CN100412413C - Driving device for automatically applying variable torgue on output shaft for rotation in constant speed - Google Patents

Driving device for automatically applying variable torgue on output shaft for rotation in constant speed Download PDF

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Publication number
CN100412413C
CN100412413C CNB01141796XA CN01141796A CN100412413C CN 100412413 C CN100412413 C CN 100412413C CN B01141796X A CNB01141796X A CN B01141796XA CN 01141796 A CN01141796 A CN 01141796A CN 100412413 C CN100412413 C CN 100412413C
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China
Prior art keywords
variable
output shaft
magnet apparatus
diameter pulley
input shaft
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CNB01141796XA
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CN1409031A (en
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穆宗南
杜侑达
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SHENGYUAN SCIENCE & TECHNOLOGY Co Ltd
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SHENGYUAN SCIENCE & TECHNOLOGY Co Ltd
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Abstract

The present invention relates to a driving device for automatically applying variable torque on an output shaft for rotation at constant speed, which is composed of a power supply unit and a torque converter, wherein the power supply unit can output fixed power; the torque converter is provided with a gear set, a flywheel, an input shaft, an output shaft and a belt member. The gear set is connected to the power supply unit, the flywheel and the input shaft; the input shaft and the output shaft are respectively provided with a first pulley and a second pulley with variable diameters; the belt member draws the first pulley and the second pulley under the state of tension; the first pulley and the second pulley can automatically change effective diameters according to the torque applied to the input shaft and the output shaft, and the flywheel can makes up for the change of power of the output shaft without the change of power of the power supply unit. The present invention can make the output shaft rotate at constant speed, and make working machine tools, generators, etc. work in a stable state.

Description

The drive unit of automatically applying variable torque on the output shaft that rotates with constant speed
Technical field
The invention relates to a kind of drive unit, be meant a kind of variable torque that applies automatically especially on its output shaft, and the drive unit of automatically applying variable torque on the output shaft that rotates with constant speed that can keep constant speed to rotate.
Background technique
Known drive unit comprises power supply unit, as motor, engine etc., and gear unit, this gear unit is connected with this power supply device, so that by this power supply device transferring power to a load; This gear unit has a torque converter, in order to change the torque-velocity ratio between an one input shaft and an output shaft.One typical torque converter is the gear train that can be operated by a gear shift lever, to export the required variable torque of a variable load; But the user must often adjust this gear shift lever for responding the load that changes, so that apply suitable torque in this output shaft.In addition, the rotating speed of this output shaft can change and change along with the torque that puts on the output shaft, therefore, when known drive unit is used to drive a machine tool, a generator, the operator must often adjust power from this power supply unit to keep a fixed rotating speed of this output shaft, so that this machine tool, generator equal to work under the steady state, this causes all inconvenience of operator.
The inventor is engaged in the energy and Related product research and development for many years, designs with it, in view of known armature shaft with external motivational drive electricity generating device, its adjustment, control electricity generating device rotating speed, mostly with manual operation and operation, very do not make, and must be with automatic adjustment, control, can adapt to must asking of electricity generating device, active research is improved, and develops the present invention.
Summary of the invention
The object of the present invention is to provide the drive unit of a kind of automatically applying variable torque on the output shaft that rotates with constant speed, it can apply a variable torque automatically in its output shaft, and this output shaft can keep constant speed to rotate output.
According to the drive unit of a kind of automatically applying variable torque of the present invention on the output shaft that rotates with constant speed, wherein comprise a power supply unit and a torque converter; This power supply unit can be exported the power of a fixed amount, and this torque converter has a gear train, a flywheel, an input shaft, an output shaft and a belt member.This gear train is connected in this power supply unit and is connected this flywheel and this input shaft, so that one first part and one second of transmitting this power respectively is partly to this flywheel and this input shaft, one first variable-diameter pulley is installed on this input shaft, one second variable-diameter pulley is installed on this output shaft, be wrapped on first and second variable-diameter pulley to this belt member tensioning, so that transmit second portion power to output shaft by input shaft.Second of this power partly applies a moment on input and output shaft and it is rotated with a desired speed; First and second variable-diameter pulley has first and second half one separately, and it can be done along separately input and output shaft and reach in opposite directions mutually away from moving, to change the effective diameter of pulley; The second half ones of this first variable-diameter pulley have a control unit, and when the rotating speed of this first variable-diameter pulley increased and reduces, this control unit can make this second half one move away from and move the first half ones towards this first variable-diameter pulley; When first and second half one of this second variable-diameter pulley reaches mutually in opposite directions away from moving to increase and when reducing its effective diameter, first and second half one of this first variable-diameter pulley then moves so that reduce accordingly and its effective diameter of increase, to keep the tension force of this belt member away from reaching relative to each other in opposite directions.
Take this, when a load applies the torque increase that is on this output shaft and reduces, this input shaft rotational speed also can reduce accordingly and increase, and the rotating speed of this flywheel also can reduce and increase to discharge power to this output shaft and receive power from this output shaft, the second half ones of this first variable-diameter pulley then can automatically shift to and move apart the first half ones of this first variable-diameter pulley by this control unit, so that the desired speed of this output shaft is remained unchanged and can not increase or reduce power from this power supply unit.
Technological scheme of the present invention is: the drive unit of a kind of automatically applying variable torque on the output shaft that rotates with constant speed comprises:
One power supply unit, it exports the power of a fixed amount; And
One torque converter, it has a gear train, one flywheel, one input shaft, one output shaft and a belt member, this gear train is connected in this power supply unit and is connected this flywheel and input shaft, and transmit respectively this power one first partly and one second partly to this flywheel and this input shaft, one first variable-diameter pulley is installed on the input shaft, one second variable-diameter pulley is installed on the output shaft, be wrapped in to this belt member tensioning on this first and second variable-diameter pulley, transmit this second portion power to this output shaft by this input shaft, second of this power partly applies a torque on this input and output shaft and it is rotated with a desired speed, first and second variable-diameter pulley has first and second half one separately, it can make mutual reaching in opposite directions away from moving to change the effective diameter of pulley along separately input and output shaft, the second half ones of this first variable-diameter pulley have a control unit, when the rotating speed of this first variable-diameter pulley increased and reduce, this control unit can make this second half one move away from and move the first half ones towards this first variable-diameter pulley; When first and second half one of this second variable-diameter pulley reaches mutually in opposite directions away from moving to increase and when reducing its effective diameter, first and second half one of this first variable-diameter pulley then moves so that reduce accordingly and its effective diameter of increase, to keep the tension force of this belt member away from reaching relative to each other in opposite directions;
When a load puts on the torque increase on this output shaft and reduces, this input shaft rotational speed also can reduce accordingly and increase, and the rotating speed of this flywheel also can reduce and increase to disengage power to this output shaft and receive power from this output shaft, the second half ones of this first variable-diameter pulley then nationality can automatically be shifted to and move apart the first half ones of this first variable-diameter pulley by this control unit, so that the desired speed of this output shaft is remained unchanged and can not increase or reduce power from this power supply unit.
The first half ones of this first variable-diameter pulley are fixed on this input shaft and the second half ones of this first variable-diameter pulley can move axially on this input shaft and can therewith rotate, first and second half one of this first variable-diameter pulley has the conical end of the symmetry of mutual and relative convergent, this input shaft is equipped with one first resilient member, and it is replaced with deflection, the conical end of the second half ones can be moved towards the conical end of this first half one, first and second half one of this second variable-diameter pulley can move axially on this output shaft and can therewith rotate, first and second half one of this second variable-diameter pulley has the conical end of the symmetry of mutual and relative convergent, this output shaft is equipped with two second resilient members, its deflection is replaced, the conical end of first and second half one of this second variable-diameter pulley can be moved mutually in opposite directions, the second half ones of this first variable-diameter pulley also have the guide groove that is distributed in a plurality of equal intervals around its conical end, each guide groove tilts towards the first half ones of this input shaft and this first variable-diameter pulley, this control unit has a plurality of balls that replaced by the spring deflection, these balls place some guide grooves and removable, can when this input shaft rotates, apply the second half ones of a centrifugal force, make the second half ones of this first variable-diameter pulley can overcome the angular force of this first resilient member and move away from this first half one in this first variable-diameter pulley.
This belt member is a V-shape belt that is looped around on the conical end of this first and second variable-diameter pulley.
This output shaft has a connected generator, and this generator has and the coaxial armature shaft that is connected of this output shaft.
This power supply unit comprises:
One pedestal;
One first magnet apparatus is installed in pedestal, and first magnet apparatus also has one first magnetic field;
One dirivig member is installed in pedestal and rotatable, and it is connected with this gear train; And
One second magnet apparatus, connect this dirivig member, one second magnetic field is arranged, this second magnet apparatus and this dirivig member are together with moving, and this second magnet apparatus forms towards first direction, cycle is through this first magnet apparatus, when this second magnet apparatus passes through this first magnet apparatus, first magnetic field of this first magnet apparatus and first magnetic field of second magnet apparatus interact mutually, make this second magnet apparatus to should alternately producing a positive force and a negative force by first magnet apparatus, and act on this first and second magnet apparatus, positive force makes this second magnet apparatus motion, and relative this first magnet apparatus formation of this second magnet apparatus is moved towards first direction; Negative force makes this second magnet apparatus motion, and this second magnet apparatus this first magnet apparatus relatively forms towards the second direction motion, and second direction is moved and moved in contrast to first direction; This second magnet apparatus acts in abutting connection with this first magnet apparatus and by its positive force in the interaction position, and this second magnet apparatus moves and away from this first magnet apparatus, uses generation inertial force towards first direction;
This second magnet apparatus cooperates inertial force effect, keeps the positive force effect, makes this second magnet apparatus and this dirivig member move through the position of contending with towards its first direction and is returned to the interaction position and can not be stopped by this negative force; Therefore this second magnet apparatus periodically moves in this interaction and the position of contending with, by this first and second magnetic field interaction and this inertial force, make to keep this positive force to act on this second magnet apparatus, make this dirivig member move and do not stopped towards first direction constantly by this negative force.
The present invention has overcome in the known technology defective with manual operation adjustment, control electricity generating device rotating speed, but the automatically applying variable torque makes output shaft can keep constant speed to rotate output on the output shaft that rotates with constant speed.
Description of drawings
The schematic representation of Fig. 1 preferred embodiment of the present invention;
The schematic perspective view of the power supply unit of Fig. 2 preferred embodiment of the present invention;
Fig. 3 preferred embodiment of the present invention explains that power supply unit is in the schematic representation of interaction position;
The left side view of second magnet apparatus of Fig. 4 preferred embodiment of the present invention power supply unit Fig. 3;
Fig. 5 preferred embodiment of the present invention explains that power supply unit is in the schematic representation of the position of contending with;
The left side view of second magnet apparatus of Fig. 6 preferred embodiment of the present invention power supply unit Fig. 5;
The schematic perspective view of the torque converter of Fig. 7 preferred embodiment of the present invention;
The floor map of the torque converter of Fig. 8 preferred embodiment of the present invention;
The schematic perspective view of the train of reduction gears of Fig. 9 preferred embodiment of the present invention;
The torque converter of Fig. 10 preferred embodiment of the present invention is in the schematic cross-section of first operating position;
The cross-sectional view that Figure 11 preferred embodiment of the present invention is intercepted along 11-11 line among Figure 10;
The schematic cross-section of the torque converter of Figure 12 preferred embodiment of the present invention when second operating position;
The cross-sectional view that Figure 13 preferred embodiment of the present invention is intercepted along 13-13 line among Figure 12.
The figure number explanation of accompanying drawing
10, power supply unit 122, pedestal 1221, first support 1222, second support
1223, the 3rd support 120, dirivig member 121, axle 123, disk
125, fixed tray 130, two magnet apparatus 1301, galianconism 131, second magnet
1311, the N utmost point 1312, the S utmost point 150, first magnet apparatus 1501, oblique galianconism
151, first magnet 1511, the N utmost point 1512, the S utmost point 20, torque converter
21, first transmission shaft 23, second transmission shaft 25, the 3rd transmission shaft 201, bearing
202,203, upstanding wall 200, gear train 22, first gear 224, second gear
225, the 3rd gear 226, the 4th gear 227, the 5th gear 221, gearwheel
222, small gear 241, rotatingshaft 24, flywheel 31, housing
32, reduction gear assembly 33, rotating shaft 35, input shaft 40, variable-diameter pulley
41,44, conical end 401, the first half ones 42, the second half ones 43, linear bearing
48, first resilient member 50, the second variable-diameter pulley 51, output shaft
52,53, the second half ones 521,531, linear bearing 58, belt member
60, generator 611, armature shaft 61, armature 64, power regulator
65, voltage stabilizing transducer 66, transformer 67, control circuit
Embodiment
For to processing procedure of the present invention and structure, feature and effect, advantage can obtain a nearlyer step to be understood, and now lifts a preferred embodiment, and cooperates and be illustrated in down.
See also shown in Figure 1, the drive unit of automatically applying variable torque of the present invention on the output shaft that rotates with constant speed, its preferred embodiment general structure comprises a power supply unit 10 and a torque converter 20.
See also Fig. 2,3,5, this power supply unit 10 comprises a pedestal 122, one first magnet apparatus 150, one second magnet apparatus 130, and a dirivig member 120; In the present embodiment, this pedestal 122 has first, second and third support 1221,1222,1223, and it is parallel mutually and extends upward; This dirivig member 120 comprises that one 121 extends laterally across, and is coupling in this first and second support 1221,1222, and so, this axle 121 is rotatable.This dirivig member 120 has a disk 123 between this second and the 3rd support 1222,1223, and this disk 123 is installed on this axle 121 coaxially; The 3rd support 1223 has a fixed tray 125 to be concentric to should axle 121, and is fixed in the avris of the 3rd support 1223.
This second magnet apparatus 130 has two galianconism 1301 to be located at the both sides of this disk 123 respectively, and this galianconism 1301 is axially by this disk 123 and extends to the 3rd support 1223; Two second magnet 131 be connected to this galianconism 1301 away from end, the N utmost point 1311 of this second magnet 131 and the S utmost point 1312 is mutually side by side and parallel with this direction of 121.
This first magnet apparatus 150 has two oblique galianconism 1501 to be individually fixed in this fixed tray 125, and these oblique galianconism 1501 ends one make progress, and another down tilts towards this disk 123; This first magnet apparatus 150 has two first magnet 151 to be connected to this oblique galianconism 1501, the N utmost point 1511 and the S utmost point 1512 of this first magnet 151 makes these N utmost point 1511 close these second magnet apparatus, 130 these S utmost points then away from this second magnet apparatus 130, shown in Fig. 3 and 5 mutually side by side.
Structure according to this, this second magnet apparatus 130 can together also periodically pass through this first magnet apparatus 150 towards first direction arrow X rotation as shown in Figure 2 with the axle 121 of this dirivig member 120, when this second magnet apparatus 130 one second magnet 131 wherein passes through this first magnet 151, first and second magnetic field of this first and second magnet 151,131 will interact, a positive force and a negative force be can alternately produce, and this first magnet apparatus 150 and this second magnet apparatus 130 acted on; This positive force make 130 pairs of this second magnet apparatus should first magnet apparatus 150 towards first direction X relative movement, this negative force make 130 pairs of this second magnet apparatus should first magnet apparatus 150 towards the second direction relative movement, this second direction and in contrast to first direction.
See also Fig. 3,4, when this first magnet 151 and second magnet 131 are positioned at the interaction position, the N utmost point 1511 of this first magnet 151 is close mutually and interaction with the N utmost point of this second magnet 131 1311, acts on this first and second magnet 151 and 131 and form repulsive force; This repulsive force will transfer positive force to and act on this second magnet 131, and it is rotated towards first direction X.
This second magnet 131 rotates towards first direction X, and makes this dirivig member 120 together with rotation, therefore, produces sizable inertial force and acts on second magnet apparatus 130; When this second magnet 131 turns near this first magnet 151, this second magnet 131 is entered when contending with the position; See also Fig. 5,6, promptly the N utmost point 1311 of this second magnet 131 is near the N utmost point 1511 and the S utmost point 1512 of this first magnet 151, and this first magnet 151 then is oblique with respect to second magnet 131; Because the N utmost point 1511 of this first magnet 151 is than the N utmost point 1311 of the S utmost point 1512 close these second magnet 131 of this first magnet 151, so each N level 1311 effect of each the N level 1511 and second magnet 131 produce relatively large repulsive force, and each S level 1512 produces relative less attraction force with each N level 1311 effect of second magnet 131; This relatively large repulsive force can form negative force with joint efforts with relative less attraction force, and this is positioned at the positive force of the negative force of the position of contending with less than the interaction position.So, when this second magnet 131 rotates to when contending with the position with respect to this first magnet 151, the positive force that this second magnet 131 is suffered and the sum total of inertial force be greater than negative force, thereby make this second magnet 131 can keep rotating towards first direction X; This second magnet 131 of mode is returned to interaction position that should first magnet 151 with regard to rotatable according to this.Therefore, this positive force acts on this second magnet apparatus 130 with can keeping continuity, and this axle 121 is rotated towards this first direction X constantly, is not stopped by negative force, so this axle 121 can continue to be driven the power that produces fixed amount.
See also Fig. 7,8,9, this torque converter 20 has first, second and third transmission shaft 21,23,25, and it extends between two upstanding walls 202,203 of a bearing 201, and this first transmission shaft 21 is connected in the axle 121 of this power supply unit 10 coaxially; This torque converter 20 also has a gear train 200, and it includes first gear 22, one second gear 224, one the 3rd gear 225, one the 4th gear 226, one the 5th gear 227, a gearwheel 221 and a small gear 222; This first gear 22 is fixed in this transmission shaft 21 and meshes with second gear 224 that is fixed on this second transmission shaft 23, and the 3rd gear 225 and this gearwheel 221 are fixed in this transmission shaft 23 and mesh the 4th gear 226 and this small gear 222 respectively; The 4th gear 226 is fixed in this transmission shaft 25 with the 5th gear 227, and this small gear 222 connects a rotatingshaft 241, and this rotatingshaft 241 extends through this upstanding wall 203 and is connected with a flywheel 24; The gear 223 of a rotating shaft 33 is fixed in 227 engagements one of the 5th gear.
See also Fig. 8,9, this gear train 200 also has a reduction gear assembly 32; This reduction gear assembly 32 is arranged in the housing 31 that is fixed in this upstanding wall 202, and connects this rotating shaft 33 and a rotating input shaft 35.
See also Fig. 1,7,8,10 and 12, this torque converter 20 also has a rotating output shaft 51, and it is coaxial with an armature shaft 611 of a generator 60 and is connected; One belt member 58 connects this output shaft 51 and this input shaft 35.Preferably, this belt member 58 is V-shape belts; This input shaft 35 has one first variable-diameter pulley 40, and this output shaft 51 has one second variable-diameter pulley 50, and this belt member 58 keeps first and second variable- diameter pulley 40 and 50 of towing under the tension state at it.
Concrete, see also Figure 10,11, this first variable-diameter pulley 40 has one the first half one 401 and one the second half one 42; This first half one 401 is fixed on this input shaft 35, and this second half one 42 is fixed on the linear bearing 43, and this bearing can move axially and can therewith rotate on this input shaft 35; This first half one 401 and this second half one 42 have the conical end 41,44 of the symmetry of mutual and relative convergent.First resilient member 48 axially is placed on this input shaft 35, and this first resilient member 48 is replaced this second half one 42 with deflection, and the conical end 44 of this second half one 42 can be moved towards the conical end 41 of this first half one 401; This second variable-diameter pulley 50 has first and second half one 52,53, it is fixed in respectively on the linear bearing 521,531, described linear bearing 521,531 can move axially and can therewith rotate on this output shaft 51, described half one 52,53 has the conical end 54,55 of the symmetry of mutual and relative convergent, two second resilient members 56,57 axially are placed on respectively on this output shaft 51, this second resilient member 56,57 is replaced this half one 52,53 with deflection, and this conical end 54,55 is moved relative to one another; This belt member 58 keeps the conical end 41,44,54,55 of this first and second variable-diameter pulley 40,50 of towing under the tension state at it; The second half ones 42 of this first variable-diameter pulley 40 also have a plurality of guide grooves 45, its be distributed in this conical end 44 around position and be the equal intervals circular row; Each guide groove 45 tilts towards this input shaft 35 and this first half ones 41, and respectively has a helical spring 47 deflections to replace a ball 46; Ball 46 in described guide groove 45 is removable, can when rotating, this input shaft 35 apply a centrifugal force in this second half one 42, so, when the rotating speed of this input shaft 35 increases, this the second half one 42 can overcome the angular force of this first resilient member 48 and move away from this first half one 401, and when the rotating speed of this input shaft 35 reduces, angular force that can this first resilient member 48 of nationality and shift to this first half one 401.Therefore, the effective diameter of the first variable-diameter pulley 40 can change automatically according to the rotating speed of input shaft 35, the increase of the effective diameter of the first variable-diameter pulley 40 and minimizing, can make half one 52,53 of the second variable-diameter pulley 50 under the effect of the angular force of described second resilient member 56,57, shift near mutually with away from, reduce and increase with tension force that keeps belt member 58 and the effective diameter that can make this second variable-diameter pulley 50, make the operation drive ratio automatically to change.
The operation of the drive unit of automatically applying variable torque of the present invention on the output shaft that rotates with constant speed will be described as follows
When the power of this power supply unit 10 outputs 804 horsepowers (HP), as, this power be transmitted respectively 375HP to this input shaft 35 and 429HP to this flywheel 24; Because power is the product of torque and rotating speed, so the rotational speed that this input shaft 35 can 1760rpm and be applied in the torque of a 1119ft-1b.For example, this flywheel 24 can 1760rpm rotational speed and the torque that produces a 1280ft-1b, simultaneously, the power of this input shaft 35 is sent to this output shaft 51 via this belt member 58, just can on this output shaft 51, apply the torque of a 1119ft-1b, and make the rotational speed of this output shaft 51 with 1760rpm.Therefore, the torque of a 1119ft-1b is rotated and be applied in to the speed that the armature shaft 611 of this generator 60 can 1760rpm.When this generator 60 needs big power, as: during 750HP, the torque that the rotating speed of this input shaft 35 will reduce to 880rpm and apply a 2238ft-1b is on this output shaft 51; At this moment, the rotating speed of flywheel 24 reduces to 880rpm and is dragged the torque that adds 1119ft-1b, so that the power that disengages 375HP via this input shaft 35 is to this output shaft 51, and can not increase the power output of this power supply unit 10; At the same time, because of the rotating speed of the second half ones 42 reduces, the centrifugal force thereby the minimizing of the ball 46 in these guide grooves 45, these balls 46 will be pushed to input shaft 35 by described helical spring 47, shown in Figure 12,13.Therefore, this second half one 42 will be pushed to the first half ones 401 by the angular force of this first spring component 48, increase the effective diameter of the first variable-diameter pulley 40 by this.For keeping belt tension, first and second half one 52 and 53 can overcome this second spring component 56 and 57 angular force and mutually away from, promptly reduce the effective diameter of this second variable-diameter pulley 50, as shown in figure 12.The result, the rotating speed of this output shaft 51 can not reduce because of the increase of the torque that is applied thereto, and can maintain 1760rpm, so, this output shaft can be exported the power of 750HP, when the torque that applies a 2238ft-1b still can keep the fixed rotating speed of its 1760rpm thereon the time.
When the power of generator 60 reduces, unnecessary power will be sent to this flywheel 24, and the rotating speed of flywheel 24 and input shaft 35 will increase simultaneously.Therefore, the effective diameter of this input shaft 35 will reduce; Because of this first and second half one 401,42 moves apart the centrifugal force of the described ball 46 of mat mutually, the effective radius of this output shaft 51 then reduces; Mode according to this, the rotating speed of this output shaft 51 can be maintained fixed.In addition, when unnecessary power is sent to this flywheel 24 by this output shaft 51, the torque that is applied on this input and the output shaft 35,51 will reduce.
It should be noted when the power of this generator changes that at this this flywheel 24 will transmit power to this output shaft 51 by this input shaft 35, and receive the power variation that remedies output shaft 51 from the power of output shaft 51.Therefore, the power of this power supply unit 10 does not need to increase or reduce and can keep a fixed rotating speed of the output shaft 51 of this torque converter 20, therefore can reach purpose of the present invention.
Please consult Fig. 1 again, this generator 60 is arranged near these torque converter 20 places, and this generator 60 has an armature 61 to be provided with wherein.This armature is positioned at a magnetic field, and an armature shaft 611 is arranged, and this armature shaft connects this output shaft 51 and this armature 61.Therefore, this armature 61 can be output axle 51 and rotate continuously with a fixing speed, and therefore, an electric current can be exported via this armature 61 continuously from this generator 60; One power regulator 64 is electrically connected with the armature 61 of this generator 60, and this power regulator 64 is provided with a transformer 66, so that export stable predetermined voltage in known manner.Voltage stabilizing transducer 65 has a control circuit 67, and it is connected with this power regulator 64, therefore, and can be by this voltage stabilizing transducer 65 outputs one fixed current.
Power supply unit 10 of the present invention is to utilize the magnet characteristic of magnet apparatus to produce magnetic force, and it is on-stream also can be subjected to influences such as friction, resistance, load.
Be used in motor and engine as electric energy, gasoline, when electric energy, run out of gas then that motor and engine can stop, same the present invention disappears, then will inevitably stop when magnetic force; Providing the quantity number of magnetic force for magnet in addition is not the present patent application target, do not repeat them here, and be to be mostly few as reserves of oil amount and electric energy production, do not influence the motivation that human society improves better engine or motor.
Its characteristic by the magnet of magnet apparatus of the present invention produces magnetic force, and the structure, the magnet specific arrangement that cooperate magnet apparatus, and the ingenious combination of dirivig member respective magnet device, produce magnetic interaction with this, and the on-stream meeting of this magnetic interaction constantly changes, and it produces size, the direction of making a concerted effort and also can change, and according to make a concerted effort to be not equal to zero, stressed object can produce motion and change.As described in the previous embodiment, the present invention utilizes magnetic force characteristic, matching mechanism feature, and this makes a concerted effort to cooperate generation running start with mechanism, and this start forms the energy that power provides the power equipment running.
Power supply unit 10 on-stream meetings of the present invention are subjected to friction, resistance, load ... wait influence and the loss energy, but aforementioned energy loss can overcome, and makes this power supply unit 10 keep running by magnetic force.Power supply unit 10 of the present invention is similar to the existing driven by energy power equipment that provides, light generation power as electric energy starter motor, gasoline supply engine, as long as electric energy, gasoline provide the power of generation can overcome friction, resistance, load etc., then motor, engine can continuous runnings, then this case is as long as magnetic interaction keeps overcoming friction, resistance, load etc., the also sustainable running of power supply unit 10.Therefore the invention belongs to the technology of utilizing law of nature.
Structure described in the invention is considered to illustrated embodiments, but is not limited to the embodiment that disclosed, comprises among the present invention about design of the present invention and arrangement.

Claims (5)

1. the automatically applying variable torque drive unit on the output shaft that rotates with constant speed is characterized in that:
Comprise:
One power supply unit, it exports the power of a fixed amount; And
One torque converter, it has a gear train, one flywheel, one input shaft, one output shaft and a belt member, this gear train is connected in this power supply unit and is connected this flywheel and input shaft, and transmit respectively this power one first partly and one second partly to this flywheel and this input shaft, one first variable-diameter pulley is installed on the input shaft, one second variable-diameter pulley is installed on the output shaft, be wrapped in to this belt member tensioning on this first and second variable-diameter pulley, transmit this second portion power to this output shaft by this input shaft, second of this power partly applies a torque on this input and output shaft and it is rotated with a desired speed, first and second variable-diameter pulley has first and second half one separately, it can make mutual reaching in opposite directions away from moving to change the effective diameter of pulley along separately input and output shaft, the second half ones of this first variable-diameter pulley have a control unit, when the rotating speed of this first variable-diameter pulley increased and reduce, this control unit can make this second half one move away from and move the first half ones towards this first variable-diameter pulley; When first and second half one of this second variable-diameter pulley reaches mutually in opposite directions away from moving to increase and when reducing its effective diameter, first and second half one of this first variable-diameter pulley then moves so that reduce accordingly and its effective diameter of increase away from reaching relative to each other in opposite directions, to keep the tension force of this belt member
When a load puts on the torque increase on this output shaft and reduces, this input shaft rotational speed also can reduce accordingly and increase, and the rotating speed of this flywheel also can reduce and increase to disengage power to this output shaft and receive power from this output shaft, the second half ones of this first variable-diameter pulley then nationality can automatically be shifted to and move apart the first half ones of this first variable-diameter pulley by this control unit, so that the desired speed of this output shaft is remained unchanged and can not increase or reduce power from this power supply unit.
2. the drive unit of a kind of automatically applying variable torque as claimed in claim 1 on the output shaft that rotates with constant speed, it is characterized in that: the first half ones of this first variable-diameter pulley are fixed on this input shaft and the second half ones of this first variable-diameter pulley can move axially on this input shaft and can therewith rotate, first and second half one of this first variable-diameter pulley has the conical end of the symmetry of mutual and relative convergent, this input shaft is equipped with one first resilient member, and it is replaced with deflection, the conical end of the second half ones can be moved towards the conical end of this first half one, first and second half one of this second variable-diameter pulley can move axially on this output shaft and can therewith rotate, first and second half one of this second variable-diameter pulley has the conical end of the symmetry of mutual and relative convergent, this output shaft is equipped with two second resilient members, its deflection is replaced, the conical end of first and second half one of this second variable-diameter pulley can be moved mutually in opposite directions, the second half ones of this first variable-diameter pulley also have the guide groove that is distributed in a plurality of equal intervals around its conical end, each guide groove tilts towards the first half ones of this input shaft and this first variable-diameter pulley, this control unit has a plurality of balls that replaced by the spring deflection, these balls place some guide grooves and removable, can when this input shaft rotates, apply the second half ones of a centrifugal force, make the second half ones of this first variable-diameter pulley can overcome the angular force of this first resilient member and move away from this first half one in this first variable-diameter pulley.
3. the drive unit of a kind of automatically applying variable torque as claimed in claim 1 or 2 on the output shaft that rotates with constant speed is characterized in that: this belt member is a V-shape belt that is looped around on the conical end of this first and second variable-diameter pulley.
4. the drive unit of a kind of automatically applying variable torque as claimed in claim 1 on the output shaft that rotates with constant speed, it is characterized in that: this output shaft has a connected generator, and this generator has and the coaxial armature shaft that is connected of this output shaft.
5. the drive unit of a kind of automatically applying variable torque as claimed in claim 1 on the output shaft that rotates with constant speed, it is characterized in that: this power supply unit comprises:
One pedestal;
One first magnet apparatus is installed in pedestal, and first magnet apparatus also has one first magnetic field;
One dirivig member is installed in pedestal and rotatable, and it is connected with this gear train; And
One second magnet apparatus, connect this dirivig member, one second magnetic field is arranged, this second magnet apparatus and this dirivig member are together with moving, and this second magnet apparatus forms towards first direction, cycle is through this first magnet apparatus, when this second magnet apparatus passes through this first magnet apparatus, first magnetic field of this first magnet apparatus and first magnetic field of second magnet apparatus interact mutually, make this second magnet apparatus to should alternately producing a positive force and a negative force by first magnet apparatus, and act on this first and second magnet apparatus, positive force makes this second magnet apparatus motion, and relative this first magnet apparatus formation of this second magnet apparatus is moved towards first direction; Negative force makes this second magnet apparatus motion, and this second magnet apparatus this first magnet apparatus relatively forms towards the second direction motion, and second direction is moved and moved in contrast to first direction; This second magnet apparatus acts in abutting connection with this first magnet apparatus and by its positive force in the interaction position, and this second magnet apparatus moves and away from this first magnet apparatus, uses generation inertial force towards first direction;
This second magnet apparatus cooperates inertial force effect, keeps the positive force effect, makes this second magnet apparatus and this dirivig member move through the position of contending with towards its first direction and is returned to the interaction position and can not be stopped by this negative force; Therefore this second magnet apparatus periodically moves in this interaction and the position of contending with, by this first and second magnetic field interaction and this inertial force, make to keep this positive force to act on this second magnet apparatus, make this dirivig member move and do not stopped towards first direction constantly by this negative force.
CNB01141796XA 2001-09-19 2001-09-19 Driving device for automatically applying variable torgue on output shaft for rotation in constant speed Expired - Fee Related CN100412413C (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CNB01141796XA CN100412413C (en) 2001-09-19 2001-09-19 Driving device for automatically applying variable torgue on output shaft for rotation in constant speed

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CNB01141796XA CN100412413C (en) 2001-09-19 2001-09-19 Driving device for automatically applying variable torgue on output shaft for rotation in constant speed

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CN1409031A CN1409031A (en) 2003-04-09
CN100412413C true CN100412413C (en) 2008-08-20

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Citations (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US4169983A (en) * 1976-09-22 1979-10-02 Felder Donald W Multi-rotor, direct current electric motor
CN2151312Y (en) * 1992-06-09 1993-12-29 刘本荣 Inertial aid
JPH09126286A (en) * 1995-10-30 1997-05-13 Fuji Heavy Ind Ltd Continuously variable transmission for vehicle
JPH11325207A (en) * 1998-05-18 1999-11-26 Aisin Aw Co Ltd Belt-type continuously variable transmission for front engine-rear drive
EP1090802A1 (en) * 1999-10-05 2001-04-11 DAYCO EUROPE S.r.l. Automatic transmission unit with a continuously variable ratio

Patent Citations (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US4169983A (en) * 1976-09-22 1979-10-02 Felder Donald W Multi-rotor, direct current electric motor
CN2151312Y (en) * 1992-06-09 1993-12-29 刘本荣 Inertial aid
JPH09126286A (en) * 1995-10-30 1997-05-13 Fuji Heavy Ind Ltd Continuously variable transmission for vehicle
JPH11325207A (en) * 1998-05-18 1999-11-26 Aisin Aw Co Ltd Belt-type continuously variable transmission for front engine-rear drive
EP1090802A1 (en) * 1999-10-05 2001-04-11 DAYCO EUROPE S.r.l. Automatic transmission unit with a continuously variable ratio

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