WO2020107891A1 - 一种电机 - Google Patents
一种电机 Download PDFInfo
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- WO2020107891A1 WO2020107891A1 PCT/CN2019/094293 CN2019094293W WO2020107891A1 WO 2020107891 A1 WO2020107891 A1 WO 2020107891A1 CN 2019094293 W CN2019094293 W CN 2019094293W WO 2020107891 A1 WO2020107891 A1 WO 2020107891A1
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- WIPO (PCT)
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- component
- controller
- motor
- housing
- capacitor
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- H—ELECTRICITY
- H02—GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
- H02K—DYNAMO-ELECTRIC MACHINES
- H02K11/00—Structural association of dynamo-electric machines with electric components or with devices for shielding, monitoring or protection
- H02K11/30—Structural association with control circuits or drive circuits
Definitions
- the invention relates to the technical field of electric motors, in particular to an electric motor.
- the motor is a commonly used power output device.
- the existing motor is usually installed by separate motor components and controller components.
- the motor components and controller components are provided for user installation.
- the motor has the defects of large volume, heavy weight, complicated on-site assembly, and low protection level.
- the object of the present invention is to provide a motor to realize the integration of the motor and reduce the volume and weight of the motor.
- the present invention provides the following technical solutions:
- a motor includes a coaxially arranged motor component and a controller component that are integrally installed and connected.
- the motor housing of the motor component and the controller housing of the controller component have the same cross-sectional shape.
- the controller housing is further provided with a DC outlet cavity and a control outlet cavity.
- the DC outlet cavity is used to accommodate a DC outlet; the control outlet cavity is used to accommodate a control outlet.
- the controller cooling medium flow path in the controller housing communicates with the motor cooling medium flow path in the motor housing.
- the cross-sectional dimensions of the controller cooling medium flow channel and the motor cooling medium flow channel are consistent.
- the controller component includes the controller housing, a controller end cover, and a controller module located inside the controller housing, and the controller end cover is installed on the controller
- the housing of the motor is away from the end of the motor component; the controller module is connected to the stator winding of the motor component through a collector plate.
- the controller module includes a power component, a capacitor component, a control component, a DC terminal component, and an AC component;
- the AC component is connected to one end of the power component, and the AC component is connected to the stator winding through the collector plate;
- the control component is disposed at an end of the controller housing close to the motor component, and the control component is connected to the power component;
- the power component is disposed between the outer periphery of the capacitor component and the inner wall of the controller housing;
- the DC terminal assembly is disposed between the capacitor assembly and the end surface of the controller end cover, and the DC terminal assembly is connected to an external DC power supply, positive and negative DC terminals of the power assembly, and the capacitor assembly.
- the shape of the inner cross section of the controller housing is polygonal, and the outer shape of the cross section of the capacitor housing of the capacitor assembly is polygonal, and the same as the shape of the inner cross section of the controller housing
- Each edge of the capacitor housing is supported and connected to a corresponding edge of the inner ring of the controller housing, and a capacitor is accommodated in the capacitor housing.
- the gap between the capacitor and the capacitor housing is filled with thermally conductive glue; each inner wall surface of the controller housing and the corresponding outer wall surface of the capacitor housing are tight One power component is fixedly attached.
- the power module includes an elastic body and a heat-generating component, the heat-generating component is fixed to the elastic body, so that the heat-generating component is attached to the inner wall surface of the controller housing.
- each edge of the capacitor housing is provided with a first positioning structure
- each edge of the inner ring of the controller housing is provided with support positioning with the first positioning structure The second positioning structure.
- the first positioning structure is a positioning groove
- the second positioning structure is a positioning protrusion
- the first positioning structure is a positioning protrusion
- the second positioning structure is a positioning groove
- a heat insulation pad is provided between the control assembly and the inner end cover of the motor component.
- the motor component and the controller component are coaxially arranged and integrally connected.
- the motor housing of the motor component and the controller housing of the controller component have the same cross-sectional shape.
- the motor adopts an integrated installation and connection structure, and the controller parts and the motor parts are arranged coaxially. Therefore, compared with the existing split-type motor, the total volume of the motor is only 1/3 more than the motor parts, which reduces the volume. , Reduced weight, no need for on-site installation.
- FIG. 1 is an explosion schematic diagram of a motor provided by an embodiment of the present invention
- FIG. 2 is an exploded schematic diagram of a controller component of a motor provided by an embodiment of the present invention
- FIG. 3 is a schematic structural diagram of a power component of a motor provided by an embodiment of the present invention.
- FIG. 4 is a schematic structural diagram of a capacitor assembly of a motor provided by an embodiment of the present invention.
- FIG. 5 is a schematic structural diagram of a controller housing of a motor provided by an embodiment of the present invention.
- 1 is the controller part
- 2 is the motor part
- 11 is the controller end cover
- 12 is the DC terminal component
- 13 is the capacitor component
- 131 is the capacitor
- 132 is the capacitor housing
- 1321 is the first positioning structure
- 14 is the power component
- 141 is the elastomer
- 142 is the heating element
- 15 Is the controller housing
- 151 is the capacitor
- 152 is the capacitor casing
- 153 is the second positioning structure
- 16 is the AC component
- 17 is the control component
- 21 is the motor housing
- 22 is the motor stator
- 23 is the motor rotor
- 24 is the collector plate
- 25 is the internal end cover of the motor.
- the core of the invention is to provide a motor, which realizes the integration of the motor and reduces the volume and weight of the motor.
- an embodiment of the present invention provides a motor, including a motor component 2 and a controller component 1, the motor component 2 includes a motor housing 21, a motor rotor 23, and an electronic stator 22, the controller component 1
- the controller housing 15 is included, the motor component 2 and the controller component 1 are coaxially arranged and integrally connected, and the motor housing 21 and the controller housing 15 have the same cross-sectional shape.
- the motor adopts an integrated installation and connection structure, and the controller part 1 and the motor part 2 are arranged coaxially. Therefore, compared with the existing split-type motor, the total volume of the motor is only about 1/3 more than that of the motor part 2. The volume is reduced by about 1/4 of the total volume of the current split motor, which reduces the volume and weight, does not require on-site installation, and has the simplest appearance.
- the controller housing 15 is further provided with a DC outlet cavity 152 and a control outlet cavity 151.
- the DC outlet cavity 152 is used to accommodate the DC outlet; the control outlet cavity 151 is used to accommodate Control the outlet.
- the DC outlet cavity 152 and the control outlet cavity 151 may protrude from the outer surface of the controller housing 15 or may be located within the outer surface of the controller housing 15, the cable between the motor component 2 of the motor and the controller component 1
- the signal line is integrated in the controller housing 15 and the motor housing 21, which improves the protection level of the motor, and the protection level can reach IP67.
- the cable and signal line can use lower protection level cables, the protection level can be reduced to IP55, the cable cost is about 1/10 of the cost of the existing split motor; power The cable becomes shorter, the cable line loss is reduced, and the wiring work is reduced on site.
- the controller cooling medium flow path is provided in the controller housing 15, the motor cooling medium flow path is provided in the motor housing 21, and the controller cooling medium flow path and the motor cooling medium flow Road connected. Since the cooling medium flow channels are all set in the casing and adopt closed flow channels, the protection level is further improved, and the controller cooling medium flow channel is connected with the motor cooling medium flow channel, simplifying the medium circulation structure.
- the cross-sectional dimensions of the controller cooling medium flow channel and the motor cooling medium flow channel are consistent, which improves the tightness of the connection of the two cooling medium flow channels and is simple to process.
- the controller component 1 is further optimized.
- the controller component 1 includes a controller housing 15, a controller end cover 11, and a controller located inside the controller housing 15 Module, the controller end cover 11 is installed at the end of the controller housing 15 away from the motor part 2, the seal of the controller end cover 11 and the controller housing 15 meets the IP67 protection level; one end of the controller housing 15 and the motor One end of the housing 21 is connected, and the internal controller module is connected to the stator winding of the motor component 2 through the collector plate 24, which is convenient for assembly.
- the collector plate 24 collects the small current of each phase winding of the motor component 2 to the total AC terminal In the above, the AC terminal of the collector plate 24 makes electrical contact with the AC assembly 16 of the controller component 1 in a coaxial manner, and further communicates the power circuit between the motor component 2 and the controller component 1.
- the controller module includes a power component 14, a capacitor component 13, a control component 17, a DC terminal component 12, and an AC component 16; wherein, the controller module is electrically connected to the motor component 2 specifically refers to the AC component 16 through the set
- the electric disk 24 is connected to the stator winding of the motor part 2.
- the control component 17 is disposed at the end of the controller housing 15 close to the motor components.
- the control component 17 is connected to the power component 14, the sensor, and external control signals; the power component 14 is disposed between the outer periphery of the capacitor component 13 and the inner wall of the controller housing 15
- the DC terminal assembly 12 is provided between the capacitor assembly 13 and the end surface of the controller end cover 11.
- the DC terminal assembly 12 is connected to the external DC power supply, the positive and negative DC terminals of the power assembly 14, and the capacitor assembly 13.
- the power component 14 mainly includes a multilayer thick copper circuit board, a semiconductor power switch, a power terminal, a control terminal, and the like.
- the multi-layer thick copper circuit board of the power module 14 provides an electrical path for the semiconductor power switch, the on-off of the semiconductor power switch control circuit, and the power terminal is connected to the AC module 16 and the DC terminal module 12 of the controller component 1.
- the shape of the inner ring of the cross section of the controller housing 15 is a polygon
- the capacitor assembly 13 includes a capacitor housing 132 and a capacitor 131, and the capacitor 131 is accommodated in the capacitor housing 132.
- the shape of the cross section of the capacitor housing 132 is polygonal, and the shape of the inner ring of the cross section of the controller housing 15 is the same.
- Each edge of the capacitor housing 132 is connected to the corresponding edge of the inner ring of the controller housing 15 to support the connection.
- the edges of the housing 132 are in interference fit with the corresponding edges of the inner circle of the controller housing 15.
- the cross-sectional inner ring of the controller housing 15 and the cross-section of the capacitor housing 132 are all hexagons, and the positioning support connection is realized through the structure of hexagons and six edges.
- the cross-sectional shape can also be a polygon such as a triangle, a quadrangle, a pentagon, or an octagon.
- each edge of the capacitor housing 132 is provided with a first positioning structure 1321, and each edge of the inner circle of the controller housing 15 is provided with The second positioning structure 153 is supported and positioned with the first positioning structure 1321.
- the capacitor housing 132 and the controller housing 15 achieve stable and reliable support and positioning through the first positioning structure 1321 and the positioning structure 153.
- the first positioning structure 1321 is a positioning groove
- the second positioning structure 153 is a positioning protrusion
- the first positioning structure 1321 is a positioning protrusion
- the second positioning structure 153 is a positioning groove.
- the first positioning structures 1321 may all be positioning grooves or positioning protrusions, or have positioning grooves and positioning protrusions at the same time, accordingly, the second positioning structures 153 on the controller housing 15 may all In order to position the protrusion or the positioning groove, or to have both the positioning protrusion and the positioning groove, as long as the first positioning structure 1321 and the second positioning structure 153 can be cooperatively supported and positioned.
- the gap between the capacitor 131 and the capacitor case 132 is filled with thermally conductive adhesive for fixing the capacitor 131 and dissipating heat, thereby improving the heat dissipation performance of the capacitor assembly 13;
- a power component 14 is tightly fixed between the wall surface and the corresponding outer wall surface of the capacitor housing 132, and the heat generated by the power component 14 is evenly distributed to the controller housing 15 to maximize the heat dissipation capacity.
- the power module 14 includes a heating element 142 and an elastic body 141.
- the heating element 142 is fixed on the elastic body 141, and the elasticity of the elastic body 141 makes the heating element 142 and the control
- the inner wall surface of the device housing 15 is attached to further reduce the thermal resistance of the power component 14 and achieve rapid heat dissipation.
- a heat insulation pad is provided between the control assembly 17 and the motor internal end cover 25 of the motor component 2.
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Abstract
本申请公开了一种电机,包括同轴布置且为一体安装连接的电机部件和控制器部件,所述电机部件的电机壳体与所述控制器部件的控制器壳体的横截面外形一致。该电机采用一体安装连接结构,控制器部件和电机部件同轴布置,因此,与现有的分体式电机相比,该电机的总体积仅比电机部件多出越1/3,减小了体积,减轻了重量,不需要现场安装。
Description
本申请要求于2018年11月29日提交中国专利局、申请号为201811442606.5、发明名称为“一种电机”的中国专利申请的优先权,同时要求于2018年11月29日提交中国专利局、申请号为201821992374.6、发明名称为“一种电机”的中国专利申请的优先权,其全部内容通过引用结合在本申请中。
本发明涉及电机技术领域,特别涉及一种电机。
电机是常用的动力输出装置,现有的电机通常由独立的电机部件和控制器部件分体安装而成。电机部件和控制器部件分别提供给用户安装,该电机存在体积大、重量大、现场装配复杂、防护等级低等缺陷。
因此,如何解决分体式电机体积大、重量大、现场装配复杂的问题,成为了本领域技术人员亟待解决的问题。
发明内容
有鉴于此,本发明的目的在于提供一种电机,以实现电机的一体化,减小电机体积和重量。
为达到上述目的,本发明提供以下技术方案:
一种电机,包括同轴布置且为一体安装连接的电机部件和控制器部件,所述电机部件的电机壳体与所述控制器部件的控制器壳体的横截面外形一致。
优选地,在上述的电机,所述控制器壳体内还设置有直流出线腔和控制出线腔,所述直流出线腔用于容置直流出线;所述控制出线腔用于容置控制出线。
优选地,在上述的电机,所述控制器壳体内的控制器冷却介质流道与所述 电机壳体内的电机冷却介质流道相连通。
优选地,在上述的电机,所述控制器冷却介质流道与所述电机冷却介质流道的截面尺寸一致。
优选地,在上述的电机,所述控制器部件包括所述控制器壳体、控制器端盖以及位于所述控制器壳体内部的控制器模块,所述控制器端盖安装于所述控制器壳体远离所述电机部件的一端;所述控制器模块通过集电盘与所述电机部件的定子绕组连接。
优选地,在上述的电机,所述控制器模块包括功率组件、电容器组件、控制组件、直流端组件和交流组件;
所述交流组件与所述功率组件的一端连接,所述交流组件通过所述集电盘与所述定子绕组连接;
所述控制组件设置在所述控制器壳体靠近所述电机部件的一端,所述控制组件与所述功率组件连接;
所述功率组件设置于所述电容器组件的外周与所述控制器壳体的内壁之间;
所述直流端组件设置在所述电容器组件和所述控制器端盖的端面之间,所述直流端组件与外部直流电源、所述功率组件的正、负直流端子和所述电容器组件连接。
优选地,在上述的电机,所述控制器壳体的截面内圈形状为多边形,所述电容器组件的电容器外壳截面的外形为多边形,且与所述控制器壳体的截面内圈形状相同,所述电容器外壳的每个棱边与所述控制器壳体的内圈对应棱边支撑连接,所述电容器外壳中容置有电容器。
优选地,在上述的电机,所述电容器与所述电容器外壳之间的缝隙填充有导热胶;所述控制器壳体的每个内壁面和对应的所述电容器外壳的外壁面之间均紧密贴合固定一个所述功率组件。
优选地,在上述的电机,所述功率组件包括弹性体和发热部件,所述发热部件固定于所述弹性体上,使所述发热部件与所述控制器壳体的内壁面贴合。
优选地,在上述的电机,所述电容器外壳的每个棱边均设置有第一定位结 构,所述控制器壳体的内圈每个棱边均设置有与所述第一定位结构支撑定位的第二定位结构。
优选地,在上述的电机,所述第一定位结构为定位凹槽,所述第二定位结构为定位凸起;
或者所述第一定位结构为定位凸起,所述第二定位结构为定位凹槽。
优选地,在上述的电机,所述控制组件与所述电机部件的内部端盖之间设置有隔热垫。
与现有技术相比,本发明的有益效果是:
本发明提供的电机中,电机部件和控制器部件同轴布置且为一体安装连接,电机部件的电机壳体与控制器部件的控制器壳体的横截面外形一致。该电机采用一体安装连接结构,控制器部件和电机部件同轴布置,因此,与现有的分体式电机相比,该电机的总体积仅比电机部件多出越1/3,减小了体积,减轻了重量,不需要现场安装。
为了更清楚地说明本发明实施例或现有技术中的技术方案,下面将对实施例或现有技术描述中所需要使用的附图作简单地介绍,显而易见地,下面描述中的附图仅仅是本发明的实施例,对于本领域普通技术人员来讲,在不付出创造性劳动的前提下,还可以根据提供的附图获得其他的附图。
图1为本发明实施例提供的一种电机的***示意图;
图2为本发明实施例提供的一种电机的控制器部件的***示意图;
图3为本发明实施例提供的一种电机的功率组件的结构示意图;
图4为本发明实施例提供的一种电机的电容器组件的结构示意图;
图5为本发明实施例提供的一种电机的控制器壳体的结构示意图。
其中,1为控制器部件、2为电机部件;
11为控制器端盖、12为直流端组件、13为电容器组件、131为电容器、132为电容器外壳、1321为第一定位结构、14为功率组件、141为弹性体、142为发热部件、15为控制器壳体、151为电容器、152为电容器外壳、153为第 二定位结构、16为交流组件、17为控制组件;
21为电机壳体、22为电机定子、23为电机转子、24为集电盘、25为电机内部端盖。
本发明的核心是提供了一种电机,实现了电机的一体化,减小了电机体积和重量。
下面将结合本发明实施例中的附图,对本发明实施例中的技术方案进行清楚、完整地描述,显然,所描述的实施例仅仅是本发明一部分实施例,而不是全部的实施例。基于本发明中的实施例,本领域普通技术人员在没有做出创造性劳动前提下所获得的所有其他实施例,都属于本发明保护的范围。
请参考图1和图2,本发明实施例提供了一种电机,包括电机部件2和控制器部件1,电机部件2包括电机壳体21、电机转子23和电子定子22,控制器部件1包括控制器壳体15,电机部件2和控制器部件1同轴布置且为一体安装连接,电机壳体21与控制器壳体15的横截面外形一致。
该电机采用一体安装连接结构,控制器部件1和电机部件2同轴布置,因此,与现有的分体式电机相比,该电机的总体积仅比电机部件2多出约1/3,总体积比目前的分体式电机的总体积减小约1/4,减小了体积,减轻了重量,不需要现场安装,外形最简单。
如图5所示,在本实施例中,控制器壳体15内还设置有直流出线腔152和控制出线腔151,直流出线腔152用于容置直流出线;控制出线腔151用于容置控制出线。直流出线腔152和控制出线腔151可以凸出控制器壳体15的外表面,也可以位于控制器壳体15的外表面以内,该电机的电机部件2与控制器部件1之间的电缆线、信号线均集成在控制器壳体15和电机壳体21内,提高了电机的防护等级,防护等级能够达到IP67。由于线缆位于壳体内部,因此,电缆线和信号线可以采用防护等级较低的线缆,防护等级可以降为IP55,线缆成本约减少现有的分体式电机成本的1/10;功率电缆变短,电缆线路损耗 减小,而且现场减少接线的工作。
进一步地,在本实施例中,控制器冷却介质流道设置在控制器壳体15内,电机冷却介质流道设置在电机壳体21内,且控制器冷却介质流道与电机冷却介质流道相连通。由于冷却介质流道均设置在壳体内,采用封闭流道,因此,进一步提高了防护等级,且控制器冷却介质流道与电机冷却介质流道相连通,简化了介质流通结构。
更进一步地,控制器冷却介质流道与电机冷却介质流道的截面尺寸一致,提高了两个冷却介质流道的连通的密封性,且加工简单。
如图1和图2所示,对控制器部件1进一步优化,在本实施例中,控制器部件1包括控制器壳体15、控制器端盖11以及位于控制器壳体15内部的控制器模块,控制器端盖11安装于控制器壳体15远离电机部件2的一端,控制器端盖11与控制器壳体15的密封满足IP67的防护等级;控制器壳体15的一端与电机壳体21的一端连接,内部的控制器模块通过集电盘24与电机部件2的定子绕组连接,便于装配,集电盘24把电机部件2的各相绕组的小电流汇集到总的交流端子上,集电盘24的交流端子以同轴的方式与控制器部件1的交流组件16形成电接触,进而连通电机部件2与控制器部件1之间的功率回路。
在本实施例中,控制器模块包括功率组件14、电容器组件13、控制组件17、直流端组件12和交流组件16;其中,控制器模块与电机部件2电连接具体是指交流组件16通过集电盘24与电机部件2的定子绕组连接。
控制组件17设置在控制器壳体15靠近电机部件的一端,控制组件17与功率组件14、传感器和外部控制信号连接;功率组件14设置于电容器组件13的外周与控制器壳体15的内壁之间;直流端组件12设置在电容器组件13和控制器端盖11的端面之间,直流端组件12与外部直流电源、功率组件14的正、负直流端子和电容器组件13连接。功率组件14主要包含多层厚铜电路板、半导体功率开关、功率端子及控制端子等。功率组件14的多层厚铜电路板为半导体功率开关提供电气通路,半导体功率开关控制电路的通断,功率端子连接于控制器部件1的交流组件16和直流端组件12。
进一步地,在本实施例中,控制器壳体15的截面内圈形状为多边形,电容器组件13包括电容器外壳132和电容器131,电容器131容置于电容器外壳132中。电容器外壳132截面的外形为多边形,且与控制器壳体15的截面内圈形状相同,电容器外壳132的每个棱边与控制器壳体15的内圈对应棱边支撑连接,具体地,电容器外壳132的棱边与控制器壳体15的内圈对应棱边过盈配合。通过将控制器壳体15的截面内圈和电容器外壳132的截面外形设置成多边形,实现了电容器组件13与控制器壳体15的牢固支撑连接,防止了电容器组件13在控制器壳体15内转动,不需要在壳体上开孔,不需要通过螺钉等零件进行连接,连接结构简单,进一步提高了防护等级。同时,电容器组件13通过棱边与控制器壳体15接触,为电容器组件13提供散热路径,热量通过棱边传递给控制器壳体15,通过控制器壳体15进行散热。
作为优化,控制器壳体15的截面内圈和电容器外壳132的截面的外形均为六边形,通过六边形和六个棱边的结构实现定位支撑连接。当然,截面形状还可以为三角形、四边形、五边形或八边形等多边形。
如图4和图5所示,进一步地,在本实施例中,电容器外壳132的每个棱边均设置有第一定位结构1321,控制器壳体15的内圈每个棱边均设置有与第一定位结构1321支撑定位的第二定位结构153。电容器外壳132和控制器壳体15通过第一定位结构1321和定位结构153实现了稳定可靠的支撑和定位。
具体地,第一定位结构1321为定位凹槽,相应地,第二定位结构153为定位凸起;或者第一定位结构1321为定位凸起,相应地,第二定位结构153为定位凹槽。在一个电容器外壳132上,第一定位结构1321可以全部为定位槽或定位凸起,或者同时具有定位凹槽和定位凸起,相应地,控制器壳体15上的第二定位结构153可以全部为定位凸起或定位凹槽,或者同时具有定位凸起和定位凹槽,只要能够实现第一定位结构1321和第二定位结构153的配合支撑定位即可。
进一步地,在本实施例中,电容器131与电容器外壳132之间的缝隙填充有导热胶,用于固定电容器131并散热,提高了电容器组件13的散热性能;控制器壳体15的每个内壁面和对应的电容器外壳132的外壁面之间均紧密贴 合固定一个功率组件14,功率组件14的发热量均匀散到控制器壳体15上,散热能力最大化。
如图3所示,更进一步地,在本实施例中,功率组件14包括发热部件142和弹性体141,发热部件142固定于弹性体141上,通过弹性体141的弹性使发热部件142与控制器壳体15的内壁面贴合,以进一步降低功率组件14的热阻,实现快速散热。
在本实施例中,为了保护控制器部件1内的电器元件不受热损坏,在本实施例中,控制组件17与电机部件2的电机内部端盖25之间设置有隔热垫。
在本实施例中,大部分结构件采用挤压铝型材,能源耗费低于压铸铝型材。
本说明书中各个实施例采用递进的方式描述,每个实施例重点说明的都是与其他实施例的不同之处,各个实施例之间相同相似部分互相参见即可。
对所公开的实施例的上述说明,使本领域专业技术人员能够实现或使用本发明。对这些实施例的多种修改对本领域的专业技术人员来说将是显而易见的,本文中所定义的一般原理可以在不脱离本发明的精神或范围的情况下,在其它实施例中实现。因此,本发明将不会被限制于本文所示的这些实施例,而是要符合与本文所公开的原理和新颖特点相一致的最宽的范围。
Claims (12)
- 一种电机,其特征在于,包括同轴布置且为一体安装连接的电机部件(2)和控制器部件(1),所述电机部件(2)的电机壳体(21)与所述控制器部件(1)的控制器壳体(15)的横截面外形一致。
- 根据权利要求1所述的电机,其特征在于,所述控制器壳体(15)内还设置有直流出线腔(152)和控制出线腔(151),所述直流出线腔(152)用于容置直流出线;所述控制出线腔(151)用于容置控制出线。
- 根据权利要求1所述的电机,其特征在于,所述控制器壳体(15)内的控制器冷却介质流道与所述电机壳体(21)内的电机冷却介质流道相连通。
- 根据权利要求3所述的电机,其特征在于,所述控制器冷却介质流道与所述电机冷却介质流道的截面尺寸一致。
- 根据权利要求1所述的电机,其特征在于,所述控制器部件(1)包括所述控制器壳体(15)、控制器端盖(11)以及位于所述控制器壳体(15)内部的控制器模块,所述控制器端盖(11)安装于所述控制器壳体(15)远离所述电机部件(2)的一端;所述控制器模块通过集电盘(24)与所述电机部件(2)的定子绕组连接。
- 根据权利要求5所述的电机,其特征在于,所述控制器模块包括功率组件(14)、电容器组件(13)、控制组件(17)、直流端组件(12)和交流组件(16);所述交流组件(16)与所述功率组件(14)的一端连接,所述交流组件(16)通过所述集电盘(24)与所述定子绕组连接;所述控制组件(17)设置在所述控制器壳体(15)靠近所述电机部件(2)的一端,所述控制组件(17)与所述功率组件(14)连接;所述功率组件(14)设置于所述电容器组件(13)的外周与所述控制器壳体(15)的内壁之间;所述直流端组件(12)设置在所述电容器组件(13)和所述控制器端盖(11)的端面之间,所述直流端组件(12)与外部直流电源、所述功率组件(14)的正、负直流端子和所述电容器组件(13)连接。
- 根据权利要求6所述的电机,其特征在于,所述控制器壳体(15)的截面内圈形状为多边形,所述电容器组件(13)的电容器外壳(132)截面的外形为多边形,且与所述控制器壳体(15)的截面内圈形状相同,所述电容器外壳(132)的每个棱边与所述控制器壳体(15)的内圈对应棱边支撑连接,所述电容器外壳(132)中容置有电容器(131)。
- 根据权利要求7所述的电机,其特征在于,所述电容器(131)与所述电容器外壳(132)之间的缝隙填充有导热胶;所述控制器壳体(15)的每个内壁面和对应的所述电容器外壳(132)的外壁面之间均紧密贴合固定一个所述功率组件(14)。
- 根据权利要求8所述的电机,其特征在于,所述功率组件(14)包括弹性体和发热部件,所述发热部件固定于所述弹性体上,使所述发热部件与所述控制器壳体(15)的内壁面贴合。
- 根据权利要求7-9任一项所述的电机,其特征在于,所述电容器外壳(132)的每个棱边均设置有第一定位结构(1321),所述控制器壳体(15)的内圈每个棱边均设置有与所述第一定位结构(1321)支撑定位的第二定位结构(153)。
- 根据权利要求10所述的电机,其特征在于,所述第一定位结构(1321)为定位凹槽,所述第二定位结构(153)为定位凸起;或者所述第一定位结构(1321)为定位凸起,所述第二定位结构(153)为定位凹槽。
- 根据权利要求6-9任一项所述的电机,其特征在于,所述控制组件(17)与所述电机部件(2)的电机内部端盖(25)之间设置有隔热垫。
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