CN204681223U - High efficiency nested type iron core winding generator - Google Patents
High efficiency nested type iron core winding generator Download PDFInfo
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- CN204681223U CN204681223U CN201520174360.3U CN201520174360U CN204681223U CN 204681223 U CN204681223 U CN 204681223U CN 201520174360 U CN201520174360 U CN 201520174360U CN 204681223 U CN204681223 U CN 204681223U
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- 238000004804 winding Methods 0.000 title claims abstract description 151
- XEEYBQQBJWHFJM-UHFFFAOYSA-N Iron Chemical group [Fe] XEEYBQQBJWHFJM-UHFFFAOYSA-N 0.000 title claims abstract description 146
- RYGMFSIKBFXOCR-UHFFFAOYSA-N Copper Chemical compound [Cu] RYGMFSIKBFXOCR-UHFFFAOYSA-N 0.000 claims description 16
- 229910052802 copper Inorganic materials 0.000 claims description 6
- 239000010949 copper Substances 0.000 claims description 6
- XUIMIQQOPSSXEZ-UHFFFAOYSA-N Silicon Chemical compound [Si] XUIMIQQOPSSXEZ-UHFFFAOYSA-N 0.000 claims description 4
- 229910052710 silicon Inorganic materials 0.000 claims description 4
- 239000010703 silicon Substances 0.000 claims description 4
- 229910001172 neodymium magnet Inorganic materials 0.000 claims description 3
- QJVKUMXDEUEQLH-UHFFFAOYSA-N [B].[Fe].[Nd] Chemical compound [B].[Fe].[Nd] QJVKUMXDEUEQLH-UHFFFAOYSA-N 0.000 claims 1
- 238000010276 construction Methods 0.000 claims 1
- 230000005284 excitation Effects 0.000 description 5
- 238000006243 chemical reaction Methods 0.000 description 4
- 230000006698 induction Effects 0.000 description 4
- 238000010586 diagram Methods 0.000 description 3
- 239000002699 waste material Substances 0.000 description 3
- 238000010248 power generation Methods 0.000 description 2
- 238000004519 manufacturing process Methods 0.000 description 1
- 238000000034 method Methods 0.000 description 1
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- Permanent Magnet Type Synchronous Machine (AREA)
Abstract
Description
技术领域 technical field
本实用新型涉及一种发电机,尤其涉及一种嵌套式结构、低耗的高效率嵌套式铁芯绕组发电机。 The utility model relates to a generator, in particular to a nested structure, low consumption and high efficiency nested iron core winding generator.
背景技术 Background technique
常见的西门子发电机,基本上都是由励磁转子,旋转二极管,主机转子以及固定在机壳上的定子组成。励磁转子产生的电能通过旋转二极管,以直流电的形式传输给主机转子,主机转子就会以电磁铁的形式,使固定在机壳上的定子绕组做切割磁感线的运动,从而产生电能。这种机构虽然使发电机的能量转换有所改善,但由于它的励磁转子和主机转子是分开的,这就造成了很大的空间浪费。除此之外,由于它只有一个励磁转子,主机转子的能量转化率就会受到限制。 A common Siemens generator is basically composed of an excitation rotor, a rotating diode, a main engine rotor and a stator fixed on the casing. The electric energy generated by the excitation rotor is transmitted to the rotor of the main engine in the form of direct current through the rotating diode, and the rotor of the main engine will use the form of an electromagnet to make the stator winding fixed on the casing move to cut the magnetic induction line, thereby generating electric energy. Although this mechanism improves the energy conversion of the generator, it causes a lot of waste of space because its excitation rotor is separated from the main engine rotor. In addition, since it has only one excitation rotor, the energy conversion rate of the main engine rotor will be limited.
发明内容 Contents of the invention
针对目前西门子发电机空间浪费以及转化率较低的技术问题,本实用新型提供了一种电机空间利用率高且发电效率高的高效率嵌套式铁芯绕组发电机。 Aiming at the technical problems of the current Siemens generator space waste and low conversion rate, the utility model provides a high-efficiency nested iron core winding generator with high motor space utilization rate and high power generation efficiency.
具体技术方案为:高效率嵌套式铁芯绕组发电机,包括机壳、底座、转轴、嵌套式铁芯绕组机构、嵌套式磁铁组机构和外部铁芯绕组,机壳固定设置于底座上,转轴贯穿机壳中心位置且转轴两端与底座转动连接,嵌套式铁芯绕组机构、嵌套式磁铁组机构和外部铁芯绕组均设置于机壳内部,嵌套式铁芯绕组机构由左嵌套式铁芯绕组、右嵌套式铁芯绕组和普通铁芯绕组组成,普通铁芯绕组固定套设在转轴上,左嵌套式铁芯绕组和右嵌套式铁芯绕组位于普通铁芯绕组和转轴之间,左嵌套式铁芯绕组和右嵌套式铁芯绕组对称设置于普通铁芯绕组左右两端的内侧面上,嵌套式磁铁组机构由左嵌套式磁铁组和右嵌套式磁铁组组成,左嵌套式磁铁组和右嵌套式磁铁组固定设置于机壳上,且左嵌套式磁铁组对应设置于左嵌套式铁芯绕组与转轴之间,右嵌套式磁铁组对应设置于右嵌套式铁芯绕组与转轴之间,外部铁芯绕组固定于机壳内壁并与普通铁芯绕组对应设置;嵌套式铁芯绕组机构上设置有二极管整流桥,左嵌套式铁芯绕组上的两个电能输出端分别与右嵌套式铁芯绕组上的两个电能输出端并联形成第一电能输出端和第二电能输出端,第一电能输出端和第二电能输出端分别与二极管整流桥的两个输入端连接,二极管整流桥的两个输出端与普通铁芯绕组的两个输入端连接。 The specific technical solution is: a high-efficiency nested iron core winding generator, including a casing, a base, a rotating shaft, a nested iron core winding mechanism, a nested magnet group mechanism and an external core winding, and the casing is fixed on the base On the top, the rotating shaft runs through the center of the casing and the two ends of the rotating shaft are rotatably connected to the base. The nested iron core winding mechanism, nested magnet group mechanism and external iron core winding are all set inside the casing. The nested iron core winding mechanism It is composed of left nested iron core winding, right nested iron core winding and ordinary iron core winding. The ordinary iron core winding is fixedly set on the rotating shaft, and the left nested iron core winding and right nested iron core winding Between the ordinary iron core winding and the rotating shaft, the left nested iron core winding and the right nested iron core winding are symmetrically arranged on the inner sides of the left and right ends of the ordinary iron core winding, and the nested magnet group mechanism consists of a left nested magnet The left nested magnet group and the right nested magnet group are fixed on the casing, and the left nested magnet group is correspondingly arranged between the left nested iron core winding and the shaft. Between, the right nested magnet group is correspondingly set between the right nested iron core winding and the rotating shaft, the outer iron core winding is fixed on the inner wall of the casing and is set corresponding to the ordinary iron core winding; the nested iron core winding mechanism is set There is a diode rectifier bridge, and the two power output ends on the left nested iron core winding are respectively connected in parallel with the two power output ends on the right nested iron core winding to form the first power output end and the second power output end. The first electric energy output end and the second electric energy output end are respectively connected with the two input ends of the diode rectification bridge, and the two output ends of the diode rectification bridge are connected with the two input ends of the ordinary iron core winding.
所述左嵌套式铁芯绕组和右嵌套式铁芯绕组通过螺钉或螺栓固定在普通铁芯绕组上。 The left nested iron core winding and the right nested iron core winding are fixed on the ordinary iron core winding by screws or bolts.
所述左嵌套式铁芯绕组和右嵌套式铁芯绕组结构相同,均由铁芯和铜线组成,铜线缠绕于铁芯的侧面及其靠近转轴的内侧端面上。 The left nested iron core winding and the right nested iron core winding have the same structure, both of which are composed of iron core and copper wire, and the copper wire is wound on the side of the iron core and the inner end surface close to the rotating shaft.
所述左嵌套式铁芯绕组和右嵌套式铁芯绕组上的铜线绕组总数相同。 The total number of copper wire windings on the left nested iron core winding and the right nested iron core winding is the same.
所述二极管整流桥由四个硅二极管组成。 The diode rectifier bridge is composed of four silicon diodes.
所述左嵌套式磁铁组和右嵌套式磁铁组的结构相同,均由多个磁铁组成,且相邻磁铁的外侧面磁极相反。 The left nested magnet group and the right nested magnet group have the same structure, are composed of a plurality of magnets, and the outer surfaces of adjacent magnets have opposite magnetic poles.
所述左嵌套式磁铁组和右嵌套式磁铁组上的磁铁为钕铁硼强磁铁。 The magnets on the left nested magnet group and the right nested magnet group are strong NdFeB magnets.
本实用新型使用方便,制造成本低,可推广性强。 The utility model is convenient to use, low in manufacturing cost and strong in generalizability.
本实用新型设有嵌套式铁芯绕组机构和嵌套磁铁组机构,嵌套式铁芯绕组机构的铁芯呈近似中空的环形结构,由左嵌套式铁芯绕组、右嵌套式铁芯绕组和普通铁芯绕组构成。即在同一块铁芯上有三组铜线绕组,相当于有两个励磁转子和一个主机转子固定在一起,这很好的解决了空间浪费问题。与之对应的嵌套磁铁组机构,则由左嵌套式磁铁组和右嵌套式磁铁组构成。嵌套式磁铁组的位置,正是嵌套式铁芯绕组机构的环形中空位置。嵌套式铁芯绕组固定在发电机轴上,发电机轴转动时,带动嵌套式铁芯绕组转动。两个嵌套式铁芯绕组上的铜线相对于两个嵌套式磁铁组做切割磁感线的运动,从而产生电能。左嵌套式铁芯绕组的两个铜线输出端,分别与右嵌套式铁芯绕组的两个铜线输出端相连。由于两个绕组的铜线绕组数相同,所以它们的并联能产生双倍电流。嵌套式铁芯绕组产生的双倍电能则通过固定在嵌套式铁芯绕组上的四个硅二极管整流(省去制造旋转二极管的麻烦),以直流电的形式传输给普通铁芯绕组。普通铁芯绕组就会以电磁铁的形式转动,使固定在机壳上的外部铁芯绕组的铜线做切割磁感线的运动,从而产生更大的电能,提高转化率。 The utility model is provided with a nested iron core winding mechanism and a nested magnet group mechanism. The iron core of the nested iron core winding mechanism is an approximately hollow ring structure. Core windings and ordinary iron core windings. That is to say, there are three sets of copper wire windings on the same iron core, which is equivalent to having two excitation rotors and one main engine rotor fixed together, which solves the problem of space waste very well. The corresponding nested magnet group mechanism is composed of a left nested magnet group and a right nested magnet group. The position of the nested magnet group is exactly the annular hollow position of the nested iron core winding mechanism. The nested iron core winding is fixed on the generator shaft, and when the generator shaft rotates, the nested iron core winding is driven to rotate. The copper wires on the two nested iron core windings move relative to the two nested magnet groups to cut the magnetic induction lines, thereby generating electric energy. The two copper wire output ends of the left nested iron core winding are respectively connected with the two copper wire output ends of the right nested iron core winding. Since both windings have the same number of copper windings, their parallel connection can generate double the current. The double power generated by the nested iron core winding is rectified by four silicon diodes fixed on the nested iron core winding (saving the trouble of making rotating diodes), and transmitted to the ordinary iron core winding in the form of direct current. Ordinary iron core windings will rotate in the form of electromagnets, so that the copper wires of the external iron core windings fixed on the casing will cut the magnetic induction lines, thereby generating more electric energy and improving the conversion rate.
附图说明 Description of drawings
图1为本实用新型结构示意图; Fig. 1 is a structural representation of the utility model;
图2为本实用新型嵌套式铁芯绕组机构示意图; Fig. 2 is a schematic diagram of the nested iron core winding mechanism of the utility model;
图3为本实用新型电路连接示意图; Fig. 3 is a schematic diagram of circuit connection of the utility model;
图4为本实用新型左嵌套式铁芯绕组结构示意图。 Fig. 4 is a schematic diagram of the winding structure of the left nested iron core of the utility model.
具体实施方式 Detailed ways
如图1、图2和图4所示,高效率嵌套式铁芯绕组发电机,包括机壳1、底座2、转轴3、嵌套式铁芯绕组机构、嵌套式磁铁组机构和外部铁芯绕组10,机壳1固定设置于底座2上,转轴3贯穿机壳1中心位置且转轴3两端与底座2转动连接,嵌套式铁芯绕组机构、嵌套式磁铁组机构和外部铁芯绕组10均设置于机壳1内部,嵌套式铁芯绕组机构由左嵌套式铁芯绕组4、右嵌套式铁芯绕组5和普通铁芯绕组6组成,普通铁芯绕组6固定套设在转轴3上,左嵌套式铁芯绕组4和右嵌套式铁芯绕组5位于普通铁芯绕组6和转轴3之间,左嵌套式铁芯绕组4和右嵌套式铁芯绕组5通过螺钉或螺栓固定在普通铁芯绕组6左右两端的内侧面上,左嵌套式铁芯绕组4和右嵌套式铁芯绕组5结构相同,均由铁芯11和铜线12组成,铜线12缠绕于铁芯11的侧面及其靠近转轴3的内侧端面上,而普通铁芯绕组6只在其铁芯的外圆侧面上缠绕有铜线,左嵌套式铁芯绕组4和右嵌套式铁芯绕组5上的铜线12绕组总数相同,使左嵌套式铁芯绕组4和右嵌套式铁芯绕组5在做切割磁感线运动时产生的电压相同。嵌套式磁铁组机构由左嵌套式磁铁组7和右嵌套式磁铁组8组成,左嵌套式磁铁组7和右嵌套式磁铁组8固定设置于机壳1上,且左嵌套式磁铁组7对应设置于左嵌套式铁芯绕组4与转轴3之间,右嵌套式磁铁组8对应设置于右嵌套式铁芯绕组5与转轴3之间,左嵌套式磁铁组7和右嵌套式磁铁组8的结构相同,均由多个磁铁组成,且相邻磁铁的外侧面磁极相反,左嵌套式磁铁组7和右嵌套式磁铁组8上的磁铁为钕铁硼强磁铁,能够产生较强的磁场,提高发电效率。外部铁芯绕组10固定于机壳1内壁并与普通铁芯绕组6对应设置;嵌套式铁芯绕组机构上设置有二极管整流桥9,二极管整流桥9由四个硅二极管组成。 As shown in Figure 1, Figure 2 and Figure 4, the high-efficiency nested iron core winding generator includes a casing 1, a base 2, a rotating shaft 3, a nested iron core winding mechanism, a nested magnet group mechanism and an external The iron core winding 10, the casing 1 is fixedly arranged on the base 2, the rotating shaft 3 runs through the center of the casing 1 and the two ends of the rotating shaft 3 are rotatably connected with the base 2, the nested iron core winding mechanism, the nested magnet group mechanism and the external The iron core windings 10 are all arranged inside the casing 1, and the nested iron core winding mechanism is composed of a left nested iron core winding 4, a right nested iron core winding 5 and an ordinary iron core winding 6, and the ordinary iron core winding 6 The fixed sleeve is set on the rotating shaft 3, the left nested iron core winding 4 and the right nested iron core winding 5 are located between the common iron core winding 6 and the rotating shaft 3, the left nested iron core winding 4 and the right nested The iron core winding 5 is fixed on the inside surface of the left and right ends of the ordinary iron core winding 6 by screws or bolts. The left nested iron core winding 4 and the right nested iron core winding 5 have the same structure, and both are composed of an iron core 11 and a copper wire. Composed of 12, the copper wire 12 is wound on the side of the iron core 11 and the inner end surface close to the rotating shaft 3, while the ordinary iron core winding 6 is only wound with copper wire on the outer circular side of the iron core, and the left nested iron core The total number of windings of copper wire 12 on the winding 4 and the right nested iron core winding 5 is the same, so that the voltage generated by the left nested iron core winding 4 and the right nested iron core winding 5 is the same when cutting the magnetic induction line . The nested magnet group mechanism is composed of a left nested magnet group 7 and a right nested magnet group 8, and the left nested magnet group 7 and the right nested magnet group 8 are fixedly arranged on the casing 1, and the left nested magnet group The nested magnet group 7 is correspondingly arranged between the left nested iron core winding 4 and the rotating shaft 3, the right nested magnet group 8 is correspondingly arranged between the right nested iron core winding 5 and the rotating shaft 3, and the left nested The structure of the magnet group 7 and the right nested magnet group 8 is the same, they are all made up of a plurality of magnets, and the magnetic poles on the outer surfaces of the adjacent magnets are opposite, the magnets on the left nested magnet group 7 and the right nested magnet group 8 It is a strong neodymium iron boron magnet, which can generate a strong magnetic field and improve power generation efficiency. The external iron core winding 10 is fixed on the inner wall of the casing 1 and arranged corresponding to the common iron core winding 6; the nested iron core winding mechanism is provided with a diode rectifier bridge 9, which is composed of four silicon diodes.
当转轴3转动时,带动嵌套式铁芯绕组机构转动,从而使左嵌套式铁芯绕组4和右嵌套式铁芯绕组5分别与左嵌套式磁铁组7和右嵌套式磁铁组8发生相对转动,使左嵌套式铁芯绕组4和右嵌套式铁芯绕组5内产生电能,如图3所示,左嵌套式铁芯绕组4上的两个电能输出端分别与右嵌套式铁芯绕组5上的两个电能输出端并联形成第一电能输出端和第二电能输出端,第一电能输出端和第二电能输出端分别与二极管整流桥9的两个输入端连接,二极管整流桥9将左嵌套式铁芯绕组4和右嵌套式铁芯绕组5产生的交流电转变为直流电,二极管整流桥9的两个输出端与普通铁芯绕组6的两个输入端连接,二极管整流桥9将其产生的直流电输送至普通铁芯绕组6内,普通铁芯绕组6以电磁铁的形式随转轴3转动,从而与外部铁芯绕组10发生相对运动,使外部铁芯绕组10内产生电能,外部铁芯绕组10通过其输出端与外部用电设备连接,为外部用电设备提供电能。 When the rotating shaft 3 rotates, it drives the nested iron core winding mechanism to rotate, so that the left nested iron core winding 4 and the right nested iron core winding 5 are connected with the left nested magnet group 7 and the right nested magnet respectively. The relative rotation of group 8 causes electric energy to be generated in the left nested iron core winding 4 and the right nested iron core winding 5, as shown in Figure 3, the two power output ends on the left nested iron core winding 4 are respectively The first electric energy output end and the second electric energy output end are formed in parallel with the two electric energy output ends on the right nested iron core winding 5, and the first electric energy output end and the second electric energy output end are respectively connected with two of the diode rectifier bridge 9. The input end is connected, and the diode rectifier bridge 9 converts the alternating current generated by the left nested iron core winding 4 and the right nested iron core winding 5 into direct current, and the two output ends of the diode rectifier bridge 9 are connected with the two ordinary iron core windings 6. connected to two input terminals, the diode rectifier bridge 9 transmits the direct current generated by it to the ordinary iron core winding 6, and the ordinary iron core winding 6 rotates with the rotating shaft 3 in the form of an electromagnet, so as to move relative to the external iron core winding 10, so that Electric energy is generated in the external iron core winding 10 , and the external iron core winding 10 is connected to external electrical equipment through its output end to provide electrical energy for the external electrical equipment.
Claims (7)
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