WO2015135112A1 - 定子的绕线结构 - Google Patents

定子的绕线结构 Download PDF

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Publication number
WO2015135112A1
WO2015135112A1 PCT/CN2014/073142 CN2014073142W WO2015135112A1 WO 2015135112 A1 WO2015135112 A1 WO 2015135112A1 CN 2014073142 W CN2014073142 W CN 2014073142W WO 2015135112 A1 WO2015135112 A1 WO 2015135112A1
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Prior art keywords
wire
groove
magnetic pole
stator
winding
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PCT/CN2014/073142
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English (en)
French (fr)
Inventor
林高合
王世宏
Original Assignee
林高合
王世宏
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Application filed by 林高合, 王世宏 filed Critical 林高合
Priority to PCT/CN2014/073142 priority Critical patent/WO2015135112A1/zh
Publication of WO2015135112A1 publication Critical patent/WO2015135112A1/zh

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    • H—ELECTRICITY
    • H02—GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02K—DYNAMO-ELECTRIC MACHINES
    • H02K3/00—Details of windings
    • H02K3/04—Windings characterised by the conductor shape, form or construction, e.g. with bar conductors
    • H02K3/28—Layout of windings or of connections between windings

Definitions

  • the present invention is a stator, and particularly refers to a stator winding structure of a generator and an electric motor. Background technique
  • the stator is one of the components of the generator and the motor. Taking a generator with an output voltage of 220/380V as an example, please refer to the main structure of the prior art generator of FIG. 3, which comprises an eight-pole stator 50 and a rotor 60 having forty-eight stator teeth 51. 48 line grooves 52 are formed between the adjacent stator tooth portions 51, and the wire grooves 52 are sequentially wound around the first to eighth magnetic pole windings 71 to 78.
  • the first magnetic pole winding 71 is a wire wound around 36 turns of the six wire grooves 521 to 526.
  • the wire is wound 60 times in the first wire groove 521 and the fourth wire groove 524.
  • the first wire windings 71 are formed by winding 60 turns in the second wire grooves 522 and the fifth wire grooves 525, and then winding 60 turns in the third wire grooves 523 and the sixth wire grooves 526.
  • the second magnetic pole winding 72 is a wire wound around 60 turns of the six wire grooves 52
  • the third magnetic pole winding 73 is a wire wound around 60 turns of the six wire grooves 52.
  • the fourth magnetic pole winding 74 is a wire wound around 60 turns of the six wire grooves 52.
  • the fifth magnetic pole winding 75 is a wire wound around 60 turns of the six wire grooves 52.
  • the sixth magnetic pole winding 76 is a wire wound around 60 turns in the six wire grooves 52.
  • the seventh magnetic pole winding 77 is a wire wound around 60 turns in the six wire grooves 52.
  • the eighth magnetic pole winding 78 is wound around the wire. From the above, it is known that the number of windings of the first to eighth magnetic pole windings 71 to 78 is 480 turns.
  • the above-mentioned average winding structure has been widely used. However, in order to generate the highest electric energy in the state of consuming the lowest mechanical energy, it has been one of the important topics in the field of power conversion, and in order to achieve higher power generation, existing power generation
  • the winding structure of the machine stator does have room for improvement.
  • each of the magnetic pole windings 71 to 78 since the number of coils of each of the magnetic pole windings 71 to 78 is the same, each of the magnetic pole windings 71 to 78 generates an equal current to generate equal heat energy. Since each of the magnetic pole windings 71 to 78 generates uniform thermal energy, so that the thermal energy is not easily conducted in the stator 50, the self-heating effect of the stator 50 of the conventional average winding structure still needs to be improved.
  • the stator includes 48 stator teeth, and the first to 48th slots are sequentially formed between the adjacent stator teeth, and the winding is arranged in the slot
  • the first to eighth magnetic pole windings are characterized in that: the first magnetic pole winding is sequentially wound around the first line groove and the fourth line groove, the second line groove and the fifth line groove, and the third line groove and the sixth line groove Medium, and the number of windings is 12 turns;
  • the second magnetic pole winding is sequentially disposed in the seventh and tenth line grooves, the eighth line groove and the eleventh line groove, and the ninth line groove and the twelfth line groove, and the number of windings is 96 circles respectively;
  • the third magnetic pole winding is sequentially wound around the 13th wire groove and the 16th wire groove, the 14th wire groove and the 17th wire groove, and the 15th wire groove and the 18th wire groove, and the number of windings is 36 turns respectively;
  • the fourth magnetic pole winding is sequentially disposed in the 19th line groove and the 22nd line groove, the 20th line groove and the 23rd line groove, and the 21st line groove and the 24th line groove, and the number of windings is 48 circles respectively;
  • the fifth magnetic pole winding is sequentially wound around the 25th and 28th line grooves, the 26th line groove and the 29th line groove, and the 27th line groove and the 30th line groove, and the number of windings is 108 turns respectively;
  • the sixth magnetic pole winding is sequentially disposed in the 31st line groove and the 34th line groove, the 32th line groove and the 35th line groove, and the 33rd line groove and the 36th line groove, and the number of windings is 24 circles respectively;
  • the seventh magnetic pole winding is sequentially disposed in the 37th wire groove and the 40th wire groove, the 38th wire groove and the 41st wire groove, and the 39th wire groove and the 42nd wire groove, and the number of windings is 84 circles respectively; as well as
  • the eighth magnetic pole winding is sequentially wound around the 43th wire groove and the 46th wire groove, the 44th wire groove and the 47th wire groove, and the 45th wire groove and the 48th wire groove, and the number of windings is 72 turns.
  • stator is the stator of the generator.
  • stator is the stator of the motor.
  • the voltage generated by the generator of the stator winding structure of the present invention (250/390 V) is higher than that of the generator of the existing average winding structure.
  • the voltage (220/380V) has a significant improvement in the power generation effect of the generator using the winding structure of the present invention.
  • the present invention since the present invention only has a plurality of coils wound around the fifth magnetic pole winding, the number of coils of the remaining magnetic pole windings is small, so that only the fifth magnetic pole winding generates a higher current, and the remaining magnetic pole windings are lower. Current. Therefore, the heat generated by the fifth pole winding is conducted to the remaining pole windings for heat dissipation, so that the self-heat dissipation effect of the stator of the present invention can be effectively improved.
  • Figure 1 is a plan view showing a preferred embodiment of the present invention and a rotor.
  • Fig. 2 is a plan view showing a preferred example of the stator winding structure of the present invention.
  • Figure 3 is a schematic plan view of a known stator winding structure.
  • the stator of the present invention may be a stator of a generator or a stator of an electric motor, and a rotor 10 is disposed therein.
  • This embodiment is an example of a stator of a generator, wherein the stator is provided. There is an eight-pole rotor.
  • the stator of the present invention comprises a total of forty-eight stator tooth portions 20, and the first to 48th wire grooves 201 to 248 are sequentially formed between the adjacent stator tooth portions 20, and the wire grooves 201 to 248 are sequentially wound around the first. ⁇ eighth magnetic pole windings 31 to 38.
  • the first magnetic pole winding 31 is a first wire wound around 12 turns of the first to sixth wire grooves 201 to 206.
  • the first wire is first in the first wire groove 201 and the fourth wire groove 204.
  • the second wire groove 202 and the fifth wire groove 205 are wound 12 turns, and then the third wire groove 203 and the sixth wire groove 206 are wound 12 turns, thereby forming the first magnetic pole winding. 31.
  • the second magnetic pole winding 32 is a second wire wound around 96 turns of the 7th to 12th wire grooves 207 to 212.
  • the second wire is first in the 7th wire groove 207 and the 10th wire groove 210. After 96 turns, the 96th wire groove 208 and the 11th wire groove 211 are wound 96 times, and then the 9th wire groove 209 and the 12th wire groove 212 are wound 96 times, thereby forming the second magnetic pole. Winding 32.
  • the third magnetic pole winding 33 is a third wire wound 36 turns in the 13th to 18th line grooves 213 to 218, for example.
  • the third wire is wound 36 times around the 13th wire groove 213 and the 16th wire groove 216, and then 36 turns around the 14th wire groove 214 and the 17th wire groove 217, and then the 15th wire.
  • the wire groove 215 and the 18th wire groove 218 are wound 36 turns, thereby constituting the third magnetic pole winding 33.
  • the fourth magnetic pole winding 34 is a fourth wire wound around 48 turns of the 19th to 24th wire grooves 219 to 224.
  • the fourth wire is first in the 19th wire groove 219 and the 22nd wire groove 222. After being wound for 48 turns, 48 turns are made in the 20th wire groove 220 and the 23rd wire groove 223, and then 24 turns are formed in the 21st wire groove 221 and the 24th wire groove 224, thereby forming the fourth magnetic pole. Winding 34.
  • the fifth magnetic pole winding 35 is disposed on the opposite side of the first magnetic pole winding 31 and is a fifth wire wound around 108 turns of the 25th to 30th linear grooves 225 to 230.
  • the fifth wire is After the first 25th slot 225 and the 28th linear slot 228 are wound for 108 turns, the 26th wire groove 226 and the 29th wire groove 229 are wound for 108 turns, and then the 27th wire groove 227 and the 30th wire groove are connected. 230 is wound around 108, thereby constituting the fifth magnetic pole winding 35.
  • the sixth magnetic pole winding 36 is disposed on the opposite side of the second magnetic pole winding 32 and is a sixth wire wound around 24 turns of the 31st to 36th wire grooves 231 to 236.
  • the sixth wire is First, after the twenty-third line groove 231 and the 34th line groove 234 are wound 24 times, the second line groove 232 and the 35th line groove 235 are wound 24 times, and then connected to the 33rd line groove 233 and the 36th line groove.
  • the 236 is wound 24 turns, thereby constituting the sixth magnetic pole winding 36.
  • the seventh magnetic pole winding 37 is disposed on the opposite side of the third magnetic pole winding 33 and is a seventh wire wound around 84 turns of the 37th to 42nd line grooves 237 to 242.
  • the seventh wire is First, after the 38th line slot 237 and the 40th line slot 340 are wound 84 times, the 38th line groove 238 and the 41st line groove 241 are wound 84 times, and then the 39th line groove 239 and the 42nd line groove are connected.
  • the 242 is wound 84 turns, thereby constituting the seventh magnetic pole winding 37.
  • the eighth magnetic pole winding 38 is disposed on the opposite side of the fourth magnetic pole winding 34 and is an eighth wire wound around 72 turns of the 43th to 48th linear grooves 243 to 248.
  • the eighth conductive wire is First, after the 45th line groove 243 and the 46th line groove 346 are wound 72 times, the 44th line groove 244 and the 47th line groove 247 are wound 72 times, and then the 45th line groove 245 and the 48th line groove are connected.
  • the 248 is wound 72 turns, thereby constituting the eighth magnetic pole winding 38.
  • the total number of windings of the first to eighth magnetic pole windings 31 to 38 is 480 turns.
  • the first to eighth wires respectively have a head end and a tail end, and a tail end of the first wire is connected to a head end of the fifth wire, and a tip end of the first wire and a tail end of the fifth wire serve as a generator The first output.
  • the sixth wire is connected to the second wire tail end, and the tail end of the second wire and the tail end of the sixth wire serve as a second output end of the generator; the seventh wire and the third wire tail and tail phase The front end of the third wire and the tail end of the seventh wire serve as a third output end of the generator; the eighth wire is connected to the tail end of the fourth wire, and the head end of the fourth wire and the eighth wire are connected The tail end serves as the fourth output of the generator.
  • the magnetic pole windings 31 to 38 respectively induce voltages according to changes in the magnetic field generated by the rotor 10, thereby achieving the purpose of power generation.
  • the preferred embodiment utilizes a 10 horsepower, 7.5 kW output motor to propel the rotor 10 of the generator and measure the voltage at the output of the pole windings 31-38.
  • the output voltage of the present invention can reach 250/390V, which is higher than the conventional 220/380V. Therefore, the winding structure of the generator stator of the present invention can achieve higher power generation efficiency.
  • the fifth magnetic pole winding 35 is only provided with a plurality of turns of the coil (B ⁇ 108 turns), the current generated by the fifth magnetic pole winding 35 is large and generates high thermal energy; the number of coils of the remaining magnetic pole windings is higher. Less, so the remaining magnetic pole windings produce less current and produce lower thermal energy. Therefore, the thermal energy generated by the fifth magnetic pole winding 35 is conducted to the remaining magnetic pole windings for heat dissipation, so that the self-heating effect of the generator can be improved, thereby avoiding the operating temperature of the generator being too high.

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  • Engineering & Computer Science (AREA)
  • Power Engineering (AREA)
  • Windings For Motors And Generators (AREA)

Abstract

一种定子的绕线结构，可用于发电机与电动机，该定子包含有48个定子齿部（20），相邻的定子齿部（20）之间形成48个线槽（201-248），所述线槽（201-248）中依序绕设有第一~第八磁极绕组（31-38），第一磁极绕组（31）至第八磁极绕组（38）的绕线圈数分别为12、96、36、48、108、24、84与72；以发电机为例，该绕线结构是通过特定的绕线圈数提升发电效果以及自体散热效果。

Description

定子的^线结构
技术领域
本发明是一定子， 特别是指发电机与电动机的定子绕线结构。 背景技术
定子是发电机与电动机的组成构件之一。 以输出电压为 220/380V的发电机为例， 请参考图 3现有发电机的主要构造， 其包含有一八极的定子 50与一转子 60， 该定子 50 具有四十八个定子齿部 51， 相邻的定子齿部 51之间形成 48个线槽 52， 所述线槽 52依 序绕设有第一〜第八磁极绕组 71〜78。
该第一磁极绕组 71为绕设在 6个线槽 521〜526中 36圈的导线， 举例来说， 该导 线是先在第 1线槽 521与第 4线槽 524中绕设 60圈后， 接续在第 2线槽 522与第 5线 槽 525中绕设 60圈， 再接续于第 3线槽 523与第 6线槽 526中绕设 60圈， 藉此构成该 第一磁极绕组 71。
以同样的绕线规则，该第二磁极绕组 72为绕设在接续六个线槽 52中 60圈的导线， 该第三磁极绕组 73为绕设在接续六个线槽 52中 60圈的导线，该第四磁极绕组 74为绕 设在接续六个线槽 52中 60圈的导线，该第五磁极绕组 75为绕设在接续六个线槽 52中 60圈的导线， 该第六磁极绕组 76为绕设在接续六个线槽 52中 60圈的导线， 该第七磁 极绕组 77为绕设在接续六个线槽 52中 60圈的导线，该第八磁极绕组 78为绕设在接续 六个线槽 52中 60圈的导线， 由前述可知， 第一〜第八磁极绕组 71〜78的总绕线圈数 为 480圈。
前述平均式的绕线结构已为广泛运用， 然而， 为了要在消耗最低机械能的状态下产 生最高的电能一直是电源转换领域中重要的课题之一， 为了达到更高的发电效果， 现有 发电机定子的绕线结构确实有改良的空间。
此外， 由于每个磁极绕组 71〜78的线圈数相同， 每个磁极绕组 71〜78产生相等的 电流而产生均等的热能。 由于每个磁极绕组 71〜78产生均等的热能， 使得所述热能不 易在定子 50中传导， 故现有平均式绕线结构的定子 50其自体散热效果仍有待改善。 发明内容
本发明的目的在于提供一种定子的绕线结构， 以在定子中通过特定的绕线圈数达到 更高的发电效率与更佳的自体散热效果。
本发明发电机八极定子的绕线结构其定子包含有 48个定子齿部， 每相邻的定子齿 部之间依序形成第 1〜第 48线槽，所述线槽中绕设有第一〜第八磁极绕组，其特征在于: 该第一磁极绕组依序绕设在第 1线槽与第 4线槽、第 2线槽与第 5线槽和第 3线槽 与第 6线槽中， 且绕线圈数分别为 12圈；
该第二磁极绕组依序绕设在第 7线槽与第 10线槽、第 8线槽与第 11线槽和第 9线 槽与第 12线槽中， 且绕线圈数分别为 96圈；
该第三磁极绕组依序绕设在第 13线槽与第 16线槽、第 14线槽与第 17线槽和第 15 线槽与第 18线槽中， 且绕线圈数分别为 36圈；
该第四磁极绕组依序绕设在第 19线槽与第 22线槽、第 20线槽与第 23线槽和第 21 线槽与第 24线槽中， 且绕线圈数分别为 48圈；
该第五磁极绕组依序绕设在第 25线槽与第 28线槽、第 26线槽与第 29线槽和第 27 线槽与第 30线槽中， 且绕线圈数分别为 108圈；
该第六磁极绕组依序绕设在第 31线槽与第 34线槽、第 32线槽与第 35线槽和第 33 线槽与第 36线槽中， 且绕线圈数分别为 24圈；
该第七磁极绕组依序绕设在第 37线槽与第 40线槽、第 38线槽与第 41线槽和第 39 线槽与第 42线槽中， 且绕线圈数分别为 84圈； 以及
该第八磁极绕组依序绕设在第 43线槽与第 46线槽、第 44线槽与第 47线槽和第 45 线槽与第 48线槽中， 且绕线圈数分别为 72圈。
如上所述的定子的绕线结构， 其中的定子为发电机的定子。
如上所述的定子的绕线结构， 其中的定子为电动机的定子。
是以， 以发电机为例， 根据实际的测试数据来看， 利用本发明定子绕线结构的发电 机所产生的电压（250/390V)高于现有平均式绕线结构的发电机所产生的电压 (220/380V) , 利用本发明绕线结构的发电机的发电效果有显著的提升。 再者， 由于本发 明只在第五磁极绕组绕设有较多圈数的线圈， 其余磁极绕组的线圈数较少， 故只有第五 磁极绕组产生较高的电流， 其余磁极绕组的产生较低的电流。 是以， 第五磁极绕组所产 生的热能会传导到其余磁极绕组以进行散热， 故能有效提升本发明定子的自体散热效 果。 附图说明
以下附图仅旨在于对本发明做示意性说明和解释， 并不限定本发明的范围。 其中， 图 1是本发明较佳实例与一转子的平面示意图。
图 2是本发明定子绕线结构较佳实例的平面示意图。
图 3是已知定子绕线结构的平面示意图。
主要元件标号说明：
10转子
20 定子齿部
201〜248第 1〜第 48线槽
31〜38第一〜第八磁极绕组
50 定子
60转子
51 定子齿部
52线槽
521〜526第 1〜第 6线槽
71〜78第一〜第八磁极绕组 具体实施方式
以下配合图式及本发明之较佳实施例，进一步阐述本发明为达成预定发明目的所采 取的技术手段。
请参考图 1与图 2所示， 本发明定子可为发电机的定子或为电动机的定子， 其内供 设置一转子 10， 本实施例是以发电机的定子为例说明， 其中定子内设有一八极转子。
本发明定子一共包含有四十八个定子齿部 20， 相邻的定子齿部 20之间依序形成第 1〜第 48线槽 201〜248， 所述线槽 201〜248依序绕设有第一〜第八磁极绕组 31〜38。
该第一磁极绕组 31为绕设在第 1〜第 6线槽 201〜206中 12圈的第一导线，举例来 说，该第一导线是先在第 1线槽 201与第 4线槽 204绕设 12圈后，接续在第 2线槽 202 与第 5线槽 205绕设 12圈， 再接续于第 3线槽 203与第 6线槽 206绕设 12圈， 藉此构 成该第磁极绕组 31。
该第二磁极绕组 32为绕设在第 7〜第 12线槽 207〜212中 96圈的第二导线， 举例 来说， 该第二导线是先在第 7线槽 207与第 10线槽 210绕设 96圈后， 接续在第 8线槽 208与第 11线槽 211绕设 96圈， 再接续于第 9线槽 209与第 12线槽 212绕设 96圈， 藉此构成该第二磁极绕组 32。
该第三磁极绕组 33为绕设在第 13〜第 18线槽 213〜218中 36圈的第三导线，举例 来说， 该第三导线是先在第 13线槽 213与第 16线槽 216绕设 36圈后， 接续在第 14线 槽 214与第 17线槽 217绕设 36圈， 再接续于第 15线槽 215与第 18线槽 218绕设 36 圈， 藉此构成该第三磁极绕组 33。
该第四磁极绕组 34为绕设在第 19〜第 24线槽 219〜224中 48圈的第四导线，举例 来说， 该第四导线是先在第 19线槽 219与第 22线槽 222绕设 48圈后， 接续在第 20线 槽 220与第 23线槽 223绕设 48圈， 再接续于第 21线槽 221与第 24线槽 224绕设 48 圈， 藉此构成该第四磁极绕组 34。
该第五磁极绕组 35设于该第一磁极绕组 31的相对侧， 且为绕设在第 25〜第 30线 槽 225〜230中 108圈的第五导线，举例来说，该第五导线是先在第 25线槽 225与第 28 线槽 228绕设 108圈后， 接续在第 26线槽 226与第 29线槽 229绕设 108圈， 再接续于 第 27线槽 227与第 30线槽 230绕设 108圈， 藉此构成该第五磁极绕组 35。
该第六磁极绕组 36设于该第二磁极绕组 32的相对侧， 且为绕设在第 31〜第 36线 槽 231〜236中 24圈的第六导线， 举例来说， 该第六导线是先在第 31线槽 231与第 34 线槽 234绕设 24圈后， 接续在第 32线槽 232与第 35线槽 235绕设 24圈， 再接续于第 33线槽 233与第 36线槽 236绕设 24圈， 藉此构成该第六磁极绕组 36。
该第七磁极绕组 37设于该第三磁极绕组 33的相对侧， 且为绕设在第 37〜第 42线 槽 237〜242中 84圈的第七导线， 举例来说， 该第七导线是先在第 37线槽 237与第 40 线槽 340绕设 84圈后， 接续在第 38线槽 238与第 41线槽 241绕设 84圈， 再接续于第 39线槽 239与第 42线槽 242绕设 84圈， 藉此构成该第七磁极绕组 37。
该第八磁极绕组 38设于该第四磁极绕组 34的相对侧， 且为绕设在第 43〜第 48线 槽 243〜248中 72圈的第八导线， 举例来说， 该第八导线是先在第 43线槽 243与第 46 线槽 346绕设 72圈后， 接续在第 44线槽 244与第 47线槽 247绕设 72圈， 再接续于第 45线槽 245与第 48线槽 248绕设 72圈， 藉此构成该第八磁极绕组 38。 该第一〜第八 磁极绕组 31〜38的总绕线圈数为 480圈。
该第一〜第八导线分别具有一头端与一尾端，该第一导线的尾端连接到第五导线的 头端， 该第一导线的头端与第五导线的尾端作为发电机的第一输出端。
同样地， 该第六导线与第二导线头尾相接， 该第二导线的头端与第六导线的尾端作 为发电机的第二输出端； 该第七导线与第三导线头尾相接， 该第三导线的头端与第七导 线的尾端作为发电机的第三输出端； 该第八导线与第四导线头尾相接， 该第四导线的头 端与第八导线的尾端作为发电机的第四输出端。 当转子 10转动时， 所述磁极绕组 31〜 38根据转子 10所产生的磁场变化分别感应出电压， 藉此达到发电的目的。 为了测试本发明发电机的效能，本优选实施例利用一台 10马力、 7. 5千瓦输出功率 的电动机推动发电机的转子 10， 并量测所述磁极绕组 31〜38输出端的电压。 根据测试 数据， 本发明的输出电压可达 250/390V, 高于传统的 220/380V, 因此本发明发电机定 子的绕线结构确实能达到更高发电效能。
此外， 由于本案只在第五磁极绕组 35绕设有较多圈数的线圈（B卩 108圈）， 第五磁 极绕组 35产生的电流大而产生较高的热能； 其余磁极绕组的线圈数较少， 故其余磁极 绕组的产生电流较小而产生较低的热能。 是以， 第五磁极绕组 35所产生的热能会传导 到其余磁极绕组以进行散热， 故能提升发电机的自体散热效果， 藉此避发电机的运转温 度过高。
以上所述仅是本发明的较佳实施例而已， 并非对本发明做任何形式上的限制， 虽然 本发明已以较佳实施例揭露如上， 然而并非用以限定本发明， 任何熟悉本专业的技术人 员， 在不脱离本发明技术方案的范围内， 当可利用上述揭示的技术内容作出些许更动或 修饰为等同变化的等效实施例， 但凡是未脱离本发明技术方案的内容， 依据本发明的技 术实质对以上实施例所作的任何简单修改、等同变化与修饰， 均仍属于本发明技术方案 的范围内。

Claims

权利要求书
1. 一种定子的绕线结构， 其定子包含有 48个定子齿部， 相邻的所述定子齿部之间 依序形成第 1线槽〜第 48线槽， 所述线槽中绕设有第一磁极绕组〜第八磁极绕组， 其 特征在于：
所述第一磁极绕组依序绕设在所述第 1线槽与所述第 4线槽、所述第 2线槽与所述 第 5线槽和所述第 3线槽与所述第 6线槽中， 且绕线圈数分别为 12圈；
所述第二磁极绕组依序绕设在所述第 7线槽与所述第 10线槽、 所述第 8线槽与所 述第 11线槽和所述第 9线槽与所述第 12线槽中， 且绕线圈数分别为 96圈；
所述第三磁极绕组依序绕设在所述第 13线槽与所述第 16线槽、 所述第 14线槽与 所述第 17线槽和所述第 15线槽与所述第 18线槽中， 且绕线圈数分别为 36圈；
所述第四磁极绕组依序绕设在所述第 19线槽与所述第 22线槽、 所述第 20线槽与 所述第 23线槽和所述第 21线槽与所述第 24线槽中， 且绕线圈数分别为 48圈；
所述第五磁极绕组依序绕设在所述第 25线槽与所述第 28线槽、 所述第 26线槽与 所述第 29线槽和所述第 27线槽与所述第 30线槽中， 且绕线圈数分别为 108圈； 所述第六磁极绕组依序绕设在所述第 31线槽与所述第 34线槽、 所述第 32线槽与 所述第 35线槽和所述第 33线槽与所述第 36线槽中， 且绕线圈数分别为 24圈；
所述第七磁极绕组依序绕设在所述第 37线槽与所述第 40线槽、 所述第 38线槽与 所述第 41线槽和所述第 39线槽与所述第 42线槽中， 且绕线圈数分别为 84圈； 以及 所述第八磁极绕组依序绕设在所述第 43线槽与所述第 46线槽、 所述第 44线槽与 所述第 47线槽和所述第 45线槽与所述第 48线槽中， 且绕线圈数分别为 72圈。
2. 根据权利要求 1所述的定子的绕线结构， 其特征在于， 所述定子为发电机的定 子。
3. 根据权利要求 1所述的定子的绕线结构， 其特征在于， 所述定子为电动机的定 子。
PCT/CN2014/073142 2014-03-10 2014-03-10 定子的绕线结构 WO2015135112A1 (zh)

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Citations (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS54120802A (en) * 1978-03-10 1979-09-19 Toshiba Corp Armature winding
SU1488934A1 (ru) * 1987-11-30 1989-06-23 Inst Elektrodinamiki Tpexфaзhaя пoлюcoпepekлючaemaя oбmotka
US20070278978A1 (en) * 2006-05-30 2007-12-06 Honeywell International, Inc. Motor having multiple independent armature winding sets
CN102122852A (zh) * 2010-01-11 2011-07-13 福特全球技术公司 电机
CN103248187A (zh) * 2012-02-01 2013-08-14 铃木株式会社 电动旋转机器

Patent Citations (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS54120802A (en) * 1978-03-10 1979-09-19 Toshiba Corp Armature winding
SU1488934A1 (ru) * 1987-11-30 1989-06-23 Inst Elektrodinamiki Tpexфaзhaя пoлюcoпepekлючaemaя oбmotka
US20070278978A1 (en) * 2006-05-30 2007-12-06 Honeywell International, Inc. Motor having multiple independent armature winding sets
CN102122852A (zh) * 2010-01-11 2011-07-13 福特全球技术公司 电机
CN103248187A (zh) * 2012-02-01 2013-08-14 铃木株式会社 电动旋转机器

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