CN101225801B - H-plus-sail wing-shaped three-group windmill reverse rotation power generation method and generator set - Google Patents

H-plus-sail wing-shaped three-group windmill reverse rotation power generation method and generator set Download PDF

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CN101225801B
CN101225801B CN200810049234XA CN200810049234A CN101225801B CN 101225801 B CN101225801 B CN 101225801B CN 200810049234X A CN200810049234X A CN 200810049234XA CN 200810049234 A CN200810049234 A CN 200810049234A CN 101225801 B CN101225801 B CN 101225801B
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windmills
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乔飞阳
乔飞飞
乔晖照
曹润芳
乔会元
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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
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    • Y02E10/74Wind turbines with rotation axis perpendicular to the wind direction
    • 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
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Abstract

The invention discloses an H-shaped triple windmill with sails and wings reverse rotation power generation method and a power generation set, belonging to the technical field of wind power generation. The H-shaped triple windmill is characterized in that inner rotors (25) at two upper and lower ends of an upper generator and a lower generator are respectively connected with an upper long oblique pull beam (4) and a lower long oblique pull beam (18) and the first windmill group (26); the inner rotors (25) at the other ends of the two generators are respectively connected with an upper short oblique pull beam (8) and a lower short oblique pull beam (20) of the third windmill group (22); the rotors can be made to rotate in the same rotary direction synchronously under the action of wind; the second windmill group (21) drives the outer rotors of the generator to rotate in another direction; the magnetic lines of the inner rotors and the outer rotor are cut simultaneously; the triple windmills are respectively composed of H shaped blades with sails and wings. The H-shaped triple windmill with sails and wings reverse rotation power generation method and a power generation set has the advantages of rapidly enabling plump power generation curve and quickening the cutting of the magnetic lines.

Description

H加风帆机翼形三组风车逆向旋转发电方法及发电机组 H-plus-sail wing-shaped three-group windmill reverse rotation power generation method and generator set

技术领域technical field

本发明属于风力发电设备技术领域,尤其是涉及一种H加风帆机翼形三组风车逆向旋转发电方法的发电机组。The invention belongs to the technical field of wind power generation equipment, and in particular relates to a generator set with H-plus-sail-wing-shaped three-group windmills for reverse rotation power generation method.

背景技术Background technique

我国的风力资源极为丰富,绝大多数地区的年平均风速都在每秒5米以上,特别是东北、西北、西南高原和沿海岛屿,平均风速更大;有的地方,一年三分之一以上的时间都是大风天。在这些地区,发展风力发电是很有前途的。风是没有公害的能源之一。而且它取之不尽,用之不竭。对于缺水、缺燃料和交通不便的沿海岛屿、草原牧区、山区和高原地带,因地制宜地利用风力发电,非常适合,大有可为。my country is extremely rich in wind resources, and the annual average wind speed in most areas is above 5 meters per second, especially in the northeast, northwest, southwest plateaus and coastal islands, where the average wind speed is even higher; All of the above times are windy days. In these areas, the development of wind power generation is very promising. Wind is one of the energy sources without pollution. And it is inexhaustible and inexhaustible. For coastal islands, grasslands, pastoral areas, mountainous and plateau areas that lack water, fuel, and inconvenient transportation, the use of wind power generation according to local conditions is very suitable and promising.

世界上最早的垂直轴风力发电机是一种圆弧形双叶片的结构,即Φ型或称为达里厄,由于其受风面积小,相应的启动风速较高,一直未得到大力发展,我国也在前几年做了一些尝试,但效果始终不理想;它的技术原理是采用空气动力学原理,针对垂直轴风车的风洞旋转模拟实验,选用了飞机机翼形风叶,在风车旋转时,风叶不容易变形而改变风力效率;它用垂直机翼风叶由3-5个叶片组成一组风车,由叶片连接连杆组成的风车,带动稀土永磁发电机发电送往控制器进行输配控制,送电将发出的电快速送入电网;该技术原理根据空气动力流体理论,实际计算可选取垂直风机旋转轴的切面进行计算,按叶片实际尺寸,每个叶片的旋转轴心距离为N米;用CFD技术进行模拟气动系数计算,计算原理采用离散数字方法求解翼形断面的气动力,用网格方法对雷诺数流动涡量分布比较形成高雷诺数下对Navier-Stokes方程进行数字模拟计算的原理结果。The earliest vertical-axis wind turbine in the world is a circular arc-shaped double-blade structure, that is, Φ-shaped or called Darrieux. Due to its small wind-receiving area and correspondingly high starting wind speed, it has not been vigorously developed. Our country has also made some attempts in the past few years, but the effect has not been satisfactory; its technical principle is to use the principle of aerodynamics, and for the wind tunnel rotation simulation experiment of the vertical axis windmill, the aircraft wing-shaped wind blades are selected. When rotating, the wind blades are not easy to deform and change the wind power efficiency; it uses vertical wing blades to form a set of windmills with 3-5 blades, and the windmills composed of blades connected to connecting rods drive rare earth permanent magnet generators to generate electricity and send them to the control The transmission and distribution control is carried out by the power transmission, and the generated electricity is quickly sent to the power grid; the technical principle is based on the theory of aerodynamic fluid, and the actual calculation can be calculated by selecting the section of the vertical fan rotation axis. According to the actual size of the blade, the rotation axis of each blade The center distance is N meters; CFD technology is used to calculate the simulated aerodynamic coefficient. The calculation principle adopts the discrete digital method to solve the aerodynamic force of the airfoil section. Principle results of numerical simulation calculations of equations.

然而另一种H型风力发电机的原理,风车的转速上升速度提高较快,力矩上升速度快,它的发电功率上升速度也相应变快,发电曲线变得饱满。在同样功率下,垂直轴风力发电机的额定风速较现有水平轴风力发电机要小,并且它在低风速运转时发电量也较大,但是在大型风力发电中却恰恰相反。However, according to the principle of another H-type wind turbine, the speed of the windmill rises faster, the speed of the torque rises faster, and its power rises faster accordingly, and the power generation curve becomes fuller. Under the same power, the rated wind speed of the vertical axis wind turbine is smaller than that of the existing horizontal axis wind turbine, and it generates more electricity when it operates at low wind speed, but it is just the opposite in large wind power generation.

采用稀土永磁材料发电的原理,配套与空气洞力学原理的风轮,采用直驱式结构进行旋转发电。The principle of rare earth permanent magnet material is used to generate electricity, and the wind wheel matched with the principle of air cavity mechanics adopts a direct drive structure to rotate and generate electricity.

纵观国内外的风力发电设备后发现,目前为止尚未有人大胆的提出过采用H加风帆机翼形风叶的三组风车,逆向旋转的风力发电的设计方案。After taking a general survey of wind power generation equipment at home and abroad, it is found that so far no one has boldly proposed the design scheme of three groups of windmills using H plus sail wing-shaped blades, and reverse-rotating wind power generation.

发明内容Contents of the invention

本发明的目的是通过H加风帆机翼形叶片组成三组风车,内、中、外按大小不同设计结构形式的三组风车,在受风后所产生逆向旋转高效发电的原理,提供一种H加风帆机翼形三组风车逆向旋转发电方法及发电机组;本发明的H加风帆机翼形三组风车逆向旋转带动发电机逆向旋转发电的发电方法;单层固定架内安装了第一组风车、第二组风车、第三组风车;第一组风车、第三组风车同时带动上下两个发电机的上、下两端的内转子;第二组风车带动上下发电机的外转子,向另一方向旋转;可使发电机的发电曲线快速变得饱满,更快的切割磁力线;在三组风车同受风力作用时,其发电机组所产生的电能是单独的任何一种风力发电机发电量的2.0-2.5倍之间,也是单独的H型风力发电机发电量的3.0-3.5倍之间。The purpose of the present invention is to form three groups of windmills by adding sail wing-shaped blades, and the three groups of windmills with different design structures in the inner, middle and outer sides, and the principle of reverse rotation and high-efficiency power generation generated after receiving the wind, to provide a H plus sail wing-shaped three-group windmill reverse rotation power generation method and generator set; the H plus sail wing-shaped three-group windmill reverse rotation of the present invention drives the generator reverse rotation power generation method; the single-layer fixed frame is installed with the first The first group of windmills, the second group of windmills, and the third group of windmills; the first group of windmills and the third group of windmills simultaneously drive the inner rotors at the upper and lower ends of the upper and lower generators; the second group of windmills drives the outer rotors of the upper and lower generators, Rotate in the other direction; the power generation curve of the generator can become full quickly, and the magnetic field line can be cut faster; when the three groups of windmills are affected by the wind force at the same time, the electric energy generated by the generator set is independent of any wind generator The power generation is between 2.0-2.5 times, and it is also between 3.0-3.5 times that of a single H-type wind turbine.

本发明实现上述风力发电方法的具体内容为:The concrete content that the present invention realizes above-mentioned wind power generation method is:

一种H加风帆机翼形三组风车逆向旋转发电方法在技术解决其运行方法中的技术特征在于;A kind of H plus sail wing-shaped three-group windmill reverse rotation power generation method in the technical solution of its operation method is characterized in that;

1)、H加风帆机翼形叶片组成的风车提高了受风面积;1), the windmill composed of H plus sail wing-shaped blades increases the wind receiving area;

2)、单层固定架是由单层固定架内的上固定盘、下固定盘组成,在固定盘内的上下两端安装两台发电机;2) The single-layer fixed frame is composed of an upper fixed plate and a lower fixed plate in the single-layer fixed frame, and two generators are installed at the upper and lower ends of the fixed plate;

3)、每层固定架内设计安装三组风车;3) Three groups of windmills are designed and installed in each fixed frame;

4)、两台发电机的内转子、上外转子、下外转子、内转子分别连接三组不同型号的大小风车;4) The inner rotors, upper outer rotors, lower outer rotors, and inner rotors of the two generators are respectively connected to three groups of windmills of different sizes;

5)、在H风帆机翼形叶片的两端设置有H叶片自动转向调控器、风帆叶片通过转向调控器;实现风叶片在背面顶风时自动调节风叶片的迎风角度,最大限度的减少风叶负面风阻;5), the two ends of the H-sail airfoil-shaped blades are provided with H-blade automatic steering controllers, and the sail blades pass through the steering controllers; when the wind blades are facing the wind at the back, the windward angle of the wind blades is automatically adjusted, and the wind blades are minimized. negative wind resistance;

6)、三组风车在受风旋转运动的方向是逆向转动,形成互不干扰风能的旋转运动,可以最大限度的实现中心固定柱和整体风力发电机的稳定性的逆向转动方法;6), the three groups of windmills rotate in the opposite direction in the direction of the wind-receiving rotation, forming a rotation without interfering with wind energy, which can maximize the stability of the central fixed column and the overall wind generator;

7)、每层固定架内安装3组H加风帆机翼形叶片的风车,在风车受风后按设计的反方向运转程序,逆向运转带动内外转子逆向旋转发电的单层发电机组;7) Three sets of windmills with H plus sail wing-shaped blades are installed in the fixed frame of each layer. After the windmill receives the wind, it operates in the opposite direction according to the designed operation procedure, and the reverse operation drives the inner and outer rotors to rotate in reverse to generate power. Single-layer generator set;

8)、本发明实现了多层多发电机组同时工作发电,在大功率数兆瓦级发电机组中实现了可调控多层多发电机组;8), the present invention realizes multi-layer multi-generator sets working simultaneously to generate electricity, and realizes controllable multi-layer multi-generator sets in high-power multi-megawatt generator sets;

9)、可调控个别发电机停机不发电,其它发电机组可以正常运转发电,可实现大兆瓦级发电机组多层工作的多发电机组。9) It can be adjusted that individual generators stop and do not generate electricity, and other generators can operate normally to generate electricity, which can realize multi-generator sets with multi-layer work of large megawatt generators.

每层固定架内上、下固定盘上安装两个逆向旋转的发电机,上下两个发电机的上、下两端内转子分别连接第一组风车的上长斜拉梁、下长斜拉梁,上下两个发电机的另一端内转子分别连接第三组风车的上短斜拉梁、下短斜拉梁,在风车受风力作用下,使两组风车能够同步进入一个旋转方向;第二组风车的上下中斜拉梁连接上下两个发电机的外转子,带动发电机的外转子逆向运行,向相反方向旋转;发电机的内转子、外转子的磁力线在最短时间内进行最快切割发电。也就是说本发明中的发电机没有定子,是一种内外转子逆向旋转的高效能发电机;在本设计方案中,三组风车分别由H加风帆机翼形叶片组成,也就是说本发明中的第一组风车、第二组风车、第三组风车都是用H加风帆机翼形叶片组成的;中心固定柱穿在内转子内,利用设置在中心固定柱外部的轴承使其内转子转动,中心固定柱是多层多发电机组整体固定的中心。Two counter-rotating generators are installed on the upper and lower fixed plates in each fixed frame, and the inner rotors at the upper and lower ends of the upper and lower two generators are respectively connected to the upper long cable-stayed beam and the lower long cable-stayed beam of the first group of windmills. Beam, the inner rotors at the other end of the upper and lower generators are respectively connected to the upper short cable-stayed beam and the lower short cable-stayed beam of the third group of windmills, so that the two groups of windmills can synchronously enter a rotation direction under the action of wind force; The upper and lower center cable-stayed beams of the two groups of windmills connect the outer rotors of the upper and lower generators, which drive the outer rotors of the generators to run in reverse and rotate in opposite directions; cutting power generation. That is to say that the generator in the present invention does not have a stator, and is a high-efficiency generator with reverse rotation of the inner and outer rotors; The first group of windmills, the second group of windmills, and the third group of windmills are all composed of H plus sail wing-shaped blades; the central fixed column passes through the inner rotor, and the bearings arranged outside the central fixed column make the inner rotor The rotor rotates, and the central fixing column is the center of the overall fixing of the multi-storey multi-generator set.

该H加风帆机翼形三组风车逆向旋转发电的方法,是在单层固定架内上下固定盘上安装两个发电机,其上部发电机上端的内转子连接外围的第一组风车的上长斜拉梁、上部发电机的上外转子连接第二组风车的上中斜拉梁、上部发电机下端的内转子连接第三组风车的上短斜拉梁;与其相对应安装在下部发电机上端的内转子连接下短斜拉梁,下部发电机的外转子连接第二组风车的下中斜拉梁,下部发电机下端的内转子连接下长斜拉梁。The H plus sail wing-shaped three groups of windmills reversely rotate the power generation method, which is to install two generators on the upper and lower fixed plates in the single-layer fixed frame, and the inner rotor at the upper end of the upper generator is connected to the upper part of the first group of windmills on the periphery. The long cable-stayed beam, the upper outer rotor of the upper generator is connected to the upper middle cable-stayed beam of the second group of windmills, and the inner rotor at the lower end of the upper generator is connected to the upper short cable-stayed beam of the third group of windmills; The inner rotor at the upper end of the machine is connected to the lower short cable-stayed beam, the outer rotor of the lower generator is connected to the lower middle cable-stayed beam of the second group of windmills, and the inner rotor at the lower end of the lower generator is connected to the lower long cable-stayed beam.

本发明具有扩展结构,在两个发电机上、下端的内转子与外转子部分设置有轴承,当内转子与外转子快速相向转动时,可借助轴承防范不稳定因索的出现,在扩展结构的中心固定柱中同样设置有协助内转子转动的轴承,因此本发明的稳定性较为牢靠;中心固定柱的中间为空心结构,该空心结构可作为电能输送及人员上下检修设备所用。The present invention has an extended structure. Bearings are provided on the inner rotor and the outer rotor at the upper and lower ends of the two generators. When the inner rotor and the outer rotor rotate rapidly in opposite directions, the bearings can be used to prevent the occurrence of unstable factors. In the extended structure The central fixed column is also provided with a bearing to assist the rotation of the inner rotor, so the stability of the present invention is relatively reliable; the middle of the central fixed column is a hollow structure, which can be used for power transmission and personnel maintenance equipment.

按照本发明方法通过一种H加风帆机翼形三组风车逆向旋转发电的发电机组,三组风车是相反方向作工,逆向旋转带动发电机的内外转子逆向运转发电的发电机组;逆向旋转发电形式是该风力发电机组实现了利用风力的效率大大提高,用三组风车逆向旋转发电,是发电机组又提高了数倍发电功率,使风力发电成本大幅下降;该H加风帆机翼形叶片组合的三组风车,逆向旋转,带动风力发电机组运行发电;第一组风车、第三组风车的运行加上第二组风车逆向旋转运行及其内、外转子发电机的独特结构,实现了高效发电的目的;上固定盘的下部与中心固定柱的上端连接,在中心固定柱的上部设有两个上碟形刹车系统,两个上碟形刹车系统与上部发电机两端的内转子连接,在内转子的内壁设有轴承,上部发电机外转子两端的内壁设置有与内转子连接的外转子轴承;下固定盘与中心固定柱的下端连接,在中心固定柱下部发电机内转子两端设有两个碟形刹车系统,两个下碟形刹车系统与发电机两端的内转子连接,在内转子的内壁设有轴承,内转子的中部设置有下部发电机外转子,下部发电机外转子两端的内壁设置有与内转子连接的外转子轴承;在上部发电机的上内转子与上长斜拉梁连接,在下部发电机的下内转子与下长斜拉梁连接,在上长斜拉梁、下长斜拉梁的顶端部通过H叶片转向调控器连接H机翼形叶片;在上长斜拉梁、下长斜拉梁的前部,通过风帆叶片转向调控器连接风帆机翼形叶片,在上长斜拉梁、下长斜拉梁的端部、前部设置上下H叶片转向调控器和上下风帆叶片转向调控器,并分别连接H、风帆机翼形叶片的上下两端;上部发电机外转子、下部发电机外转子分别连接上中斜拉梁、下中斜拉梁,在上中斜拉梁、下中斜拉梁端部分别设有H叶片转向调控器、风帆叶片转向调控器,在上中斜拉梁、下中斜拉梁端部设置的上下H叶片转向调控器、风帆叶片转向调控器,并分别连接H、风帆机翼形叶片的上下两端;在上部发电机的下内转子、下部发电机的上内转子分别设有上短斜拉梁、下短斜拉梁,在上短斜拉梁、下短斜拉梁的端部,分别设有H叶片转向调控器、风帆叶片转向调控器,在上短斜拉梁、下短斜拉梁的端部设置上下H叶片转向调控器、风帆机叶片转向调控器,并分别连接H机翼形叶片、风帆机翼形叶片的上下两端;在上固定盘与下固定盘的外围相对而分别设置有多根固定立柱。According to the method of the present invention, a generator set with three groups of windmills in the shape of H plus sails and wings rotates in reverse to generate electricity. The three groups of windmills work in opposite directions, and the reverse rotation drives the inner and outer rotors of the generator. The form is that the efficiency of wind power utilization has been greatly improved by the wind power generating set, and three groups of windmills are used to rotate in reverse to generate electricity, which increases the generating power of the generating set several times and greatly reduces the cost of wind power generation; The three sets of windmills rotate in reverse to drive the wind turbines to generate electricity; the operation of the first set of windmills and the third set of windmills plus the reverse rotation of the second set of windmills and the unique structure of the inner and outer rotor generators achieve high efficiency. The purpose of power generation; the lower part of the upper fixed plate is connected with the upper end of the central fixed column, and two upper disc brake systems are arranged on the upper part of the central fixed column, and the two upper disc brake systems are connected with the inner rotors at both ends of the upper generator, Bearings are arranged on the inner wall of the inner rotor, and outer rotor bearings connected with the inner rotor are arranged on the inner wall at both ends of the outer rotor of the upper generator; There are two disc brake systems, the two lower disc brake systems are connected to the inner rotor at both ends of the generator, the inner wall of the inner rotor is provided with bearings, the middle of the inner rotor is provided with the lower generator outer rotor, the lower generator outer rotor The inner walls at both ends of the rotor are provided with outer rotor bearings connected to the inner rotor; the upper inner rotor of the upper generator is connected to the upper long cable-stayed beam, the lower inner rotor of the lower generator is connected to the lower long cable-stayed beam, and the upper long cable-stayed beam is connected to the lower inner rotor of the generator. The top of the cable-stayed beam and the lower long cable-stayed beam is connected to the H-wing blade through the H-blade steering regulator; at the front of the upper long cable-stayed beam and the lower long cable-stayed beam, the sail machine is connected through the sail blade steering regulator. For the airfoil blades, the upper and lower H blade steering regulators and the upper and lower sail blade steering regulators are arranged at the ends and front of the upper long cable-stayed beam and the lower long cable-stayed beam, and are respectively connected to the upper and lower two sides of the H and sail wing blades. end; the outer rotor of the upper generator and the outer rotor of the lower generator are respectively connected to the upper center cable-stayed beam and the lower center cable-stayed beam, and H-blade steering controllers, Sail blade steering regulator, the upper and lower H blade steering regulators and sail blade steering regulators arranged at the ends of the upper and lower center cable-stayed beams, and respectively connected to the upper and lower ends of the H and sail wing-shaped blades; The lower inner rotor of the upper generator and the upper inner rotor of the lower generator are respectively provided with an upper short cable-stayed beam and a lower short cable-stayed beam, and at the ends of the upper short cable-stayed beam and the lower short cable-stayed beam, respectively H-blade steering regulator and sail blade steering regulator, the upper and lower H-blade steering regulators and sail machine blade steering regulators are set at the ends of the upper short cable-stayed beam and the lower short cable-stayed beam, and are respectively connected to the H wing-shaped blades 1. The upper and lower ends of the airfoil-shaped blades of the sail; the outer periphery of the upper fixed plate and the lower fixed plate are opposite to each other and respectively provided with a plurality of fixed columns.

单层风力发电机组的结构主要由上固定盘、下固定盘及其其中的三组风车、两个发电机、立柱等共同组成。The structure of the single-story wind turbine is mainly composed of the upper fixed plate, the lower fixed plate and three sets of windmills, two generators, and columns.

多层风力发电机组设计结构主要由,多个单层叠合过程中,每一个单层发电机组系统叠加后其上部设置的上固定盘自动成为上面发电机组系统的下固定盘,也就是说其上面发电机组系统的下固定盘自动成为下面发电机组系统的上固定盘。The design structure of multi-layer wind turbines is mainly composed of, in the process of multiple single-layer stacking, the upper fixing plate set on the upper part of each single-layer generating set system automatically becomes the lower fixing plate of the above generating set system, that is to say, the upper The lower mounting plate of the genset system automatically becomes the upper mounting plate of the genset system below.

上部发电机的内转子和下部发电机的内转子连接的上长斜拉梁、下长斜拉梁至少设置为三组。The upper long cable-stayed beams and the lower long cable-stayed beams connecting the inner rotor of the upper generator and the inner rotor of the lower generator are arranged in at least three groups.

上发电机外转子及其下发电机外转子连接的上中斜拉梁、下中斜拉梁至少设置为三组。The upper and middle cable-stayed beams and the lower and middle cable-stayed beams connecting the outer rotor of the upper generator and the outer rotor of the lower generator are arranged in at least three groups.

上部发电机内转子的下部及其下部发电机内转子的上部设置的上短斜拉梁、下短斜拉梁至少设置为三组。There are at least three sets of upper short cable-stayed beams and lower short cable-stayed beams arranged on the lower part of the inner rotor of the upper generator and the upper part of the inner rotor of the lower generator.

上固定盘与下固定盘的外圆连接的固定立柱至少设置为三根。There are at least three fixed columns connecting the outer circles of the upper fixed plate and the lower fixed plate.

由于采用上述技术方案,本发明的有益效果是:Owing to adopting above-mentioned technical scheme, the beneficial effect of the present invention is:

本发明的发电方法及发电机组设计方案,不仅突破了传统的垂直轴风力发电机中心柱体随着风叶转动而消耗能量的问题,而且可以使风车在受风运行过程中更加稳定,由于风力被三组风车逆向旋转、左右分流,发电机组的中心部位形成类似真空的环境,风力几乎对中心固定柱及其中部的其它构件无任何大的影响,稳定性非常明显,在多层风车运行时,由于本发明所设计的风力发电系统每个单层的高度可以设计为15-30米甚至更高,所以风车叶片所受的扭力较小,安全系数要远高于其它类型的风力发电系统。The power generation method and the design scheme of the generating set of the present invention not only break through the problem that the central column of the vertical axis wind power generator consumes energy as the wind blades rotate, but also can make the windmill more stable in the process of wind operation, due to the wind force Rotated in reverse by three groups of windmills and shunted from left to right, the central part of the generator set forms a vacuum-like environment. The wind force has almost no major impact on the central fixed column and other components in the middle, and the stability is very obvious. When the multi-storey windmill is running Because the height of each single layer of the wind power generation system designed by the present invention can be designed to be 15-30 meters or even higher, the torsion force suffered by the windmill blades is small, and the safety factor is much higher than other types of wind power generation systems.

附图说明Description of drawings

图1为本发明的三组风车启动运转及发电机发电运行方向示意图。Fig. 1 is a schematic diagram of three groups of windmills starting operation and generator generating operation direction according to the present invention.

图2为本发明的单层风力发电机组结构示意图。Fig. 2 is a schematic structural diagram of a single-story wind power generating set of the present invention.

图3为本发明的多层风力发电机组结构示意图。Fig. 3 is a schematic structural diagram of the multi-storey wind power generating set of the present invention.

图4为本发明的风帆机翼型叶片和自动调控器立体结构示意图。Fig. 4 is a three-dimensional structural schematic diagram of the airfoil blade of the sailing machine and the automatic controller of the present invention.

图5为本发明的H机翼型叶片和自动调控叶片方向立体结构示意图。Fig. 5 is a three-dimensional structural schematic diagram of the H-airfoil blade and the automatic adjustment blade direction of the present invention.

在图中:1-上固定盘;2-中心固定柱上端;3-轴承;4-上长斜拉梁;5-上中斜拉梁;6-上外转子;7-外转子轴承;8-上短斜拉梁;9-上碟形刹车系统;10-中心固定柱;11-下碟形刹车系统;12-下外转子;13-H叶片转向调控器;14-风帆机翼形叶片转向调控器;15-立柱;16-下固定盘;17-中心固定柱下端;18-下长斜拉梁;19-下中斜拉梁;20-下短斜拉梁;21-第二组风车;22-第三组风车;23-控制系统;24-机房;25-内转子;26-第一组风车;27-H叶片;28-风帆机翼形叶片。In the figure: 1-upper fixed plate; 2-upper end of central fixed column; 3-bearing; 4-upper long cable-stayed beam; 5-upper middle cable-stayed beam; 6-upper outer rotor; 7-outer rotor bearing; 8 -upper short cable-stayed beam; 9-upper disc brake system; 10-central fixed column; 11-lower disc brake system; 12-lower outer rotor; 13-H blade steering controller; 14-sail wing blade Steering controller; 15-column; 16-lower fixed plate; 17-lower end of central fixed column; 18-lower long cable-stayed beam; 19-lower middle cable-stayed beam; 20-lower short cable-stayed beam; 21-second group 22-the third group of windmills; 23-control system; 24-engine room; 25-inner rotor; 26-first group of windmills; 27-H blades; 28-sail wing blades.

具体实施方式Detailed ways

参考下面的实施例,可以更详细地解释本发明;但是,本发明并不局限于这些实施例的组合方式。The present invention can be explained in more detail with reference to the following examples; however, the present invention is not limited to the combination of these examples.

在图1中,一种H加风帆机翼形三组风车逆向旋转发电的发电机组,逆向旋转的形式实现该风力发电机组利用风力效率提高数倍,可使风力发电成本大幅下降。该H加风帆机翼形叶片组合的三组风车逆向旋转风力发电发电机组,尤其是第一组风车26、第三组风车22的运行加上第二组风车21逆向旋转运行及其发电机逆向运转发电的独特结构来实现。In Fig. 1, a generator set with three groups of windmills in the shape of H plus sails and wings rotates in reverse to generate electricity. The form of reverse rotation realizes that the wind power efficiency of the wind generator set is increased several times, which can greatly reduce the cost of wind power generation. The three groups of windmills combined with sails and wing-shaped blades of the H add reverse rotation wind power generating sets, especially the operation of the first group of windmills 26 and the third group of windmills 22 plus the reverse rotation of the second group of windmills 21 and their generators. It is realized by operating the unique structure of generating electricity.

在图2中,上固定盘1的下部与中心固定柱10的中心固定住上端2连接,在中心固定柱10的上部设有两个上碟形刹车系统9,两个上碟形刹车系统9与发电机两端的内转子25连接,在内转子25的内壁设有轴承3,上外转子6两端的内壁设置有与内转子25连接的外转子轴承7;下固定盘16的上部与中心固定柱10的中心固定柱下端17连接,在中心固定柱10下部设有两个下碟形刹车系统11,两个下碟形刹车系统11与发电机两端的内转子25连接,在内转子25的内壁设有轴承3,内转子25的中部设置有下外转子12,下外转子12两端的内壁设置有与内转子25连接的外转子轴承7;在上外转子6上部的内转子25与上长斜拉梁4连接,在下外转子12下部的内转子25与下长斜拉梁18连接,其上长斜拉梁4、下长斜拉梁18的端部与分别设有H叶片转向调控器13、风帆机翼形叶片转向调控器14,其设置在上长斜拉梁4、下长斜拉梁18端部的两对H叶片转向调控器13、风帆机翼形叶片转向调控器14分别连接H叶片、风帆机翼形叶片的上下两端;上外转子6、下外转子12的外部分别设有上中斜拉梁5、下中斜拉梁19,在上中斜拉梁5、下中斜拉梁19端部与分别设有H叶片转向调控器13、风帆机翼形叶片转向调控器14,其设置在上中斜拉梁5、下中斜拉梁19端部的两对H叶片转向调控器13、风帆机翼形叶片转向调控器14分别连接H叶片、风帆机翼形叶片的上下两端;在上外转子6下部的内转子25、下外转子12上部的内转子25外部分别设有上短斜拉梁8、下短斜拉梁20,在上短斜拉梁8、下短斜拉梁20端部与分别设有H叶片转向调控器13、风帆机翼形叶片转向调控器14,其设置在上短斜拉梁8、下短斜拉梁20端部的两对H叶片转向调控器13、风帆机翼形叶片转向调控器14分别连接H叶片、风帆机翼形叶片的上下两端;在上固定盘1与下固定盘16的外圆分别设置有多根固定立柱15;底部是控制系统23机房24。In Fig. 2, the bottom of the upper fixed disc 1 is connected to the center fixed upper end 2 of the central fixed column 10, and two upper disc brake systems 9 are arranged on the top of the central fixed column 10, two upper disc brake systems 9 It is connected with the inner rotor 25 at both ends of the generator, and the inner wall of the inner rotor 25 is provided with a bearing 3, and the inner wall at both ends of the upper outer rotor 6 is provided with an outer rotor bearing 7 connected with the inner rotor 25; the upper part of the lower fixed plate 16 is fixed to the center The lower end 17 of the central fixed column of the column 10 is connected, and two lower disc brake systems 11 are arranged at the lower part of the central fixed column 10, and the two lower disc brake systems 11 are connected with the inner rotors 25 at both ends of the generator. The inner wall is provided with a bearing 3, the middle part of the inner rotor 25 is provided with a lower outer rotor 12, and the inner wall at both ends of the lower outer rotor 12 is provided with an outer rotor bearing 7 connected with the inner rotor 25; The long cable-stayed beam 4 is connected, and the inner rotor 25 at the lower part of the lower outer rotor 12 is connected with the lower long cable-stayed beam 18, and the ends of the upper long cable-stayed beam 4 and the lower long cable-stayed beam 18 are respectively provided with H-blade steering control Device 13, sail wing-shaped blade turning regulator 14, it is arranged on two pairs of H blade steering regulator 13, sail wing-shaped blade turning regulator 14 on the upper long cable-stayed beam 4, the lower long cable-stayed beam 18 ends The upper and lower ends of the H blade and the sail blade are respectively connected; the upper outer rotor 6 and the lower outer rotor 12 are respectively provided with an upper middle cable-stayed beam 5 and a lower middle cable-stayed beam 19, and the upper middle cable-stayed beam 5 19 ends of the lower center cable-stayed beam and the H blade turning regulator 13 and the sail wing-shaped blade steering regulator 14 are respectively arranged on the two ends of the upper center cable-stayed beam 5 and the lower center cable-stayed beam 19. Connect the upper and lower ends of the H blade and the sail wing-shaped blade to the H blade steering regulator 13 and the sail wing-shaped blade steering regulator 14 respectively; The rotor 25 is provided with an upper short cable-stayed beam 8 and a lower short cable-stayed beam 20 respectively, and an H-blade steering controller 13 and a sail wing Shaped blade steering regulator 14, which is arranged on two pairs of H blade steering controller 13 at the end of upper short cable-stayed beam 8 and lower short cable-stayed beam 20, and sail wing-shaped blade steering controller 14 are respectively connected to H blade, sail The upper and lower ends of the wing-shaped blade; the outer circles of the upper fixed plate 1 and the lower fixed plate 16 are respectively provided with a plurality of fixed columns 15; the bottom is a control system 23 machine room 24.

在图3中,所述的采用H加风帆机翼形风叶的三组风车,逆向旋转发电的发电机组,其风力发电机组可以设计为多层叠合,其在多层叠合过程中每一个单层的发电机组系统叠加后其上部设置的上固定盘1自动成为上面发电机组系统的下固定盘16,也就是说其上面发电机组系统的下固定盘16自动成为下面发电机组系统的上固定盘1;底部是控制系统23机房24。In Fig. 3, the three groups of windmills using H plus sail wing-shaped blades, the generator set of reverse rotation power generation, its wind generator set can be designed as multi-layer stacking, and each single unit in the multi-layer stacking process After the generator set systems on the first floor are superimposed, the upper fixed plate 1 set on the upper part automatically becomes the lower fixed plate 16 of the upper generator set system, that is to say, the lower fixed plate 16 of the upper generator set system automatically becomes the upper fixed plate of the lower generator set system 1; the bottom is the control system 23 machine room 24.

1)、H加风帆机翼形叶片组成的风车提高了受风面积;1), the windmill composed of H plus sail wing-shaped blades increases the wind receiving area;

2)、单层固定架是由单层固定架内的上固定盘、下固定盘组成,在固定盘内的上下两端安装两台发电机;2) The single-layer fixed frame is composed of an upper fixed plate and a lower fixed plate in the single-layer fixed frame, and two generators are installed at the upper and lower ends of the fixed plate;

3)、每层固定架内设计安装三组风车;3) Three groups of windmills are designed and installed in each fixed frame;

4)、两台发电机的内转子、上外转子、下外转子、内转子分别连接三组不同型号的大小风车;4) The inner rotors, upper outer rotors, lower outer rotors, and inner rotors of the two generators are respectively connected to three groups of windmills of different sizes;

5)、在H风帆机翼形叶片的两端设置有H叶片自动转向调控器、风帆叶片通过转向调控器;实现风叶片在背面顶风时自动调节风叶片的迎风角度,最大限度的减少风叶负面风阻;5), the two ends of the H-sail airfoil-shaped blades are provided with H-blade automatic steering controllers, and the sail blades pass through the steering controllers; when the wind blades are facing the wind at the back, the windward angle of the wind blades is automatically adjusted, and the wind blades are minimized. negative wind resistance;

6)、三组风车在受风旋转运动的方向是逆向转动,形成互不干扰风能的旋转运动,可以最大限度的实现中心固定柱和整体风力发电机的稳定性的逆向转动方法;6), the three groups of windmills rotate in the opposite direction in the direction of the wind-receiving rotation, forming a rotation without interfering with wind energy, which can maximize the stability of the central fixed column and the overall wind generator;

7)、每层固定架内安装3组H加风帆机翼形叶片的风车,在风车受风后按设计的反方向运转程序,逆向运转带动内外转子逆向旋转发电的单层发电机组;7) Three sets of windmills with H plus sail wing-shaped blades are installed in the fixed frame of each layer. After the windmill receives the wind, it operates in the opposite direction according to the designed operation procedure, and the reverse operation drives the inner and outer rotors to rotate in reverse to generate power. Single-layer generator set;

8)、本发明实现了多层多发电机组同时工作发电,在大功率数兆瓦级发电机组中实现了可调控多层多发电机组;8), the present invention realizes multi-layer multi-generator sets working simultaneously to generate electricity, and realizes controllable multi-layer multi-generator sets in high-power multi-megawatt generator sets;

9)、可调控个别发电机停机不发电,其它发电机组可以正常运转发电,可实现大兆瓦级发电机组多层工作的多发电机组。9) It can be adjusted that individual generators stop and do not generate electricity, and other generators can operate normally to generate electricity, which can realize multi-generator sets with multi-layer work of large megawatt generators.

为了公开本发明的目的而在本文中选用的实施例,当前认为是适宜的,但是应了解的是,本发明旨在包括一切属于本构思和本发明范围内的实施例的所有变化和改进。The embodiments chosen herein for the purpose of disclosing the invention are presently considered suitable, but it should be understood that the invention is intended to include all changes and modifications of the embodiments which fall within the concept and scope of the invention.

Claims (7)

1.一种H加风帆机翼形三组风车逆向旋转发电的发电机组,所述发电机组的第一组风车(26)、第三组风车(22)的运行加上第二组风车(21)逆向旋转运行及其发电机的独特结构来实现,其特征在于;上固定盘(1)的下部与中心固定柱(10)的中心固定住上端(2)连接,在中心固定柱(10)的上部设有两个上碟形刹车系统(9),两个上碟形刹车系统(9)与发电机两端的内转子(25)连接,在内转子(25)的内壁设有轴承(3),上外转子(6)两端的内壁设置有与内转子(25)连接的外转子轴承(7);下固定盘(16)的上部与中心固定柱(10)的中心固定住下端(17)连接,在中心固定柱(10)下部设有两个下碟形刹车系统(11),两个下碟形刹车系统(11)与发电机两端的内转子(25)连接,在内转子(25)的内壁设有轴承(3),内转子(25)的中部设置有下外转子(12),下外转子(12)两端的内壁设置有与内转子(25)连接的外转子轴承(7);在上外转子(6)上部的内转子(25)与上长斜拉梁(4)连接,在下外转子(12)下部的内转子(25)与下长斜拉梁(18)连接,其上长斜拉梁(4)、下长斜拉梁(18)的端部与分别设有H叶片转向调控器(13)、风帆机翼形叶片转向调控器(14),其设置在上长斜拉梁(4)、下长斜拉梁(18)端部的两对H叶片转向调控器(13)、风帆机翼形叶片转向调控器(14)分别连接H叶片、风帆机翼形叶片的上下两端;上外转子(6)、下外转子(12)的外部分别设有上中斜拉梁(5)、下中斜拉梁(19),在上中斜拉梁(5)、下中斜拉梁(19)端部与分别设有H叶片转向调控器(13)、风帆机翼形叶片转向调控器(14),其设置在上中斜拉梁(5)、下中斜拉梁(19)端部的两对H叶片转向调控器(13)、风帆机翼形叶片转向调控器(14)分别连接H叶片、风帆机翼形叶片的上下两端;在上外转子(6)下部的内转子(25)、下外转子(12)上部的内转子(25)外部分别设有上短斜拉梁(8)、下短斜拉梁(20),在上短斜拉梁(8)、下短斜拉梁(20)端部与分别设有H叶片转向调控器(13)、风帆机翼形叶片转向调控器(14),其设置在上短斜拉梁(8)、下短斜拉梁(20)端部的两对H叶片转向调控器(13)、风帆机翼形叶片转向调控器(14)分别连接H叶片、风帆机翼形叶片的上下两端;在上固定盘(1)与下固定盘(16)的外围相对面分别设置有多根立柱(15)。1. a kind of generating set that H adds sail wing shape three groups of windmills reverse rotation power generation, the operation of the first group of windmills (26), the third group of windmills (22) of said generating set adds the second group of windmills (21 ) reverse rotation operation and the unique structure of its generator, it is characterized in that; Two upper disc brake systems (9) are provided on the top of the upper part, and the two upper disc brake systems (9) are connected with the inner rotors (25) at both ends of the generator, and the inner wall of the inner rotor (25) is provided with bearings (3 ), the inner wall at both ends of the upper outer rotor (6) is provided with an outer rotor bearing (7) connected to the inner rotor (25); the upper part of the lower fixed plate (16) and the center of the central fixed column (10) fix the lower end (17 ) connection, two lower disc brake systems (11) are arranged at the lower part of the central fixed column (10), and the two lower disc brake systems (11) are connected with the inner rotors (25) at both ends of the generator, and the inner rotor ( The inner wall of 25) is provided with a bearing (3), the middle part of the inner rotor (25) is provided with a lower outer rotor (12), and the inner wall at both ends of the lower outer rotor (12) is provided with an outer rotor bearing ( 7); the inner rotor (25) on the upper part of the upper outer rotor (6) is connected to the upper long cable-stayed beam (4), and the inner rotor (25) on the lower part of the lower outer rotor (12) is connected to the lower long cable-stayed beam (18) connected, the ends of the upper long cable-stayed beam (4) and the lower long cable-stayed beam (18) are respectively provided with the H blade steering regulator (13) and the sail wing-shaped blade steering regulator (14), and the setting Two pairs of H-blade steering regulators (13) at the ends of the upper long cable-stayed beam (4) and the lower long cable-stayed beam (18), and the steering regulator (14) of the sail wing-shaped blades are connected to the H blades and the sail machine respectively. The upper and lower ends of the airfoil blades; the upper outer rotor (6) and the lower outer rotor (12) are respectively provided with an upper middle cable-stayed beam (5) and a lower middle cable-stayed beam (19). (5), the end of the lower middle stay beam (19) and the H blade steering controller (13) and the sail wing shape blade steering controller (14) are arranged respectively, which are arranged on the upper middle stay beam (5) , two pairs of H blade steering controllers (13) and the sail wing-shaped blade steering regulator (14) at the end of the lower middle inclined beam (19) are respectively connected to the upper and lower ends of the H blade and the sail wing-shaped blade; The inner rotor (25) at the lower part of the upper outer rotor (6) and the inner rotor (25) at the upper part of the lower outer rotor (12) are respectively equipped with an upper short cable-stayed beam (8) and a lower short cable-stayed beam (20). The ends of the upper short cable-stayed beam (8) and the lower short cable-stayed beam (20) are respectively provided with an H-blade steering regulator (13) and a sail wing-shaped blade steering regulator (14), which are arranged on the upper short Two pairs of H blade steering regulators (13) at the ends of the tension beam (8), the lower short stay beam (20), and the steering controller (14) of the sail wing-shaped blade are respectively connected to the H blade and the sail wing-shaped blade. Upper and lower ends; on the peripheral opposite surfaces of the upper fixed disc (1) and the lower fixed disc (16) respectively A plurality of columns (15) are arranged. 2.根据权利要求1所述的H加风帆机翼形三组风车逆向旋转发电的发电机组,其特征在于;其风力发电发电机组可以设计为多层叠合,其在多层叠合过程中每一个单独的发电系统叠加后其上部设置的上固定盘(1)自动成为上面发电系统的下固定盘(16),也就是说其上面发电系统的下固定盘(16)自动成为下面发电系统的上固定盘(1)。2. according to claim 1, H adds the generator set of sail wing shape three groups of windmills reverse rotation power generation, it is characterized in that; After the individual power generation systems are superimposed, the upper fixed plate (1) set on the upper part automatically becomes the lower fixed plate (16) of the upper power generation system, that is to say, the lower fixed plate (16) of the upper power generation system automatically becomes the upper fixed plate (16) of the lower power generation system. Fix the plate (1). 3.根据权利要求1或2所述的H加风帆机翼形三组风车逆向旋转发电的发电机组,其特征在于;在上外转子(6)上部的内转子(25)外围及其下外转子(12)下部的内转子(25)外围设置的上长斜拉梁(4)、下长斜拉梁(18)至少设置为三组。3. according to claim 1 and 2 described H adds the generating set of sail wing-shaped three groups of windmills reverse rotation power generation, it is characterized in that; the outer periphery of inner rotor (25) on the upper outer rotor (6) and its lower outer The upper long cable-stayed beams (4) and the lower long cable-stayed beams (18) arranged on the periphery of the inner rotor (25) at the lower part of the rotor (12) are arranged in at least three groups. 4.根据权利要求1或2所述的H加风帆机翼形三组风车逆向旋转发电的发电机组,其特征在于;在上外转子(6)外围及其下外转子(12)外围设置的上中斜拉梁(5)、下中斜拉梁(19)至少设置为三组。4. according to claim 1 and 2 described H adds the generating set of sail wing shape three groups of windmills reverse rotation power generation, it is characterized in that; the outer rotor (6) periphery and the lower outer rotor (12) periphery are arranged on The upper and middle inclined beams (5) and the lower middle inclined beams (19) are arranged in at least three groups. 5.根据权利要求1或2所述的H加风帆机翼形三组风车逆向旋转发电的发电机组,其特征在于;在上外转子(6)下部的内转子(25)外围及其下外转子(12)上部的内转子(25)外围设置的上短斜拉梁(8)、下短斜拉梁(20)至少设置为三组。5. according to claim 1 or 2 described H adds the generating set of sail wing shape three groups of windmills reverse rotation power generation, it is characterized in that; the inner rotor (25) periphery and the lower outer The upper short cable-stayed beams (8) and the lower short cable-stayed beams (20) arranged on the periphery of the inner rotor (25) on the upper part of the rotor (12) are arranged in at least three groups. 6.根据权利要求1或2所述的H加风帆机翼形三组风车逆向旋转发电的发电机组,其特征在于;在上固定盘(1)与下固定盘(16)的外围相对面之间设置的立柱(15)至少设置为三根。6. according to claim 1 and 2 described H adds the generating set of sail wing shape three groups of windmills reverse rotation power generation, it is characterized in that; The column (15) that arranges between is at least set to three. 7.根据任一权利要求所述的H加风帆机翼形三组风车逆向旋转发电方法,其特征在于;7. according to any claim H adds three groups of windmills of sail wing-shaped reverse rotation power generation method, it is characterized in that; 1)、风车由H加风帆机翼形叶片;1), the windmill is composed of H plus sail wing-shaped blades; 2)、单层固定架是由单层固定架内的上固定盘(1)、下固定盘组成(16),在固定盘内的上下两端安装两台发电机;2), the single-layer fixed frame is composed of an upper fixed plate (1) and a lower fixed plate (16) in the single-layer fixed frame, and two generators are installed at the upper and lower ends of the fixed plate; 3)、每层固定架内设计安装三组风车;3) Three groups of windmills are designed and installed in each fixed frame; 4)、两台发电机的内转子(25)、上外转子(6)、下外转子(12)、内转子(25)分别连接三组不同型号的大小风车;4), the inner rotor (25), the upper outer rotor (6), the lower outer rotor (12), and the inner rotor (25) of the two generators are respectively connected to three groups of windmills of different sizes; 5)、在H叶片(27)、风帆机翼形叶片(28)的两端设置有H叶片自动转向调控器(13)、风帆叶片通过转向调控器(14);5), the two ends of the H blade (27) and the sail wing-shaped blade (28) are provided with the H blade automatic steering controller (13), and the sail blade is turned to the controller (14); 6)、三组风车在受风旋转运动的方向是逆向转动,形成互不干扰风能的旋转运动;6) The three groups of windmills rotate in the opposite direction in the direction of wind rotation, forming a rotation without interfering with wind energy; 7)、每层固定架内安装3组H加风帆机翼形叶片的风车,在风车受风后按设计的反方向运转程序,逆向运转带动内、外转子逆向旋转发电的单层发电机组;7) Three groups of windmills with H plus sail wing-shaped blades are installed in the fixed frame of each layer. After the windmill is exposed to the wind, it operates in the opposite direction according to the design, and the reverse operation drives the inner and outer rotors to rotate in reverse to generate power. Single-layer generator set; 8)、多层多发电机组同时工作发电,在大功率数兆瓦级发电机组中实现了可调控多层多发电机组;8) The multi-layer multi-generator set works simultaneously to generate electricity, and realizes the controllable multi-layer multi-generator set in the high-power multi-megawatt generator set; 9)、可调控个别发电机停机不发电,其它发电机组可以正常运转发电;9) It can be adjusted that individual generators stop and do not generate electricity, and other generators can operate normally to generate electricity; 在上、下两个发电机的上、下两端内转子(25)分别连接第一组风车(26)的上长斜拉梁(4)、下长斜拉梁(18),其两个发电机的另一端内转子(25)分别连接第三组风车(22)的上短斜拉梁(8)、下短斜拉梁(20)在风的作用下使其能够同步进入一个旋转方向;第二组风车(21)带动发电机的外转子向另一方向旋转,内转子、外转子磁力线同时被切割;三组风车分别由H加风帆机翼形叶片组成;中心固定柱(10)穿在内转子(25)内,利用设置在中心固定柱(10)外部的轴承(3)使其内转子(25)转动,而中心固定柱(10)处于固定状态;其发电方法是在单级固定架内上下固定盘上安装有两个发电机,其上部发电机上端的内转子(25)连接外围的第一组风车(26)的上长斜拉梁(4)、上部发电机的上外转子(6)连接第二组风车(21)的上中斜拉梁(5)、上部发电机下端的内转子(25)连接第三组风车(22)的上短斜拉梁(8);与其相对应安装在下部发电机上端的内转子(25)连接下短斜拉梁(20),下外转子(12)连接第二组风车(21)的下中斜拉梁(19),下部发电机下端的内转子(25)连接下长斜拉梁(18);在两个发电机上、下端的内转子(25)与外转子部分设置有轴承,当内转子(25)与外转子快速相向转动时,中心固定柱(10)中同样设置有协助内转子转动的轴承;中心固定柱(10)的中间为空心结构。The inner rotors (25) at the upper and lower ends of the upper and lower generators are respectively connected to the upper long cable-stayed beam (4) and the lower long cable-stayed beam (18) of the first group of windmills (26). The inner rotor (25) at the other end of the generator is respectively connected to the upper short cable-stayed beam (8) and the lower short cable-stayed beam (20) of the third group of windmills (22), and under the action of the wind, it can synchronously enter a rotation direction ; The second group of windmills (21) drives the outer rotor of the generator to rotate in the other direction, and the magnetic field lines of the inner rotor and the outer rotor are cut at the same time; the three groups of windmills are respectively made up of H plus sail blades; the central fixed column (10) Through the inner rotor (25), the inner rotor (25) is rotated by using the bearing (3) arranged on the outside of the central fixed column (10), while the central fixed column (10) is in a fixed state; the power generation method is in a single Two generators are installed on the upper and lower fixed disks in the stage fixed frame, and the inner rotor (25) at the upper end of the upper generator is connected to the upper long cable-stayed beam (4) of the first group of windmills (26) on the periphery, and the inner rotor (25) at the upper end of the upper generator. The upper outer rotor (6) is connected to the upper middle cable-stayed beam (5) of the second group of windmills (21), and the inner rotor (25) at the lower end of the upper generator is connected to the upper short cable-stayed beam (8) of the third group of windmills (22). ); correspondingly, the inner rotor (25) installed on the upper end of the lower generator is connected to the lower short stay beam (20), and the lower outer rotor (12) is connected to the lower middle stay beam (19) of the second group of windmills (21) , the inner rotor (25) at the lower end of the lower generator is connected to the lower long cable-stayed beam (18); the inner rotor (25) and the outer rotor at the upper and lower ends of the two generators are provided with bearings, when the inner rotor (25) and the outer rotor When the rotors rotate in opposite directions rapidly, the center fixed column (10) is also provided with a bearing to assist the rotation of the inner rotor; the middle of the center fixed column (10) is a hollow structure.
CN200810049234XA 2008-02-04 2008-02-04 H-plus-sail wing-shaped three-group windmill reverse rotation power generation method and generator set Expired - Fee Related CN101225801B (en)

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