CN205377745U - Solar power generation device capable of automatically tracking illumination - Google Patents
Solar power generation device capable of automatically tracking illumination Download PDFInfo
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- CN205377745U CN205377745U CN201620159218.6U CN201620159218U CN205377745U CN 205377745 U CN205377745 U CN 205377745U CN 201620159218 U CN201620159218 U CN 201620159218U CN 205377745 U CN205377745 U CN 205377745U
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- Y—GENERAL 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
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- Y—GENERAL 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
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Abstract
本实用新型为一种光照自动跟踪的太阳能发电装置,该装置包括太阳能电池板模块、太阳能电池板旋转机构、蓄电模块和太阳光检测模块;所述太阳能电池板模块通过竖支撑杆与太阳能电池板旋转机构相连,所述太阳能电池板旋转机构通过两个半圆形拼接成的底座垂直固定在地面上;所述太阳光检测模块也垂直固定在地面上,同时与太阳能电池板旋转机构和太阳能电池板模块通过连接线相连;所述蓄电模块固定在太阳能电池板旋转机构的底座下边,分别与太阳能电池板模块、太阳能旋转机构和太阳光检测模块相连。
The utility model discloses a solar power generation device with automatic illumination tracking, which comprises a solar panel module, a solar panel rotating mechanism, a power storage module and a sunlight detection module; the solar panel module is connected with the solar panel rotating mechanism through a vertical support rod, and the solar panel rotating mechanism is vertically fixed on the ground through a base formed by two semicircles; the sunlight detection module is also vertically fixed on the ground, and is connected with the solar panel rotating mechanism and the solar panel module through a connecting line at the same time; the power storage module is fixed under the base of the solar panel rotating mechanism, and is respectively connected with the solar panel module, the solar rotating mechanism and the sunlight detection module.
Description
技术领域:Technical field:
本实用新型属于太阳能光伏发电技术领域,具体地说是涉及一种光照自动跟踪的太阳能发电装置。The utility model belongs to the technical field of solar photovoltaic power generation, in particular to a solar power generation device for automatically tracking light.
背景技术:Background technique:
随着现代工业的发展,全球能源危机和大气污染问题日益突出,为应对全球化石燃料加速枯竭的能源危机和日益高涨的能源需求,太阳能作为理想的可再生能源受到了许多国家的重视,我国在太阳能光伏发电领域出现了日新月异的变化,光伏企业犹如雨后春笋般地呈现。但是,现有的固定式太阳能发电装置因其不能保证在任意时刻太阳光都能垂直照射到太阳能电池板上而导致发电效率很低;现有的具有光照自动跟踪功能的装置虽然提高了发电效率,但由于该装置的太阳光检测部分基本为暴漏在外边,是通过各个部分都能感受到太阳光,然后根据光照强弱来进行太阳光垂直入射角的判定,但对于感光元件来说,同时接受太阳光的照射,距离近的部分的照射强度很接近,控制部分的分析判断也会很困难,对于太阳光的强弱判断很可能会不准确,出现一定的误差,导致不能十分准确的检测到太阳光的入射角度,误差相对来说比较大。而且现有的这些装置对风沙、尘土、雾霾等恶劣天气的适应性不强,使其不能很好地利用太阳能来满足现代社会的发展要求。因此,实用新型提出一种可精确的自动调节受光角度、并且对环境适应能力十分强的太阳能发电系统成为一个迫在眉睫的任务。With the development of modern industry, the global energy crisis and air pollution problems are becoming more and more prominent. In order to cope with the energy crisis of the accelerated depletion of global fossil fuels and the increasing energy demand, solar energy has been valued by many countries as an ideal renewable energy source. The field of solar photovoltaic power generation has undergone rapid changes, and photovoltaic enterprises have sprung up like mushrooms after rain. However, the existing fixed solar power generation device has low power generation efficiency because it cannot guarantee that sunlight can be irradiated vertically on the solar panel at any time; although the existing device with automatic light tracking function has improved the power generation efficiency , but because the sunlight detection part of the device is basically exposed to the outside, the sunlight can be felt through all parts, and then the vertical incidence angle of sunlight is determined according to the intensity of the light, but for the photosensitive element, At the same time, when receiving sunlight, the irradiation intensity of the part near the distance is very close, and the analysis and judgment of the control part will be very difficult. The judgment of the intensity of sunlight may be inaccurate, and certain errors will occur, resulting in inaccurate accuracy. The incident angle of sunlight is detected, and the error is relatively large. Moreover, these existing devices have poor adaptability to severe weather such as wind and sand, dust, and haze, so that they cannot make good use of solar energy to meet the development requirements of modern society. Therefore, it is an urgent task to propose a solar power generation system that can accurately and automatically adjust the light receiving angle and has a strong ability to adapt to the environment in the utility model.
实用新型内容:Utility model content:
本实用新型的目的是针对现有技术的不足,提供一种光照自动跟踪的太阳能发电装置,该发电装置通过太阳光检测模块的双外壳和球形光敏电阻结构、太阳能电池板的清理刷、电机a、运行轨道器件结合起来的定期清理功能以及太阳能电池板旋转机构的整体机械连接等设计,利用球形光敏电阻检测太阳光的入射方向,通过控制机构来控制电机,实现太阳能电池板的各个角度的调节,使太阳光总是垂直照射到太阳能电池板上,同时,太阳能电池板清理刷的使用,都大大提高了发电的效率和机械精度,克服了传统装置对太阳光入射角检测不准、机械运行滞后以及对环境适应性较差的缺点。The purpose of this utility model is to address the deficiencies in the prior art, to provide a solar power generation device with automatic light tracking, the power generation device uses the double shell of the sunlight detection module and the spherical photoresistor structure, the cleaning brush of the solar panel, the motor a The regular cleaning function combined with the running track device and the overall mechanical connection of the solar panel rotation mechanism are designed. The spherical photoresistor is used to detect the incident direction of sunlight, and the motor is controlled by the control mechanism to realize the adjustment of various angles of the solar panel. , so that the sunlight always shines on the solar panel vertically. At the same time, the use of the solar panel cleaning brush greatly improves the efficiency of power generation and mechanical precision, and overcomes the inaccurate detection of the incident angle of sunlight by traditional devices and the mechanical operation. Lag and poor adaptability to the environment.
本实用新型的技术方案为:The technical scheme of the utility model is:
一种光照自动跟踪的太阳能发电装置,该装置包括太阳能电池板模块、太阳能电池板旋转机构、蓄电模块和太阳光检测模块;A solar power generation device with automatic light tracking, the device includes a solar panel module, a solar panel rotation mechanism, a power storage module and a sunlight detection module;
所述太阳能电池板模块通过竖支撑杆与太阳能电池板旋转机构相连,所述太阳能电池板旋转机构通过两个半圆形拼接成的底座垂直固定在地面上;所述太阳光检测模块也垂直固定在地面上,同时与太阳能电池板旋转机构和太阳能电池板模块通过连接线相连;所述蓄电模块固定在太阳能电池板旋转机构的底座下边,分别与太阳能电池板模块、太阳能旋转机构和太阳光检测模块相连;The solar panel module is connected to the solar panel rotation mechanism through a vertical support rod, and the solar panel rotation mechanism is vertically fixed on the ground through a base formed by splicing two semicircles; the sunlight detection module is also vertically fixed On the ground, it is connected with the solar cell panel rotating mechanism and the solar cell panel module through connecting wires; the power storage module is fixed under the base of the solar cell panel rotating The detection module is connected;
所述的太阳能电池板模块包括太阳能电池板、运行轨道、电机a和清理刷;所述太阳能电池板为长方形,在其长边的两侧外沿固定安装有运行轨道,所述清理刷横跨在两个运行轨道上,所述电机a固定在清理刷上;The solar panel module includes a solar panel, a running track, a motor a and a cleaning brush; the solar panel is rectangular, and running tracks are fixedly installed on both sides of its long side, and the cleaning brush spans On the two running tracks, the motor a is fixed on the cleaning brush;
所述的太阳能电池板旋转机构包括横杆、轴承a、升降杆、电机b、水平台、竖支撑杆、筋、电机c、轴承b、底座、齿轮;所述两个轴承a分别固定在太阳能电池板短边的中点处,横杆穿过两个轴承a并与其固定连接;所述升降杆中间靠上部分为正常的金属连接杆,其顶部与太阳能电池板的长边中点相连,升降杆的下部为带齿轮的金属杆,所述的齿轮与电机b所带的齿轮相咬合,最下边则穿过水平台的通孔,升降杆的正常金属杆部分和带齿轮部分通过一个滚轴连接器相连;所述水平台的中心固定在竖支撑杆上,电机b安装在水平台上;水平台下边通过四个筋与竖支撑杆相连;所述竖支撑杆上端与横杆固定相连;其下端与轴承b固定相连,并且,轴承b的上端面安装有电机c,电机c所带齿轮与竖支撑杆下端所带齿轮相咬合;轴承b固定在两个半圆形拼接成的底座上,底座垂直固定在地面上;The solar panel rotation mechanism includes a cross bar, a bearing a, a lifting rod, a motor b, a horizontal platform, a vertical support rod, ribs, a motor c, a bearing b, a base, and a gear; the two bearings a are respectively fixed on the solar At the midpoint of the short side of the solar panel, the crossbar passes through the two bearings a and is fixedly connected to it; the middle upper part of the lifting rod is a normal metal connecting rod, and its top is connected to the midpoint of the long side of the solar panel. The lower part of the lifting rod is a metal rod with a gear, the gear is meshed with the gear of the motor b, and the bottom part passes through the through hole of the horizontal platform, and the normal metal rod part and the gear part of the lifting rod pass through a roller The shaft connector is connected; the center of the horizontal platform is fixed on the vertical support bar, and the motor b is installed on the horizontal platform; the lower side of the horizontal platform is connected with the vertical support bar through four ribs; the upper end of the vertical support bar is fixedly connected with the horizontal bar ; Its lower end is fixedly connected with the bearing b, and the upper end surface of the bearing b is equipped with a motor c, and the gear of the motor c is engaged with the gear at the lower end of the vertical support rod; the bearing b is fixed on the base formed by splicing two semicircles , the base is fixed vertically on the ground;
所述的太阳光检测模块包括外壳、内壳、外壳孔、内壳孔、球形光敏电阻、连接线、控制机构、线缆;所述球形光敏电阻为一圆球形状,在其外边分别套装有外壳和内壳,其中球形光敏电阻的球心、外壳的壳心、内壳的壳心均处于同一点,球形光敏电阻的直径为80-110mm,内壳直径为150-180mm,外壳直径为200-280mm,外壳孔的直径为28-32mm,内壳孔的直径为15-22mm;外壳孔在外壳表面上均匀分布,内壳表面内壳孔的数量与分布同外壳孔,且同一组外壳孔、内壳孔与球形光敏电阻的中心为同一直线;所述球形光敏电阻通过连接线与控制机构相连,控制机构则通过线缆分别与太阳能电池板模块和太阳能电池板旋转机构相连;The sunlight detection module includes an outer shell, an inner shell, an outer shell hole, an inner shell hole, a spherical photoresistor, a connecting wire, a control mechanism, and a cable; Outer shell and inner shell, in which the spherical center of the spherical photoresistor, the shell center of the outer shell, and the shell center of the inner shell are all at the same point, the diameter of the spherical photoresistor is 80-110mm, the diameter of the inner shell is 150-180mm, and the diameter of the outer shell is 200mm -280mm, the diameter of the shell hole is 28-32mm, and the diameter of the inner shell hole is 15-22mm; the shell holes are evenly distributed on the surface of the shell, and the number and distribution of the inner shell holes on the surface of the inner shell are the same as the shell holes, and the same set of shell holes , the inner shell hole and the center of the spherical photoresistor are on the same straight line; the spherical photoresistor is connected to the control mechanism through a connecting line, and the control mechanism is connected to the solar panel module and the solar panel rotation mechanism through cables;
所述的控制机构可以是单片机或者DSP。The control mechanism may be a single-chip microcomputer or DSP.
所述的太阳能电池板清理刷、电机a与运行轨道的具体连接为:所述两个运行轨道的下轨道槽为齿轮形状,与固定在清理刷上的电机a所带的齿轮相咬。The specific connection of the solar cell panel cleaning brush, motor a and running track is: the lower track grooves of the two running tracks are in the shape of a gear, which bites with the gear of the motor a fixed on the cleaning brush.
所述的太阳光检测模块中外壳孔的均匀分布具体为:在外壳的顶点分布第一个孔,外壳的最底部分布第二个孔,第一孔和第二孔在外壳表面两侧的最短弧线上,每侧均相同间隔分布相同数量的孔,数量为4-10个;两侧最短弧线上每组相同水平高度的两个孔形成的水平截面,与外壳表面交汇形成的圆上,都均匀间隔分布相同数量的孔,数量为8-16个。The uniform distribution of the shell holes in the sunlight detection module is specifically: the first hole is distributed at the apex of the shell, the second hole is distributed at the bottom of the shell, and the shortest distance between the first hole and the second hole is on both sides of the shell surface. On the arc, the same number of holes are distributed at the same interval on each side, the number is 4-10; the horizontal section formed by each group of two holes of the same horizontal height on the shortest arc on both sides is on the circle formed by the intersection with the surface of the shell , the same number of holes are evenly spaced, and the number is 8-16.
所述的蓄电模块为蓄电电池。The power storage module is a power storage battery.
所述球形光敏电阻是由数量等同于外壳孔数的光敏电阻组成,这些光敏电阻构成一个球体,每个光敏电阻对应一个壳孔,且每一光敏电阻都通过各自的连接线与控制机构相连。The spherical photoresistor is composed of photoresistors whose number is equal to the number of shell holes. These photoresistors form a sphere, each photoresistor corresponds to a shell hole, and each photoresistor is connected to the control mechanism through its own connection line.
本实用新型的实质性特点为:The substantive features of the utility model are:
本实用新型通过1、太阳能电池板旋转机构,水平方向和竖直方向的旋转机构器件连接;2、太阳光检测装置,双外壳以及球形光敏电阻的使用,使得入射角的测量没有盲区且精度高;3、太阳能电池板的清理刷、电机a、运行轨道器件结合起来的定期清理功能等设计,很好的避免了接近部分感光强弱差不多的问题,理想状态是同一时间只会有垂直照射的部分的光敏电阻才会有光的照射,即使其他部分有光的照射,也是十分微弱的,既没有盲区,精度又得到了提高。The utility model is connected by 1. the rotation mechanism of the solar cell panel, the rotation mechanism in the horizontal direction and the vertical direction; 2. The use of the sunlight detection device, the double shell and the spherical photoresistor, so that the measurement of the incident angle has no blind area and has high precision. ;3. The design of the cleaning brush of the solar panel, the motor a, and the running track device combined with the regular cleaning function can well avoid the problem that the photosensitive intensity of the nearby parts is similar. The ideal state is that there will only be vertical irradiation at the same time. Part of the photoresistor is illuminated by light, even if other parts are illuminated by light, it is very weak, there is no blind area, and the accuracy is improved.
本实用新型的有益效果是:The beneficial effects of the utility model are:
(1)本实用新型中太阳能电池板旋转机构的机械结构简单,设计合理,水平方向的旋转设计很好地避开了沉重的装置底座,竖直方向的旋转通过电机与轴承的结合使用,大大降低了阻力,尤其是两个升降杆的使用,使得太阳能电池板的旋转变得更加灵活精确;水平方向和竖直方向的结合旋转,使得太阳能电池板能够在任意时间都能使太阳光垂直照射到其上,由于只有当太阳光垂直照射到太阳能电池板上时,才能使太阳光的利用效率最高,所以本实用新型对发电效率的提升起到了十分重要的作用。(1) The mechanical structure of the solar panel rotation mechanism in the utility model is simple, and the design is reasonable. The rotation design in the horizontal direction avoids the heavy device base well, and the rotation in the vertical direction is greatly improved Reduced resistance, especially the use of two lifting rods, makes the rotation of the solar panel more flexible and precise; the combined rotation of the horizontal and vertical directions enables the solar panel to make the sun shine vertically at any time On top of that, since only when sunlight is irradiated vertically on the solar panel, can the utilization efficiency of sunlight be the highest, so the utility model plays a very important role in improving the power generation efficiency.
(2)本实用新型太阳光检测装置采用一种新型的机械结构,球形光敏电阻对光反应十分灵敏,内壳、外壳双层壳的结合使用,有效的防止了太阳光从不同的壳孔入射到光敏电阻的同一块区域上,同时,内外壳上的壳孔有序、紧密排列,能使光敏电阻接收到来自各个方向的太阳光,使太阳光入射角度的测量没有盲区,测量更加的精确,能保证太阳光在任意时刻都能垂直照射到太阳能电池板上,最终实现了太阳能发电的最大效率。(2) The solar light detection device of the utility model adopts a new type of mechanical structure, the spherical photoresistor is very sensitive to light, and the combination of the inner shell and the outer double shell effectively prevents sunlight from entering through different shell holes To the same area of the photoresistor, at the same time, the shell holes on the inner shell are arranged in an orderly and close manner, so that the photoresistor can receive sunlight from all directions, so that there is no blind spot in the measurement of the incident angle of sunlight, and the measurement is more accurate , which can ensure that sunlight can be irradiated vertically on the solar panel at any time, and finally realize the maximum efficiency of solar power generation.
(3)本实用新型太阳能电池板模块包括清理刷、电机a、运行轨道,太阳能电池板,当处于风沙、雾霾、尘土等恶劣情况下时,太阳能电池板表面会被覆盖一层障碍物,影响太阳能的吸收,通过清理刷的定时清理作用,能及时清除掉附着在太阳能电池板表面的障碍物,而无清理功能的装置,当太阳能电池板上附着一定的障碍物时,必定会减弱对太阳光的吸收,所以,相比那些无清理功能的装置,本实用新型的太阳能吸收效率明显得到进一步的提高。(3) The solar cell panel module of the present utility model comprises cleaning brush, motor a, running track, solar cell panel, when being in harsh conditions such as sandstorm, smog, dust, solar cell panel surface can be covered one deck obstacle, Affect the absorption of solar energy, through the regular cleaning function of the cleaning brush, the obstacles attached to the surface of the solar panel can be removed in time, and the device without cleaning function, when a certain obstacle is attached to the solar panel, it will definitely weaken the impact on the solar panel. Therefore, compared with those devices without cleaning function, the solar energy absorption efficiency of the utility model is obviously further improved.
附图说明:Description of drawings:
图1:本实用新型一种光照自动跟踪的太阳能发电装置的整体模块连接图;Figure 1: The connection diagram of the whole module of a solar power generation device with automatic light tracking in the utility model;
图2:本实用新型一种光照自动跟踪的太阳能发电装置的太阳能电池板模块的结构连接图;Figure 2: A structural connection diagram of the solar panel module of a solar power generation device with automatic light tracking in the utility model;
图3:本实用新型一种光照自动跟踪的太阳能发电装置的太阳能电池板清理刷、电机与运行轨道的细节连接图;Figure 3: A detailed connection diagram of the solar panel cleaning brush, the motor and the running track of a solar power generation device with automatic light tracking in the utility model;
图4:本实用新型一种光照自动跟踪的太阳能发电装置的太阳能电池板旋转机构的结构连接图;Figure 4: A structural connection diagram of the solar panel rotation mechanism of a solar power generation device with automatic light tracking in the utility model;
图5:本实用新型一种光照自动跟踪的太阳能发电装置的太阳光检测模块的剖面连接图。Fig. 5: A cross-sectional connection diagram of the sunlight detection module of a solar power generation device with automatic light tracking according to the utility model.
图中,1、太阳能电池板模块;2、太阳能电池板旋转机构;3、蓄电模块;4、太阳光检测模块;1-1、太阳能电池板;1-2、运行轨道;1-3、电机a;1-4、清理刷;2-1、横杆;2-2、轴承a;2-3、升降杆;2-4、电机b;2-5、水平台;2-6、竖支撑杆;2-7、筋;2-8、电机c;2-9、轴承b;2-10、底座;2-11、齿轮;4-1、外壳;4-2、内壳;4-3、外壳孔;4-4、内壳孔;4-5、光敏电阻;4-6、连接线;4-7、控制机构;4-8、线缆。In the figure, 1. solar panel module; 2. solar panel rotation mechanism; 3. power storage module; 4. sunlight detection module; 1-1. solar panel; 1-2. running track; 1-3. Motor a; 1-4, cleaning brush; 2-1, horizontal bar; 2-2, bearing a; 2-3, lifting rod; 2-4, motor b; 2-5, horizontal platform; 2-6, vertical Support bar; 2-7, rib; 2-8, motor c; 2-9, bearing b; 2-10, base; 2-11, gear; 4-1, shell; 4-2, inner shell; 4- 3. Shell hole; 4-4, inner shell hole; 4-5, photoresistor; 4-6, connecting wire; 4-7, control mechanism; 4-8, cable.
具体实施方式:detailed description:
以下结合实施例及其附图对本实用新型做进一步详述:Below in conjunction with embodiment and accompanying drawing thereof, the utility model is described in further detail:
图1所示的实施例表明,本实用新型一种光照自动跟踪的太阳能发电装置,该装置包括太阳能电池板模块1、太阳能电池板旋转机构2、蓄电模块3和太阳光检测模块4;The embodiment shown in Figure 1 shows that the utility model is a solar power generation device with automatic light tracking, which includes a solar panel module 1, a solar panel rotation mechanism 2, an electrical storage module 3 and a sunlight detection module 4;
所述太阳能电池板模块1通过竖支撑杆2-6与太阳能电池板旋转机构2相连,所述太阳能电池板旋转机构2通过两个半圆形拼接成的底座2-10垂直固定在地面上,增加了整个装置的稳定性;所述太阳光检测模块4也垂直固定在地面上,同时与电池板旋转机构2和太阳能电池板模块1通过连接线4-6相连;所述蓄电模块3放置在太阳能电池板旋转机构2的底座2-10下边并与太阳能电池板模块1相连,同时将储存的一部分电能输送给太阳能旋转机构2和太阳光检测模块4,进行实时的供电。The solar panel module 1 is connected to the solar panel rotation mechanism 2 through the vertical support rod 2-6, and the solar panel rotation mechanism 2 is vertically fixed on the ground through the base 2-10 spliced by two semicircles, The stability of the whole device is increased; the sunlight detection module 4 is also vertically fixed on the ground, and is connected with the panel rotation mechanism 2 and the solar panel module 1 through the connection line 4-6 at the same time; the storage module 3 is placed Under the base 2-10 of the solar panel rotating mechanism 2 and connected to the solar panel module 1, a part of the stored electric energy is delivered to the solar rotating mechanism 2 and the sunlight detection module 4 for real-time power supply.
图2所示的实施例表明,本实用新型一种光照自动跟踪的太阳能发电装置的太阳能电池板模块1包括太阳能电池板1-1,运行轨道1-2,电机a1-3和清理刷1-4;所述太阳能电池板1-1为长方形,在其长边的两侧外沿固定安装有运行轨道1-2,所述清理刷1-4横跨在两个运行轨道1-2上,所述电机a1-3固定在清理刷1-4上,在电机a1-3的驱动下,清理刷1-4能够依靠嵌入在运行轨道1-2上的两个小轮,沿着运行轨道1-2来回运动,拂过太阳能电池板1-1的表面,进行太阳能电池板1-1的风沙、灰尘等的清理;The embodiment shown in Fig. 2 shows that the solar panel module 1 of a solar power generation device for automatically tracking light of the utility model includes a solar panel 1-1, a running track 1-2, a motor a1-3 and a cleaning brush 1- 4. The solar cell panel 1-1 is rectangular, and running rails 1-2 are fixedly installed on the outer edges of both sides of its long side, and the cleaning brush 1-4 straddles the two running rails 1-2, The motor a1-3 is fixed on the cleaning brush 1-4. Driven by the motor a1-3, the cleaning brush 1-4 can rely on two small wheels embedded in the running track 1-2 to move along the running track 1. -2 moving back and forth, brushing over the surface of the solar panel 1-1, and cleaning the wind, sand, dust, etc. of the solar panel 1-1;
此实施例的工作原理是:本实用新型一种光照自动跟踪的太阳能发电装置安装在户外,不可避免的受到一些恶劣环境的影响,如风沙、灰尘、雾霾等等,将太阳能电池板1-1的表面覆盖,影响其对太阳能的吸收效率,本实用新型的控制机构4-7与太阳能电池板模块1相连,通过控制机构4-7内部的定时计数编程,来控制两个电机a1-3的定时转动,实现太阳能电池板1-1的清扫工作,从而大大提高了太阳能的利用效率。The working principle of this embodiment is: a solar power generation device with automatic light tracking of the utility model is installed outdoors, and is inevitably affected by some harsh environments, such as sandstorms, dust, smog, etc., and the solar panel 1- The surface coverage of 1 affects its absorption efficiency of solar energy. The control mechanism 4-7 of the present invention is connected with the solar panel module 1, and the two motors a1-3 are controlled by the timing and counting programming inside the control mechanism 4-7. The timing rotation realizes the cleaning work of the solar panel 1-1, thereby greatly improving the utilization efficiency of solar energy.
图3所示的实施例是本实用新型一种光照自动跟踪的太阳能发电装置的太阳能电池板清理刷1-4、电机a1-3与运行轨道1-2的细节连接图;其中,所述两个运行轨道1-2的下轨道槽为齿轮形状,与固定在清理刷1-4上的电机a所带的齿轮相咬合来进行清理刷1-4的一步一步的驱动清理工作。The embodiment shown in Figure 3 is a detailed connection diagram of the solar panel cleaning brush 1-4, the motor a1-3 and the running track 1-2 of a solar power generation device with automatic illumination tracking of the utility model; wherein, the two The lower track groove of a running track 1-2 is a gear shape, and is engaged with the gear that is fixed on the motor a on the cleaning brush 1-4 to carry out the driving cleaning work of the cleaning brush 1-4 step by step.
图4所示的实施例表明,本实用新型一种光照自动跟踪的太阳能发电装置的太阳能电池板旋转机构2包括横杆2-1、轴承a2-2、升降杆2-3、电机b2-4、水平台2-5、竖支撑杆2-6、筋2-7、电机c2-8、轴承b2-9、底座2-10、齿轮2-11;所述两个轴承a2-2分别固定在太阳能电池板1-1短边的中点处,横杆2-1穿过两个轴承a2-2并与其固定连接,轴承a2-2的作用即减少当太阳能电池板1-1上下运动改变倾斜角度时的摩擦阻力;所述升降杆2-3中间靠上部分为正常的金属连接杆,其顶部与太阳能电池板1-1的长边中点相连(即安装在太阳能电池板上),升降杆2-3的下部为带齿轮的金属杆,所述的齿轮与电机b2-4所带的齿轮相咬合,最下边则穿过水平台2-5的通孔,值得注意的是,升降杆2-3的正常金属杆部分和带齿轮部分通过一个滚轴连接器相连,使得两部分能够实现左右的摆动,保证两升降杆2-3始终保持在水平台2-5的通孔之间的距离;通过电机b2-4带动升降杆2-3的上下运动(两个电机同时带动两个升降杆上下运动,只是两个升降杆的方向不同,一个向上一个向下),从而拉动太阳能电池板1-1长边的上下运动,最终实现太阳能电池板1-1在竖直方向的倾斜角度的变化;所述水平台2-5的中心固定在竖支撑杆2-6上,电机b2-4安装在水平台2-5上;为保证水平台2-5的稳固,在其下边通过四个筋2-7与竖支撑杆2-6进一步相连;所述竖支撑杆2-6上端通过如图所示的形状与横杆2-1固定相连,起到支撑太阳能电池板模块1的作用;其下端与相对来说比较大的轴承b2-9固定相连,并且,轴承b2-9的上端面安装有电机c2-8,电机c2-8所带齿轮与竖支撑杆2-6下端所带齿轮2-11相咬合,通过电机c2-8来驱动竖支撑杆2-6的转动,从而实现太阳能电池板模块1在水平面上的方向角度变化。太阳能电池板1-1的水平旋转和竖直旋转相结合,最终实现其在各个方向的角度变化。轴承b2-9固定在两个半圆形拼接成的底座2-10上,底座2-10垂直固定在地面上。The embodiment shown in Figure 4 shows that the solar panel rotation mechanism 2 of a solar power generation device with automatic light tracking of the present invention includes a cross bar 2-1, a bearing a2-2, a lifting rod 2-3, and a motor b2-4 , horizontal platform 2-5, vertical support rod 2-6, rib 2-7, motor c2-8, bearing b2-9, base 2-10, gear 2-11; the two bearings a2-2 are respectively fixed on At the midpoint of the short side of the solar panel 1-1, the cross bar 2-1 passes through two bearings a2-2 and is fixedly connected to it. The function of the bearing a2-2 is to reduce the tilt when the solar panel 1-1 moves up and down. Frictional resistance during the angle; the upper part in the middle of the lifting rod 2-3 is a normal metal connecting rod, and its top is connected to the midpoint of the long side of the solar panel 1-1 (that is, installed on the solar panel), and the lifting The lower part of the rod 2-3 is a metal rod with a gear, and the gear is meshed with the gear of the motor b2-4, and the bottom part passes through the through hole of the horizontal platform 2-5. It is worth noting that the elevating rod The normal metal rod part of 2-3 is connected with the gear part through a roller connector, so that the two parts can swing left and right, and ensure that the two lifting rods 2-3 are always kept between the through holes of the horizontal platform 2-5. Distance; the motor b2-4 drives the lifting rod 2-3 to move up and down (two motors drive the two lifting rods to move up and down at the same time, but the direction of the two lifting rods is different, one is up and the other is down), thereby pulling the solar panel The up and down movement of the long side of 1-1 finally realizes the change of the inclination angle of the solar panel 1-1 in the vertical direction; the center of the horizontal platform 2-5 is fixed on the vertical support rod 2-6, and the motor b2-4 Installed on the horizontal platform 2-5; for ensuring the firmness of the horizontal platform 2-5, it is further connected with the vertical support bar 2-6 by four ribs 2-7 at its lower side; the upper end of the vertical support bar 2-6 is passed as The shape shown in the figure is fixedly connected with the crossbar 2-1 to support the solar panel module 1; its lower end is fixedly connected with the relatively large bearing b2-9, and the upper end surface of the bearing b2-9 A motor c2-8 is installed, and the gear of the motor c2-8 is engaged with the gear 2-11 of the lower end of the vertical support bar 2-6, and the rotation of the vertical support bar 2-6 is driven by the motor c2-8, thereby realizing solar energy The orientation angle of the battery panel module 1 on the horizontal plane changes. The combination of horizontal rotation and vertical rotation of the solar cell panel 1-1 finally realizes its angle change in various directions. The bearing b2-9 is fixed on the base 2-10 formed by splicing two semicircles, and the base 2-10 is vertically fixed on the ground.
图5所示的实施例表明,本实用新型一种光照自动跟踪的太阳能发电装置的太阳光检测模块包括外壳4-1、内壳4-2、外壳孔4-3、内壳孔4-4、球形光敏电阻4-5、连接线4-6、控制机构4-7、线缆4-8;所述光敏电阻4-5为一圆球形状,它对光照反应十分灵敏,微弱的光照强度变化就能引起电阻值的急速变化,在其外边相隔一定距离分别套装有外壳4-1和内壳4-2,其中球形光敏电阻的球心、外壳的壳心、内壳的壳心均处于同一点,球形光敏电阻的直径为80-110mm,内壳直径为150-180mm,外壳直径为200-280mm,外壳孔的直径为28-32mm,内壳孔的直径为15-22mm。外壳孔在外壳表面上均匀分布,所述的均匀分布的方式为:在外壳的顶点分布第一个孔,外壳的最底部分布第二个孔(第一孔与第二孔相对球心直线对称),第一孔和第二孔在外壳表面两侧的最短弧线上(两侧弧线在同一竖直截面上),每侧球面弧线上均相同间隔分布分布相同数量的孔,数量为4-10个;两侧最短弧线上每组相同水平高度的两个孔形成的水平截面,与外壳表面交汇形成的圆上,都均匀间隔分布相同数量的孔,数量为8-16个;内壳表面内壳孔的数量与分布同外壳孔,且同一组外壳孔、内壳孔与球形光敏电阻的中心为同一直线。The embodiment shown in Fig. 5 shows that the solar light detection module of a solar power generation device with automatic light tracking of the utility model includes an outer shell 4-1, an inner shell 4-2, an outer shell hole 4-3, and an inner shell hole 4-4 , spherical photoresistor 4-5, connection wire 4-6, control mechanism 4-7, cable 4-8; described photoresistor 4-5 is a spherical shape, and it is very sensitive to light response, weak light intensity Changes can cause rapid changes in the resistance value, and the outer shell 4-1 and the inner shell 4-2 are respectively set at a certain distance apart, wherein the spherical center of the spherical photoresistor, the shell center of the outer shell, and the shell center of the inner shell are all in the At the same point, the diameter of the spherical photoresistor is 80-110mm, the diameter of the inner shell is 150-180mm, the diameter of the outer shell is 200-280mm, the diameter of the outer shell hole is 28-32mm, and the diameter of the inner shell hole is 15-22mm. The housing holes are evenly distributed on the surface of the housing. The uniform distribution method is as follows: the first hole is distributed at the apex of the housing, and the second hole is distributed at the bottom of the housing (the first hole and the second hole are symmetrical to the center of the sphere. ), the first hole and the second hole are on the shortest arc on both sides of the shell surface (the arcs on both sides are on the same vertical section), and the same number of holes are distributed at the same interval on each side of the spherical arc, and the number is 4-10; on the horizontal section formed by each group of two holes of the same horizontal height on the shortest arc on both sides, on the circle formed by the intersection with the surface of the shell, the same number of holes are evenly spaced, and the number is 8-16; The number and distribution of inner shell holes on the surface of the inner shell are the same as those of the outer shell holes, and the centers of the same group of outer shell holes, inner shell holes and spherical photoresistors are on the same straight line.
由于所述外壳4-1和内壳4-2的外表面均匀密集的分布有适当大小的外壳孔4-3、内壳孔4-4,且每一组外壳孔4-3、内壳孔4-4、球形光敏电阻4-5的球心均在同一条直线上,使得任意方向的太阳光都能通过两个内外壳孔射入到光敏电阻4-5上,选用两个壳的原因即为两点确定一条直线,防止阳光从不同的壳孔入射到光敏电阻4-5的球面同一块区域上,从而导致太阳光入射角度测量的失误。本实施例中的太阳光检测装置具体为:其中球形光敏电阻的球心、外壳的壳心、内壳的壳心均处于同一点,且外壳直径为200mm,内壳直径为160mm,球形光敏电阻的直径为100mm,外壳孔的直径为30mm,内壳孔的直径为20mm。外壳孔在外壳表面上均匀分布,所述的均匀分布的方式为:在外壳的顶点分布第一个孔,外壳的最底部分布第二个孔(第一个孔与第二个孔相对球心直线对称),第一孔和第二孔在外壳表面两侧的最短弧线上(两侧弧线在同一竖直截面上),每侧球面弧线上均相同间隔分布6个孔(即相邻两个孔与球心的夹角为25.7度),最终连同第一个孔和第二个孔,两个孔形成的竖直截面在整个外壳圆周上共有14个孔;同时,两侧弧线上每组相同水平高度的两个孔形成的水平截面,与外壳表面交汇形成的圆上,都每隔30度均匀间隔分布一个孔,则水平方向上共计12个壳孔,这样,外壳上就均匀布满了壳孔,壳孔总数为74个。内壳表面内壳孔的数量与分布同外壳孔。且同一组外壳孔、内壳孔与球形光敏电阻的中心为同一直线。所述球形光敏电阻4-5是由数量等同于外壳孔数的光敏电阻组成,这些光敏电阻构成一个球体,每个光敏电阻在球体表面对应一个壳孔,且每一光敏电阻都通过各自的连接线4-6将信号送入控制机构4-7中,控制机构4-7则通过线缆4-8与太阳能电池板模块1和太阳能电池板旋转机构2相连,通过控制电机a1-3、电机b2-4、电机c2-8的旋转,实现太阳光的自动追踪和障碍物的清理工作;所述的控制机构可以是单片机或者DSP,它们接受到这些信号后,通过内部的编程处理(所述的编程处理为公知技术),分析信号的强弱,从而选出垂直入射的角度。本实用新型具体为DSP。Since the outer surfaces of the outer shell 4-1 and the inner shell 4-2 are uniformly and densely distributed with outer shell holes 4-3 and inner shell holes 4-4 of appropriate sizes, and each group of outer shell holes 4-3 and inner shell holes 4-4. The spherical center of the spherical photoresistor 4-5 is on the same straight line, so that sunlight in any direction can be injected into the photoresistor 4-5 through the two inner shell holes. The reason for choosing two shells That is to determine a straight line for the two points to prevent sunlight from incident on the same area of the spherical surface of the photoresistor 4-5 from different shell holes, thereby causing errors in the measurement of the incident angle of sunlight. The sunlight detection device in this embodiment is specifically: wherein the spherical center of the spherical photoresistor, the shell center of the outer shell, and the shell center of the inner shell are all at the same point, and the diameter of the outer shell is 200 mm, and the diameter of the inner shell is 160 mm. The diameter of the shell is 100mm, the diameter of the outer shell hole is 30mm, and the diameter of the inner shell hole is 20mm. The housing holes are evenly distributed on the surface of the housing. The uniform distribution method is as follows: the first hole is distributed at the apex of the housing, and the second hole is distributed at the bottom of the housing (the first hole and the second hole are opposite to the center of the sphere. straight line symmetry), the first hole and the second hole are on the shortest arc on both sides of the shell surface (the arcs on both sides are on the same vertical section), and 6 holes are distributed at the same interval on each side of the spherical arc (that is, the same The angle between the two adjacent holes and the center of the sphere is 25.7 degrees), and finally together with the first hole and the second hole, the vertical section formed by the two holes has 14 holes in the entire circumference of the shell; at the same time, the arcs on both sides On the horizontal section formed by two holes of the same horizontal height on the line, on the circle formed by the intersection with the surface of the shell, a hole is evenly spaced every 30 degrees, and there are 12 shell holes in the horizontal direction. In this way, the shell The shell holes are evenly covered, and the total number of shell holes is 74. The number and distribution of inner shell holes on the surface of the inner shell are the same as those of the outer shell holes. And the same group of shell holes, inner shell holes and the center of the spherical photoresistor are on the same straight line. The spherical photoresistor 4-5 is made up of photoresistors whose number is equal to the number of holes in the housing. The line 4-6 sends the signal to the control mechanism 4-7, and the control mechanism 4-7 is connected with the solar panel module 1 and the solar panel rotation mechanism 2 through the cable 4-8, and controls the motor a1-3, the motor The rotation of b2-4, motor c2-8 realizes the automatic tracking of sunlight and the cleaning work of obstacles; the control mechanism can be single-chip microcomputer or DSP, after they receive these signals, process through internal programming (described The programming process is a known technology), and the strength of the signal is analyzed to select the angle of vertical incidence. The utility model is specifically a DSP.
本实用新型一种光照自动跟踪的太阳能发电装置的工作原理是:当阳光从某一入射角度照射到太阳光检测模块4的外壳4-1上时,只有当光线经外壳孔4-3、内壳孔4-4垂直射入时,球形光敏电阻4-5的某一区域才能接收到太阳光,然后光敏电阻4-5经连接线4-6将信号传送给控制机构4-7,控制机构4-7通过对接收到的信号进行分析之后,将对太阳能电池板旋转机构2发出指令,控制电机c2-8转动,使得太阳能电池板1-1能在水平面上进行角度的调整,控制电机b2-4的转动,能使得太阳能电池板1-1在竖直面上进行角度的调整,电机b2-4和电机c2-8的结合使用,最终调整好太阳能电池板1-1的角度使得太阳光能垂直照射到其上,从而实现了太阳光的自动追踪;除此之外,为尽可能减少风沙、灰尘、雾霾等对太阳能电池板1-1的影响,在控制机构4-7中进行设定定时计时的程序来进行对电机a的控制,从而带动清理刷1-4来对太阳能电池板1-1进行定时的清理,清理的时间间隔可以根据当地的具体环境特点来设定;The working principle of a solar power generation device with automatic light tracking in the utility model is: when sunlight irradiates on the casing 4-1 of the sunlight detection module 4 from a certain incident angle, only when the light passes through the casing hole 4-3, the inner When the shell hole 4-4 is vertically injected, a certain area of the spherical photoresistor 4-5 can receive sunlight, and then the photoresistor 4-5 transmits the signal to the control mechanism 4-7 through the connection line 4-6, and the control mechanism 4-7 After analyzing the received signal, an instruction will be sent to the solar panel rotation mechanism 2 to control the rotation of the motor c2-8, so that the solar panel 1-1 can adjust the angle on the horizontal plane and control the motor b2 The rotation of -4 can make the angle adjustment of the solar panel 1-1 on the vertical plane, and the combined use of the motor b2-4 and the motor c2-8 finally adjusts the angle of the solar panel 1-1 so that the sunlight It can be irradiated vertically on it, thereby realizing the automatic tracking of sunlight; in addition, in order to reduce the influence of wind, sand, dust, haze, etc. Set the timing program to control the motor a, so as to drive the cleaning brush 1-4 to clean the solar panel 1-1 regularly, and the cleaning time interval can be set according to the specific local environmental characteristics;
所述的蓄电模块3为市售蓄电电池,用来存储装置太阳能电池板1-1产生的电能,同时为装置提供一小部分电能。The electric storage module 3 is a commercially available electric storage battery, which is used to store the electric energy generated by the solar panel 1-1 of the device, and at the same time provide a small part of electric energy for the device.
本实用新型一种光照自动跟踪的太阳能发电装置,所用的元器件和零部件均是本技术领域的技术人员所熟知的,可以通过购买得到,所有元器件之间的连接方式和零部件的安装方式等也是本技术领域的技术人员所熟知的。The utility model is a solar power generation device with automatic light tracking. The components and parts used are well known to those skilled in the art and can be obtained through purchase. The connection mode between all components and the installation of parts Methods and the like are also well known to those skilled in the art.
需要强调的是,本实用新型所述的实施例是说明性的,而不是限定性的,因此本实用新型包括并不限于具体实施方式中所述的实施例,凡是由本领域技术人员根据本实用新型的技术方案得出的其他实施方式,同样属于本申请权利要求保护的范围。It should be emphasized that the embodiments described in the utility model are illustrative rather than restrictive, so the utility model includes but not limited to the embodiments described in the specific implementation, and those skilled in the art according to the utility model Other implementations obtained from the novel technical solution also belong to the protection scope of the claims of this application.
本实用新型未述及之处适用于现有技术。The unmentioned part of the utility model is applicable to the prior art.
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| CN105610385A (en) * | 2016-03-02 | 2016-05-25 | 河北工业大学 | Photovoltaic power generation device capable of automatically adjusting light receiving angle |
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| CN105610385A (en) * | 2016-03-02 | 2016-05-25 | 河北工业大学 | Photovoltaic power generation device capable of automatically adjusting light receiving angle |
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