind-blades to the tension members, and the tension of the said members may be regulated by turnbuckles or other devices, and said tension members may be arranged tangentially to the hub, as shown in Fig. 5.
The members e2 and j2O shown are connected to the `flange D30 of the hub-disk Z210 tangentially, and the braces g2O are also tangentially connected to the hub, crossing the other blade-supporting members, as shown in Fig. 5.
lVherever the word tension is herein used it implies a powerful longitudinal strain, drawing the hub and rim of the wheel together with great force, sufficient to withstand the pressure of gaies and hurricanes against the face of the wind-wheel, whereas with mere tightness the wheel would be dismembered.
Although the wheel herein thus described is less than one-twentieth the weight of any wheel now known to me it cannot be blown to pieces.
In the wheel embodying my invention the Wires form the chief structural feature of the wheel, holding the rim and hub together while said wiresare under tension, and also serving in addition to support the wind-blades.
The governing devices controlling the rudders herein are not affected by the wind until its force or pressure becomes greater than desired, whereupon they act to prevent undue wheel velocity.
An ordinary side vane or rudder as heretofore used acts constantly, and does not permit the Wheel to steadily face the wind even when the latter is light, and hence is not a governor in the use of the term as herein employed.
I claiml. A wind-wheel comprisinga rim, an elongated hub, a double series of tension members fixed at their outer ends to the rim. and at their inner ends to one end of the hub, means to apply tensile strain to said tension members, and brace members under tension connecting the rim and the other end of the hub, the double series of tension members supporting wind-blades at an angle to the plane of the wheel, substantially as described.
2. A wind-wheel comprising a rim, an elongated hub having disks at or near its ends, tension spokes or wires connected at their IOO IIO
a main rudder, a wing pivotally connected thereto and adapted to be swung toward or from the main rudder, and a governor to control the angular position of the win g relative to the rudder, said governor being actuated I by wind-pressure above a predetermined amount, substantially as described.
4. A rudder for wind-wheels, comprising a main rudder, a wing pivotally connected thereto, meansA to normally maintain the said wing at a given angle relative to the main rudder, and a governor actuated by the pressure of the wind above a predetermined amount, to vary the angle of the wing to the main rudder, substantially as described.
5. In a wind-motor, a wind-wheel, a main rudder connected thereto, and relatively iXed to move the wheel relatively to the direction of the wind, a pivotally-mounted win g or auX- iliary rudder, and a governor controlled by excessive wind-pressure, to swing the wing at an angle to the main rudder, whereby the portionally out of the wind, substantially as described.
6. A rudder for wind-wheels, comprising a main rudder, a wing pivotally connected thereto and adapted to be swung toward or away from it laterally, means to normally hold said wing fixed relatively to the main rudder, a blade pivotally supported on the latter and at right angles thereto, and connections between said blade and wing, whereby when the wind-pressure upon the blade overcomes the resistance of the holding means said blade and wing will be turned, to change the an- I gle between the wing and main rudder, substantially as described.
7. In awind-motor, the wind-wheel, its rudder, a governor for the rudder, operated by eX- cess of wind-pressure above a predetermined amount, to automatically turn the wheel out whereby rotation of the rodl will vary the angle of the rudder relative to the plane of the wind-wheel, substantially as described.
9. A wind-wheel, arudder hinged thereto, a rod longitudinally reciprocated by rotation of the wheel, and rotatable on its longitudinal axisa gear adapted to be rotated by said rod, and an intermediate gear connected to the rudder and in mesh with the rotatable gear, whereby the angle of the rudder may .be changed by rotation of the reciprocable rod, substantially as described.
l0. A-hollow supporting-standard, a casting rotatably mounted thereon, a wind-Wheel mounted on said casting, and a rudder hinged thereto', combined with a rotatable and re- 4 eiprocable pump-rod extended through the I standard and reciprocated by the wind-wheel.
and means intermediate said rod and rudder` to turn the latter upon its support by rotation of the rod, substantially as described. latter will be deflected to turn the wheel proll. A hollow supporting-standard, a casting mounted to swing laterally thereon, a ywind-wheel carried by the casting, and its shaft and crank-pin, a rudder, its casting also mounted on the standard, a rotatable rod eX- l tendedV through the standard and connected to said crank-pin, to be reciprocated thereby,
connections between the two castings, includ- .in g a gear through which the rod reci procates and which is rotatable therewith, and means .to rotate the rod and gear to change the angle between the two cast-ings, substantially as described.
In testimony whereof I have signed my name to this specification in the presence of two subscribing witnesses. Y
IVILLIAM C. BRAMWELL. IVitnesses:
JOHN C. EDWARDS, AUGUSTA E. DEAN.
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Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US20130315732A1 (en) * 2012-05-24 2013-11-28 Richard K. Sutz Horizontal axis wind machine with multiple rotors
USD816826S1 (en) 2016-10-20 2018-05-01 Quorum International, Inc. Windmill ceiling fan
US10066597B2 (en) * 2016-12-14 2018-09-04 Thunderbird Power Corp Multiple-blade wind machine with shrouded rotors
US10465693B2 (en) * 2016-12-21 2019-11-05 Quorum International, Inc. Windmill ceiling fan
USD900296S1 (en) 2018-12-06 2020-10-27 Quorum International, Inc. Ceiling fan

Cited By (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US20130315732A1 (en) * 2012-05-24 2013-11-28 Richard K. Sutz Horizontal axis wind machine with multiple rotors
US10030628B2 (en) * 2012-05-24 2018-07-24 Thunderbird Power Corp Horizontal axis wind machine with multiple rotors
USD816826S1 (en) 2016-10-20 2018-05-01 Quorum International, Inc. Windmill ceiling fan
US10066597B2 (en) * 2016-12-14 2018-09-04 Thunderbird Power Corp Multiple-blade wind machine with shrouded rotors
US10465693B2 (en) * 2016-12-21 2019-11-05 Quorum International, Inc. Windmill ceiling fan
USD900296S1 (en) 2018-12-06 2020-10-27 Quorum International, Inc. Ceiling fan

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