CN101858659A - Polar axis tracking device of solar collector - Google Patents

Polar axis tracking device of solar collector Download PDF

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Publication number
CN101858659A
CN101858659A CN200910253863A CN200910253863A CN101858659A CN 101858659 A CN101858659 A CN 101858659A CN 200910253863 A CN200910253863 A CN 200910253863A CN 200910253863 A CN200910253863 A CN 200910253863A CN 101858659 A CN101858659 A CN 101858659A
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China
Prior art keywords
solar modules
chain
gear
solar
worm
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CN200910253863A
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Chinese (zh)
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项晓东
万荣南
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YIKEBO ENERGY SCIENCE AND TECHNOLOGY (SHANGHAI) Co Ltd
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YIKEBO ENERGY SCIENCE AND TECHNOLOGY (SHANGHAI) Co Ltd
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    • 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
    • Y02E10/40Solar thermal energy, e.g. solar towers
    • Y02E10/47Mountings or tracking
    • 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
    • Y02E10/50Photovoltaic [PV] energy

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Abstract

The present invention provides a polar axis tracking device of solar collector, wherein the tracking device comprises the following components: the polar axis which is used as a structural beam and is rotatable, a panel which is fixed to the polar axis and rotate along with the polar axis, a chain which has two ends that are horizontally fixed to the polar axis, a chain gear which is matched with the middle part of the chain, and a drive device which drives the chain gear to rotate. The drive device drives the chain gear to rotate. The chain gear drives the chain to move thereby driving the polar axis and the panel to rotate.

Description

The polar axis tracking device of solar collector
[technical field]
The present invention belongs to field of solar energy on broad sense, in this solar tracking system field of refering in particular to photovoltaic battery panel and focusing type solar heat collector, especially refer to the field of pole axis solar tracking system.
[background technology]
The present invention is meant solar collector, especially refers to the pole axis tracking system device, follows the tracks of the motion of the sun with respect to the earth, thereby makes collection solar energy reach higher efficient and lower cost.The present invention is applied to dull and stereotyped photovoltaic panel and focuses on photo-thermal or photovoltaic devices.
The photovoltaic solar cell plate is widely used on the Application of Solar Energy of dwelling house or commerce.Because the motion of the relative earth of the sun, the sunshine that causes shining on the fixing photovoltaic battery panel has different incidence angles in the different moment or annual different time every day.This kind incident ray can reduce the collection efficiency of solar panel and reduce the electric weight that this solar panel produces.Because the solar energy of collecting is directly proportional with cosine angle, i.e. angle between the vertical surface of the incidence angle of sunshine and solar panel, the loss that this effect caused is the cosine losses of knowing.For improving the collection efficiency of sunshine, solar panel can use a tracker to make it keep approaching vertical position with sun incident light.
Tracker can be widely used on the focusing solar panels, by large-area optical collector with solar light focusing on a small size solar collector, this solar collector can be photovoltaic cell or photothermal converter.For focus is remained on the target receiver, this tracking system will be followed solar motion, to keep focusing.
The two-dimensional tracking system has two kinds of forms, i.e. azimuth/height tracing and polar angle/season (or equator) tracking (with reference to " from the energy of the sun " chapter 4, http://www.powerfromthesun.net).For azimuth/height tracing system; its mechanical realization is comparatively simple; but; because the required rotary speed of diaxon is not invariable and interdepends; therefore need frequent adjustment in any given place; and to follow the tracks of the control scheme reliably be complicated and difficult, also needs induction and control initiatively usually.For polar angle/season angle (or equator) tracking system, its two is separate.Rotary speed around pole axis is fixed, and is approximately per hour 15 degree in the daytime.Yet its in season the angle rotation very slowly and move the season that is easy to follow the tracks of the sun.But the mechanical conceptual of realizing this kind tracking system no all roses.In many previous patents of invention this system all there is description, comprises United States Patent (USP) 4,285,567 and United States Patent (USP) 4,413,423 and United States Patent (USP) 6,284,968B1.In all systems formerly, the main body of solar collector can apply a bigger moment of torsion to pole axis, and need rotate with fixing speed at day spaced winding pole axis.So, can increase the loading demand of motor and under high wind load situation, cause the unstability of system.The present invention is exactly in order to improve this problem.
Tracking system all needs motor usually and drives control element for each tracker.In order to reduce the cost of system, wish very much with a motor and drive control to drive several trackers simultaneously.Previous patent US6,058,930 tracking system of having set forth by an one dimension realizes this imagination.In this invention, Linear actuator must change its angle in tracing process, make pursuit movement become irregular thus, needs detection and control initiatively.Than the long very heaviness that is rigidly connected also, its height changes when tracking always simultaneously, can make that like this system is unreliable between the tracker.The present invention has disclosed a very simple pole axis tracking system design, has eliminated its weak point.The present invention is applicable to the tracking system of a peacekeeping bidimensional.
[summary of the invention]
The purpose of this patent is exactly for a kind of solar energy tracking design is provided, to avoid above-mentioned shortcoming.A special purpose of the present invention provides mechanical conceptual, can make to be applied to moment minimum on the rotating shaft, thereby can increase the stability of system.Another special purpose of the present invention provides a design, by one group of motor/worm-gear toothing and control system, drives a plurality of systems with simple gear/chain device.
To achieve these goals, solar collector is installed on the sun tracker, at least one turning cylinder of this sun gatherer (first rotating shaft or pole axis) is parallel with earth's axis, and this rotates and is the North and South direction setting, and has the horizontal tilt angle that equates with the local latitude angle.This pole axis is to support by two fixed blocks that are provided with on the ground, and this fixed block is provided with the roating sphere bearing or bearing sleeve is beneficial to rotation.The rotation of panel realizes by first gear, the rotary shaft of this gear is fixed on the bearing that is positioned at below, pole of rotation axostylus axostyle upper end, the rotation of panel has driven first chain, and the two ends of this chain are fixed on two hinges on each limit that is positioned at the outer panel of pivot certain distance.Gear is to be driven by a stepper motor and gear on worm, loads with the moment that reduces speed and motor, and prevents the return motion that wind carries or other extraneous resistances produce.With second runner in the same rotating shaft of first runner, and drive second tracker by second pair of runner or wirerope in regular turn, and the like.In this way, one group of motor/worm tooth roller box or control circuit can reach the purpose that drives a plurality of solar tracking devices, thereby reduce the cost of whole system.This pole axis rotates with the constant speeds of 15 degree per hour, has the center the positive period of the day from 11 a.m. to 1 p.m at the sun, to follow the tracks of the motion between solar day.For plane photovoltaic battery panel panel, because the season of its maximum 23 degree, cosine losses was very little on average at the angle, this one dimension tracking scheme is enough to efficient is improved 30%.
For light harvesting type gatherer, can adopt the two-dimensional tracking device.In these examples, increased another perpendicular to first spool second season rotating shaft.The second rotating shaft pivot supports (having bearing) and is fixed on first rotating shaft, and this panel is fixed on the rotating shaft in season.For reducing or eliminating the huge torsion that acts on the rotation pole axis, collector panel is separated from the centre, and so, this panel can pass from pole axis when axle rotates along season.Season, shaft support part and the panel that is provided with like this made that panel is zero to the torsion of pole axis substantially.Second is rotated at a slow speed to follow the tracks of the motion in season in the sun 1 year.For the two-dimensional tracking device, the pole axis of a large-scale tracker cohort can be by single motor-driven, and the axle in season of each tracker then will drive by the independent motor/gear on worm that is installed on the tracker.The control system of tracker can be programmed to " date logicality (chronologically) ", with according to clock that the panel location is vertical with the sun all the time.Clock time can obtain by gps signal or battery-driven electronic clock accurately.
The invention provides a kind of solar modules array, comprising:
A plurality of solar modules, each solar modules is rotated around a rotating shaft, and each rotating shaft and other shaft parallels are provided with, and each solar energy module comprises:
First pivoting mechanism around first rotating shaft rotation, and links to each other with first pivoting mechanism of follow-up solar modules;
Second pivoting mechanism, rotate around second rotating shaft, and link to each other with first pivoting mechanism in the mode of mechanism, second pivoting mechanism drives a panel around the rotating shaft rotation, wherein first and second rotating shaft is static, this panel comprises a solar collector, and this solar collector has a plane according to the rotation of sunshine plane;
A driving mechanism is connected with at least one first pivoting mechanism, produces rotary torsion.
According to above-mentioned principal character, rotating shaft is parallel with geocyclic north and south axle.
According to above-mentioned principal character, the relative horizontal plane of rotating shaft has the inclination angle of latitude.
According to above-mentioned principal character, first pivoting mechanism comprises a runner.
According to above-mentioned principal character, second pivoting mechanism comprises a runner and is fixed in the hawser of first pivoting mechanism, this hawser is to be fixed in separately on second pivoting mechanism, torsion with driving mechanism transfers to second pivoting mechanism, and relative first and second pivoting mechanism of this hawser is not moved.
According to above-mentioned principal character, second pivoting mechanism comprises that one has the stiffener of two hinge at least and is fixed in first rotating mechanism and is fixed in hawser on the hinge of second rotating mechanism separately, so that the torsion of driving mechanism transfers to second rotating mechanism, and hawser does not move with first rotating mechanism.
According to above-mentioned principal character, panel by a bearings on the shaft element that is fixed on the panel and second pivoting mechanism.
According to above-mentioned principal character, first pivoting mechanism is connected with driving mechanism by first hawser, and passes through second hawser and be connected with follow-up first rotary part.
According to above-mentioned principal character, driving mechanism cooperates with a solar modules first pivoting mechanism rigidity.
According to above-mentioned principal character, the first follow-up rotary part comprises a gear on worm mechanism, and wherein this gear on worm mechanism can prevent that torsion is back to driving mechanism.
According to above-mentioned principal character, a plurality of solar modules are many dischargings and put.
The invention provides a kind of method of solar modules array motion, this method comprises:
Around each solar modules of a rotating shaft rotation solar modules array, wherein each rotating shaft and other shaft parallels are provided with, and comprising:
Rotate first pivoting mechanism around first rotating shaft, be connected with first pivoting mechanism of follow-up solar modules;
Rotate second pivoting mechanism that is connected with first pivoting mechanism around second rotating shaft, this second pivoting mechanism makes panel center on a rotating shaft rotation, wherein first and second rotating shaft is static, this panel comprises a solar collector, and this solar collector has a plane according to the rotation of sunshine plane;
Produce rotary torsion by the driving mechanism that cooperates with at least one first pivoting mechanism.
According to above-mentioned principal character, rotating shaft is parallel with geocyclic North and South direction.
According to above-mentioned principal character, the relative horizontal plane of rotating shaft has the inclination angle of latitude.
According to above-mentioned principal character, first pivoting mechanism comprises a runner.
According to above-mentioned principal character, second pivoting mechanism comprises a runner and is fixed in the hawser of first pivoting mechanism, this hawser is fixed in separately on second pivoting mechanism, so that the torsion of driving mechanism transfers to second pivoting mechanism, and relative first and second pivoting mechanism of this hawser is not moved.
According to above-mentioned principal character, second pivoting mechanism comprises that one has the stiffener of at least two hinges and is fixed in first pivoting mechanism and is fixed in hawser on the hinge of second pivoting mechanism separately, so that the torsion of driving mechanism transfers to second pivoting mechanism, and hawser does not move along first pivoting mechanism.
According to above-mentioned principal character, panel is supported by a bearing that is fixed on the panel and second rotary part.
According to above-mentioned principal character, first pivoting mechanism is connected with driving mechanism by first hawser, and passes through second hawser and be connected with follow-up first rotary part.
According to above-mentioned principal character, driving mechanism cooperates with the first pivoting mechanism rigidity of a solar modules.
According to above-mentioned principal character, the first follow-up rotary part comprises a gear on worm mechanism, and wherein this gear on worm mechanism can prevent that torsion is back to driving mechanism.
According to above-mentioned principal character, a plurality of solar modules are multirow and place.
The present invention also provides a kind of solar modules array, comprising:
A plurality of solar modules, each solar modules is rotated around an axle, the parallel placement of each axle with other, each solar modules comprises:
First runner of a solar modules, this first runner rotates around first rotating shaft, and this first runner receives the rotary torsion of driver;
Second runner that is connected with first runner, second runner transfers to follow-up solar modules with torsion, wherein first and second runner is rigidly connected to connecting rod with the radial facing plate, and this panel has a solar collector, and this solar collector has a plane according to the rotation of sunshine plane;
Driving mechanism cooperates with first runner of at least one solar modules, to produce rotary torsion.
[description of drawings]
Fig. 1 is the schematic side view of a solar energy pole axis tracker of one embodiment of the invention.
Fig. 2 is the front view of a solar energy pole axis tracker (observer is positioned at tracker north) of one embodiment of the invention.
Fig. 3 is the top view (top) and the side view (following) of the motor/gear on worm package system of one embodiment of the invention.
Fig. 4 is the solar energy pole axis tracker of one embodiment of the invention rotates to the position in morning from the center a front view (with respect to the center).
Fig. 5 is the schematic diagram of the tracker array that is positioned at sun noon position that is driven by group of motors piece installing of one embodiment of the invention.
Fig. 6 is the schematic diagram of the tracker array that is positioned at the position in morning that is driven by group of motors piece installing of one embodiment of the invention.
Fig. 7 is the side view of two tracker apparatus of one embodiment of the invention.
Fig. 8 is the top view of the solar thermal collector panel of one embodiment of the invention.
Fig. 9 is the front view of the tracker array that is connected with sprocket wheel with the pole axis that is driven by a motor/gear on worm assembly of one embodiment of the invention.
Figure 10 be one embodiment of the invention tracker in the morning, high noon, afternoon the position front view.
Figure 11 is the front view of tracker of another pole axis whirligig of one embodiment of the invention.
Figure 12 is the front view of the tracker position in afternoon of one embodiment of the invention.
Figure 13 is the side view of two-dimensional tracking device of another linear actuator inclination angle whirligig of one embodiment of the invention.
Figure 14 is the top view of the motor that the screw rod driving device is arranged/gear on worm assembly of one embodiment of the invention.
[embodiment]
First embodiment refers to the one dimension tracker, and this tracker is everlasting and uses in the dull and stereotyped photovoltaic battery panel most.With reference to the figure of diagram 1, pole axis 1 (Polar Axis) is, to support to pivot with its base as the structure crossbeam and by two ball bearings 3 and 4 (the perhaps bearing sleeve of any other type).Solar collection panels 2 is fixed on the pole axis 1, and with its rotation.Bearing 3 is fixed on the rotatable hinge 7 by its base, and this hinge is fixed on the base 6 subsequently.Bearing 4 is fixed on the support structural frame 8 by its base, and this framework 8 is fixed on the fixture 5.The length of framework 8 and its height-adjustable on fixture 5 are so that the inclination angle between pole axis and the horizontal plane is equivalent to the angle of latitude (Latitude Angle) of installation site.As shown in Figure 2, chain pitch wheel 9 is to be driven by motor/worm-gear toothing assembly 14, afterwards chain drive-belt 11 again.The two ends of chain 11 are horizontally fixed on the hinge 12 and 13 that is located on the pole axis 1.As shown in Figure 3, a stepper motor that has reduction gear box 19 drives screw mandrel 23 by one group of travelling gear 20.Screw mandrel 23 is pivoted by two ball bearings 21 and 22 and supports, and is fixed on worm-gear toothing 24 on the axostylus axostyle 16 with driving.Axostylus axostyle 16 is to pivot by two ball bearings 18 to support.The effect of gear on worm 24 is in order to prevent because the deadweight of panel 2 or wind carry the counter-rotating of passing through chain pitch wheel 9 that causes moves, just promptly have only the rotation of screw mandrel 23 can make gear on worm 24 rotations, and the rotation of gear on worm 24 can't drive screw mandrel 23.Three chain pitch wheels 9,10,15 are mounted and fixed on the axostylus axostyle 16.Chain pitch wheel 9 chain drive-belts 11 are with swing bolster 1.Chain pitch wheel 10 and 15 is used to a plurality of trackers and chain 26 and 27 bindings are linked together, and this can join shown in Figure 5.The base 25 of motor/worm-gear toothing assembly 14 is installed on the framework 8.When the motor swing pinion, panel 2 is along pole axis 1 rotation, as Fig. 4 and shown in Figure 6.Motor is programmed to move with the sun of following the tracks of between daytime with 15 degree rotation pole axis per hour between daytime.
Implementation column two refers to the most normal bidimensional tracker that is used to the concentrating solar collector panels, as shown in Figure 7.Rotation is arranged in the mode identical with embodiment 1 and is programmed between pole axis 1 and its daytime.A pair of ball bearing 28 places in the base, and base is fixed on the horizontal gird structure of pole axis 1, with the mode support panel 2 that pivots.Panel 2 is divided into two parts as shown in Figure 8, so that panel 2 is passing pole axis 1 when the sloping shaft 330 that is supported by bearing 28 rotates.Second group of motor/gear on worm assembly and its base 31 are fixed on the pole axis 1, and chain drive-belt gear 32.Chain pitch wheel is fixed on hinge 34 on panel 2 frameworks and 35 chain 33 with the rear drive two ends.A solar thermal energy (or photovoltaic) receiver 30 (Thermal Receiver) is supported by the structural framing crossbeam 29 that is fixed on panel 2.Motor so programming with the inclination angle (Declination Angle) of formation with pole axis 1, is followed the tracks of moving between solar year, as shown in Figure 7 with rotation solar collection panels 2 and receiver 30.A plurality of trackers can be provided with the first embodiment similar methods, and its pole axis 1 only can be driven by one group of motor/gear on worm assembly, as shown in Figure 9.As shown in figure 10, equal zero in the inclination angle of the positions of panels in morning, high noon, afternoon.
The 3rd embodiment as shown in figure 11.In this design, pole axis 1 is with mode alignment and the support similar to first embodiment.Supporting construction 8 has that a horizontal gird supports and fixed electrical machinery/gear on worm assembly 36 and bearing/chain pitch wheel assembly 38.Motor/gear on worm assembly 36 has the chain pitch wheel 37 by motor/gear on worm assembly 36 drives to shown in Figure 3 similar.Chain 39 has formed the triangle ring, and its top is fixed on the support bar 40.Support bar 40 is fixed on the end (the hole axle by rectangle cooperates) of pole axis 1, with rotation pole axis 1 and panel 2.Bearing/chain pitch wheel assembly 38 comprises two chain pitch wheels, and first gear drive chain 39 forms leg-of-mutton ring-type, and to drive support bar 40 motions, this can be as shown in figure 12; Second chain pitch wheel (not shown) drives second chain (not shown) and drives next tracker, and this structure is similar to shown in Fig. 5 and 6, repeats no more herein.
The 4th embodiment as shown in figure 13.In this design, use screw mandrel to replace chain, thereby form an inclination angle with rotating panel 2 and pole axis 1.Motor/gear on worm assembly parts 25 are fixed on the pole axis beam structure.Screw mandrel 37 drives by gear on worm 24, and the center fixation of this gear on worm 24 is on a nut that is sheathed on the screw mandrel 37, promptly as shown in figure 14.Because gear on worm is rotated by driven by motor, screw mandrel 37 carries out linear movement, and then promotes panel 2 to center on axle 33 rotations of being supported by bearing 28 in season.

Claims (39)

1. solar modules array comprises:
A plurality of solar modules, each solar modules is rotated around a rotating shaft, and each rotating shaft and other shaft parallels are provided with, and each solar energy module comprises:
First pivoting mechanism around first rotating shaft rotation, and links to each other with first pivoting mechanism of follow-up solar modules;
Second pivoting mechanism, rotate around second rotating shaft, and link to each other with first pivoting mechanism in the mode of mechanism, second pivoting mechanism drives a panel around the rotating shaft rotation, wherein first and second rotating shaft is static, this panel comprises a solar collector, and this solar collector has a plane according to the rotation of sunshine plane;
A driving mechanism is connected with at least one first pivoting mechanism, produces rotary torsion.
2. solar modules array as claimed in claim 1, its shaft is parallel with geocyclic north and south axle.
3. solar modules array as claimed in claim 2, the relative horizontal plane of its shaft has the inclination angle of latitude.
4. solar modules array as claimed in claim 1, wherein first pivoting mechanism comprises a runner.
5. solar modules array as claimed in claim 4, wherein second pivoting mechanism comprises a runner and is fixed in the hawser of first pivoting mechanism, this hawser is to be fixed in separately on second pivoting mechanism, torsion with driving mechanism transfers to second pivoting mechanism, and relative first and second pivoting mechanism of this hawser is not moved.
6. solar modules array as claimed in claim 4, wherein second pivoting mechanism comprises that one has the stiffener of two hinge at least and is fixed in first rotating mechanism and is fixed in hawser on the hinge of second rotating mechanism separately, so that the torsion of driving mechanism transfers to second rotating mechanism, and hawser does not move with first rotating mechanism.
7. solar modules array as claimed in claim 1, wherein panel by a bearings on the shaft element that is fixed on the panel and second pivoting mechanism.
8. solar modules array as claimed in claim 1, wherein first pivoting mechanism is connected with driving mechanism by first hawser, and passes through second hawser and be connected with follow-up first rotary part.
9. solar modules array as claimed in claim 1, wherein driving mechanism cooperates with a solar modules first pivoting mechanism rigidity.
10. solar modules array as claimed in claim 1, the first wherein follow-up rotary part comprises a gear on worm mechanism, wherein this gear on worm mechanism can prevent that torsion is back to driving mechanism.
11. being many dischargings, solar modules array as claimed in claim 1, wherein a plurality of solar modules put.
12. the method for a solar modules array motion, this method comprises:
Around each solar modules of a rotating shaft rotation solar modules array, wherein each rotating shaft and other shaft parallels are provided with, and comprising:
Rotate first pivoting mechanism around first rotating shaft, be connected with first pivoting mechanism of follow-up solar modules;
Rotate second pivoting mechanism that is connected with first pivoting mechanism around second rotating shaft, this second pivoting mechanism makes panel center on a rotating shaft rotation, wherein first and second rotating shaft is static, this panel comprises a solar collector, and this solar collector has a plane according to the rotation of sunshine plane;
Produce rotary torsion by the driving mechanism that cooperates with at least one first pivoting mechanism.
13. the method for solar modules array motion as claimed in claim 12, its shaft is parallel with geocyclic North and South direction.
14. the method for solar modules array motion as claimed in claim 12, the relative horizontal plane of its shaft has the inclination angle of latitude.
15. the method for solar modules array motion as claimed in claim 12, wherein first pivoting mechanism comprises a runner.
16. the method for solar modules array motion as claimed in claim 15, wherein second pivoting mechanism comprises a runner and is fixed in the hawser of first pivoting mechanism, this hawser is fixed in separately on second pivoting mechanism, so that the torsion of driving mechanism transfers to second pivoting mechanism, and relative first and second pivoting mechanism of this hawser is not moved.
17. the method for solar modules array motion as claimed in claim 15, wherein second pivoting mechanism comprises that one has the stiffener of at least two hinges and is fixed in first pivoting mechanism and is fixed in hawser on the hinge of second pivoting mechanism separately, so that the torsion of driving mechanism transfers to second pivoting mechanism, and hawser does not move along first pivoting mechanism.
18. the method for solar modules array motion as claimed in claim 12, wherein panel is supported by a bearing that is fixed on the panel and second rotary part.
19. the method for solar modules array as claimed in claim 12 motion, wherein first pivoting mechanism is connected with driving mechanism by first hawser, and passes through second hawser and be connected with follow-up first rotary part.
20. the method for solar modules array motion as claimed in claim 12, wherein driving mechanism cooperates with the first pivoting mechanism rigidity of a solar modules.
21. the method for solar modules array motion as claimed in claim 12, the first wherein follow-up rotary part comprises a gear on worm mechanism, and wherein this gear on worm mechanism can prevent that torsion is back to driving mechanism.
22. the method for solar modules array motion as claimed in claim 12, wherein a plurality of solar modules are multirow and place.
23. a solar modules array comprises:
A plurality of solar modules, each solar modules is rotated around an axle, the parallel placement of each axle with other, each solar modules comprises:
First runner of a solar modules, this first runner rotates around first rotating shaft, and this first runner receives the rotary torsion of driver;
Second runner that is connected with first runner, second runner transfers to follow-up solar modules with torsion, wherein first and second runner is rigidly connected to connecting rod with the radial facing plate, and this panel has a solar collector, and this solar collector has a plane according to the rotation of sunshine plane;
Driving mechanism cooperates with first runner of at least one solar modules, to produce rotary torsion.
24. the polar axis tracking device of a solar collector, it is characterized in that: this tracking means comprises as structure crossbeam and rotatable pole axis, be fixed on the pole axis and with the panel of its rotation, and two ends are horizontally fixed on chain on the pole axis, the drive unit that chain pitch wheel that cooperates with the chain middle part and chain drive-belt gear rotate, this drive unit chain drive-belt gear rotates, and drives pole axis and panel rotation thereby chain pitch wheel drive chain moves.
25. the polar axis tracking device of solar collector as claimed in claim 24, it is characterized in that: this drive unit is motor/worm-gear toothing assembly, comprise that one has the stepper motor of reduction gear box, one group of travelling gear, screw mandrel and worm-gear toothing, the stepper motor that wherein has reduction gear box drives screw mandrel by one group of travelling gear, screw mandrel drives a worm-gear toothing that is fixed on the axostylus axostyle, and chain pitch wheel and worm-gear toothing are mounted on the same axostylus axostyle, thereby drive the chain pitch wheel rotation.
26. the polar axis tracking device of solar collector as claimed in claim 24, it is characterized in that: pole axis is to be supported to pivot with its base by two ball bearings, and wherein a bearing is fixed on the rotatable hinge by its base, this hinge is fixed on the base of solar collector, and another bearing is fixed on the support structural frame of this solar collector by its base, this framework is fixed on the fixture, and the length of this framework and its height-adjustable on fixture are so that pole axis has the inclination angle to be equivalent to the angle of latitude of installation site.
27. the polar axis tracking device of solar collector as claimed in claim 24 is characterized in that: the two ends of this chain are horizontally fixed on by hinge and are located on the pole axis.
28. the polar axis tracking device of solar collector as claimed in claim 25, it is characterized in that: be provided with on the axostylus axostyle of chain pitch wheel and worm-gear toothing and also be provided with two other chain pitch wheel, this two chain pitch wheel is connected with a plurality of solar collectors of synchronous rotation with the corresponding chain pitch wheel of other solar collectors by chain.
29. the polar axis tracking device of solar collector as claimed in claim 24 is characterized in that: pole axis is parallel with geocyclic north and south axle.
30. the polar axis tracking device of solar collector as claimed in claim 24 is characterized in that: the relative horizontal plane of pole axis has the inclination angle of latitude.
31. the polar axis tracking device of solar collector as claimed in claim 24, it is characterized in that: this pole axis has a horizontal gird structure, this horizontal gird structure is provided with a base, and be provided with a pair of ball bearing in the base, this is supported with a sloping shaft to ball bearing, and panel can be along this sloping shaft rotation.
32. the polar axis tracking device of solar collector as claimed in claim 31 is characterized in that: panel is divided into two parts, so that panel is passing pole axis when sloping shaft rotates.
33. the polar axis tracking device of solar collector as claimed in claim 32, it is characterized in that: the chain that pole axis is provided with second group of motor/gear on worm assembly, a chain pitch wheel and cooperates with this chain pitch wheel, this second group of motor/gear on worm assembly chain drive-belt gear, chain pitch wheel is fixed on the chain of the hinge on the panel frame with the rear drive two ends, rotates around sloping shaft thereby drive panel.
34. the polar axis tracking device of solar collector as claimed in claim 31, it is characterized in that: this pole axis is provided with one motor/gear on worm assembly parts, the gear on worm of this motor/gear on worm assembly parts is by driving screw mandrel, and the center fixation of this gear on worm is on a nut that is sheathed on the screw mandrel, the rotation of driven by motor gear on worm, further drive screw mandrel and carry out linear movement, and then promote the panel rotation by screw mandrel one end.
35. the polar axis tracking device of a solar collector, it is characterized in that: this tracking means comprises a supporting construction, this supporting construction has a horizontal gird, this horizontal gird upper support and be fixed with one motor/gear on worm assembly, bearing/chain pitch wheel assembly, chain and support bar, wherein support bar one end is fixed on the end of pole axis with rotation pole axis and panel, chain forms the triangle ring, its top is fixed on the support bar other end, chain pitch wheel by motor/gear on worm assembly driving bearing/chain pitch wheel assembly, thereby chain drive-belt, further drive the support bar motion, and drive the panel motion.
36. a solar modules array is characterized in that this solar modules array comprises:
A plurality of solar modules, each solar modules include one as structure crossbeam and rotatable pole axis, be fixed on the pole axis and with panel, the two ends of its rotation be horizontally fixed on chain on the pole axis, first chain pitch wheel that cooperates with the chain middle part and and first chain pitch wheel be fixed in other chain pitch wheels on same, and the pole axis of these a plurality of solar modules is parallel to each other, and other above-mentioned chain pitch wheels of these a plurality of solar modules link together by chain;
Drive unit cooperates with first chain pitch wheel of at least one solar modules, driving first chain pitch wheel, and is synchronized with the movement by above-mentioned other chain pitch wheels and other solar modules of chain drive.
37. solar modules array as claimed in claim 36, it is characterized in that: this drive unit is motor/worm-gear toothing assembly, comprise that one has the stepper motor of reduction gear box, one group of travelling gear, screw mandrel and worm-gear toothing, the stepper motor that wherein has reduction gear box drives screw mandrel by one group of travelling gear, screw mandrel drives a worm-gear toothing that is fixed on the axostylus axostyle, and first chain pitch wheel and worm-gear toothing are mounted on the same axostylus axostyle, thereby worm-gear toothing drives the rotation of first chain pitch wheel.
38. a solar modules array is characterized in that this solar modules array comprises:
A plurality of solar modules, each solar modules includes one as structure crossbeam and rotatable pole axis, be fixed on the pole axis and with the panel of its rotation, the supporting construction that a horizontal gird is arranged, this horizontal gird upper support and be fixed with bearing/chain pitch wheel assembly, chain, support bar and first chain pitch wheel that cooperates with chain, wherein support bar one end is fixed on the end of pole axis with rotation pole axis and panel, chain forms the triangle ring, its top is fixed on the support bar other end, and fix first chain pitch wheel the axle on also be provided with other chain pitch wheels, and the pole axis of these a plurality of solar modules is parallel to each other, and above-mentioned other chain pitch wheels of these a plurality of solar modules link together by chain;
Drive unit cooperates with first chain pitch wheel of at least one solar modules, driving first chain pitch wheel, and is synchronized with the movement by above-mentioned other chain pitch wheels and other solar modules of chain drive.
39. solar modules array as claimed in claim 38, it is characterized in that: this drive unit is motor/worm-gear toothing assembly, comprise that one has the stepper motor of reduction gear box, one group of travelling gear, screw mandrel and worm-gear toothing, the stepper motor that wherein has reduction gear box drives screw mandrel by one group of travelling gear, screw mandrel drives a worm-gear toothing that is fixed on the axostylus axostyle, and first chain pitch wheel and worm-gear toothing are mounted on the same axostylus axostyle, thereby worm-gear toothing drives the rotation of first chain pitch wheel.
CN200910253863A 2008-12-04 2009-12-03 Polar axis tracking device of solar collector Pending CN101858659A (en)

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