WO2019001365A1 - 锁紧弹簧构件及旋转隔离开关 - Google Patents

锁紧弹簧构件及旋转隔离开关 Download PDF

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Publication number
WO2019001365A1
WO2019001365A1 PCT/CN2018/092416 CN2018092416W WO2019001365A1 WO 2019001365 A1 WO2019001365 A1 WO 2019001365A1 CN 2018092416 W CN2018092416 W CN 2018092416W WO 2019001365 A1 WO2019001365 A1 WO 2019001365A1
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WO
WIPO (PCT)
Prior art keywords
hole
positioning hole
spring member
mandrel
axially extending
Prior art date
Application number
PCT/CN2018/092416
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English (en)
French (fr)
Inventor
南寅
南添
Original Assignee
首瑞(天津)电气设备有限公司
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Publication date
Application filed by 首瑞(天津)电气设备有限公司 filed Critical 首瑞(天津)电气设备有限公司
Priority to BR112019000734-2A priority Critical patent/BR112019000734A2/pt
Publication of WO2019001365A1 publication Critical patent/WO2019001365A1/zh

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    • HELECTRICITY
    • H01ELECTRIC ELEMENTS
    • H01HELECTRIC SWITCHES; RELAYS; SELECTORS; EMERGENCY PROTECTIVE DEVICES
    • H01H19/00Switches operated by an operating part which is rotatable about a longitudinal axis thereof and which is acted upon directly by a solid body external to the switch, e.g. by a hand
    • H01H19/02Details
    • H01H19/10Movable parts; Contacts mounted thereon
    • H01H19/14Operating parts, e.g. turn knob

Definitions

  • the present invention relates to the field of electrical equipment, and in particular to a locking spring member and a rotary isolating switch.
  • the rotary isolating switch is used to block or allow current to flow during the energized state, so that the portion of the power distribution device that needs to be powered off is reliably isolated from the live portion.
  • Rotary disconnectors are widely used in power systems.
  • the smaller currents generated in each photovoltaic cell are combined in parallel to provide the required current or total power to the utilization system, and the isolation, protection and disconnection can be achieved by means of a rotary isolating switch. The purpose of each photovoltaic cell.
  • a locking spring member is disposed in the control mechanism of the rotary isolating switch. During the operation of the control mechanism of the rotary isolating switch, the locking spring member needs to withstand the impact force. High requirements are placed on the structure of the locking spring member. The structure of the existing locking spring member is relatively complicated, and it is easy to be damaged after a short time of use, so that the rotary isolation switch cannot work normally.
  • the embodiment of the invention provides a locking spring member, which has a simple structure and includes a small number of structural members, thereby improving the overall strength of the whole body, improving the impact resistance of the load, and preventing damage.
  • an embodiment of the present invention provides a lock spring member for a rotary isolating switch control mechanism, comprising: an annular member having a through hole and a notch extending in a radial direction along the through hole, the notch being in communication with the through hole
  • the mandrel connector includes a fixing portion and a mounting portion that are connected to each other, the mandrel connector is connected to the ring member through the fixing portion, the mounting portion is disposed in the through hole, and the mounting portion includes the disk body and two or more mandrel fits a protrusion, the disk body is provided with a positioning hole, the axis of the positioning hole is coincident or parallel with the axis of the through hole, and two or more mandrel matching protrusions are disposed around the positioning hole and are spaced apart from each other and are adjacent to the edge of the disk body by the positioning hole Extending along the axial direction of the positioning hole.
  • each of the mandrel mating protrusions is a plate-like structure
  • the mandrel mating protrusions include a radially extending plate and an axially extending plate, and the radially extending plate extends in a radial direction of the positioning hole, the shaft
  • the extension plate extends in the axial direction of the positioning hole, and the axial extension plate is connected to the hole wall of the positioning hole through the radially extending plate.
  • the cross-sectional contour of the axially extending plate toward the inner side surface of the positioning hole is a straight line, and the extension lines of the inner surface contour lines of the cross-sections of all the axially extending plates intersect to form a polygon.
  • the cross-sectional contour of the outer side surface of the axially extending plate facing away from the positioning hole is a circular arc, and the center of the circular arc is located on the axis of the positioning hole, and the cross-section of all the axially extending plates
  • the extension of the outer surface contour forms a circle.
  • an outer side surface of the axially extending plate facing away from the positioning hole includes a first cylindrical surface, a flat surface, and a second cylindrical surface, which are sequentially connected in the circumferential direction, the first cylindrical surface and the second cylindrical surface Coaxial.
  • two or more mandrel fitting projections are uniformly disposed along the circumferential direction of the positioning hole.
  • the mandrel connector is integrally formed, and the material of the ring member and the mandrel connector are both metallic materials.
  • a locking spring member includes an annular member and a mandrel connector that are fixedly coupled to each other.
  • the mandrel connector has a simple structure, and the number of structural members included therein is small, thereby improving the overall strength of the body, improving the impact resistance of the load, and preventing damage.
  • an embodiment of the present invention provides a rotary disconnector including the above described lock spring member.
  • FIG. 1 is a schematic exploded view showing a part of a structure of a rotary disconnecting switch according to an embodiment of the present invention.
  • FIG. 2 is a front perspective view showing the structure of a lock spring member according to an embodiment of the present invention.
  • FIG. 3 is a schematic view showing the structure of the reverse side view of the lock spring member according to an embodiment of the present invention.
  • FIG. 4 is a top plan view showing a locking spring member according to an embodiment of the present invention.
  • Fig. 5 is a front perspective view showing the structure of a lock spring member according to another embodiment of the present invention.
  • Fig. 6 is a front perspective view showing the structure of a lock spring member according to still another embodiment of the present invention.
  • first and second and the like are used for descriptive purposes only, and are not to be construed as indicating or implying relative importance; “multiple” The meaning is two or more; the orientation or positional relationship of the terms “inside”, “outside”, “top”, “bottom” and the like is based on the orientation or positional relationship shown in the drawings, only for the convenience of description.
  • the invention and the simplification of the invention are not to be construed as limiting or limiting the invention.
  • the rotary isolating switch of the embodiment of the present invention comprises a casing 1 , a mandrel (not shown) disposed in the casing 1 , and a cover 2 matched with the casing 1 and disposed on the cover 2 .
  • the control mechanism of the present embodiment includes a rotational operation member 5, a rotary spring 6, and a lock spring member 7.
  • the outer casing 1 of the present embodiment has a cylindrical receiving hole 4, one end of which is disposed in the receiving hole 4, and the axis of the mandrel coincides with the axis of the receiving hole 4.
  • the lock spring member 7 of the embodiment of the present invention is used to rotate the control mechanism of the disconnector.
  • the lock spring member 7 of the present embodiment is rotatably disposed in the accommodating hole 4 around the axis of the accommodating hole 4, and is coupled to the mandrel.
  • the rotating shaft 3 on the cover 2 is rotated, the rotating shaft 3 drives the rotating operating member 5, the rotating spring 6, and the locking spring member 7 to rotate, so that the locking spring member 7 drives the spindle to rotate.
  • the lock spring member 7 of the present embodiment includes an annular member 8 and a mandrel joint 9.
  • the annular member 8 of the present embodiment includes a through hole 81 and a notch 82 extending in the radial direction of the through hole 81, wherein the notch 82 communicates with the through hole 81.
  • the through hole 81 of this embodiment has a circular cross section.
  • the annular member 8 of the present embodiment includes two bent free ends forming the aforementioned notches 82. The two bent free ends are located on the same side of the ring member 8 and extend in the axial direction of the through hole 81.
  • the mandrel connector 9 of the present embodiment includes a fixing portion 9a and a mounting portion 9b which are connected to each other, for example, by riveting, welding, screwing or bolting.
  • the mandrel connector 9 is connected to the ring member 8 via a fixing portion 9a.
  • the fixing portion 9a is connected to a portion of the ring member 8 opposed to the notch 82.
  • the fixing portion 9a of the embodiment is riveted and connected to the ring member 8 by two rivets, and the connection mode is simple, efficient, and reliable.
  • the mounting portion 9b is provided in the through hole 81.
  • the mounting portion 9b includes a disk body 90 and two or more core shaft fitting projections. A positioning hole 91 is provided in the disk body 90.
  • the axis of the positioning hole 91 coincides with or is parallel to the axis of the through hole 81.
  • Two or more mandrel fitting projections 92 are spaced apart from each other around the positioning hole 91 and extend from the axial direction of the positioning hole 91 by an edge of the disk body 90 adjacent to the positioning hole 91 adjacent to the positioning hole 91.
  • the ends of the mandrel located in the receiving hole 4 of the outer casing 1 can be inserted into the space formed by the mandrel fitting projections 92 to complete the mating engagement of each other.
  • the end of the mandrel located in the receiving hole 4 of the outer casing 1 and the mandrel fitting projection 92 are in a transitional fit or an interference fit, which ensures the stability of the connection between the two and the rotational synchronization between the two.
  • the lock spring member 7 of the present embodiment is coupled to the mandrel through the mounting portion 9b, and can transmit the rotational moment to the mandrel portion through the mounting portion 9b.
  • the locking spring member 7 of the present embodiment has a simple structure and includes a small number of structural members, thereby improving the overall strength of the whole body and improving the impact resistance.
  • the mounting portion 9b of the locking spring member 7 of the present embodiment has a simple structure and is more secure and reliable in connection with the end portion of the mandrel.
  • the mandrel fitting projection 92 of this embodiment has a plate-like structure.
  • the mandrel mating projection 92 includes a radially extending plate 92a and an axially extending plate 92b.
  • the radially extending plate 92a extends in the radial direction of the positioning hole 91.
  • the axially extending plate 92b extends in the axial direction of the positioning hole 91.
  • the axially extending plate 92b is connected to the wall of the hole of the positioning hole 91 through the radially extending plate 92a.
  • the end of the mandrel in the housing 1 receiving hole 4 can be inserted into the space formed by the axially extending plate 92b of the mandrel fitting projection 92 to complete the mating fit between each other.
  • the structure of the above-mentioned mandrel fitting protrusion 92 can improve its own strength and improve the bearing capacity.
  • such a structure also facilitates the overall processing and manufacturing of the mandrel connector 9, for example, can be manufactured by mass or integral molding by means of stamping or casting.
  • the mandrel connector 9 having the mandrel fitting projection 92 having the above structure has high production efficiency.
  • the axially extending plate 92b of each of the mandrel fitting projections 92 included in the mounting portion 9b of the present embodiment includes an inner side surface 93 facing the positioning hole 91 and an outer side surface 94 facing away from the positioning hole 91.
  • the inner side surface 93 of the axially extending plate 92b can be fitted to the outer peripheral surface of the end of the mandrel to enhance the mandrel fit.
  • the protrusion 92 is connected to the mandrel for stability.
  • the outer casing 1 of the present embodiment further includes a limiting hole (not shown) that communicates with the receiving hole 4 and is coaxially disposed.
  • the limiting hole of this embodiment is cylindrical.
  • the axially extending plate 92b of the mandrel mating projection 92 can be inserted into the retaining hole such that the outer side surface 94 of the axially extending plate 92b mates with the bore wall of the retaining hole.
  • the inner side surface 93 of the cross section of the axially extending plate 92b of the present embodiment has a straight line, and the extension lines of the inner side surface 93 of the cross section of all the axially extending plates 92b intersect to form the number of sides.
  • the above polygon is a regular polygon, such as an equilateral triangle, a square, a regular pentagon, or the like.
  • the extension lines of the outline of the inner side surface 93 of the cross section of all of the axially extending plates 92b of the present embodiment intersect to form a regular quadrilateral. Since the cross section of the end of the mandrel is generally substantially square, it is convenient to cooperate with the end of the mandrel.
  • the axially extending plate 92b When the locking spring member 7 is rotated, the axially extending plate 92b is rotated relative to the limiting hole in the circumferential direction of the limiting hole.
  • the outer side surface 94 of the cross-section of the axially extending plate 92b is contoured in a circular arc, and the extension of the outline of the outer side surface 94 of the cross-section of all of the axially extending plates 92b is rounded.
  • the outer side surface 94 of the axially extending plate 92b is in contact with the hole wall of the limiting hole, so that the axially extending plate 92b is restricted by the limiting hole and the outer side surface 94 of the axially extending plate 92b and the hole wall of the limiting hole A contact area is formed in the circumferential direction, so that the axially extending plate 92b is balanced during the rotation, and the locking spring member 7 is affected by the additional impact load during the rotation, and the locking spring member 7 is lifted.
  • the smoothness of the rotation process is formed in the circumferential direction, so that the axially extending plate 92b is balanced during the rotation, and the locking spring member 7 is affected by the additional impact load during the rotation, and the locking spring member 7 is lifted.
  • the outer side surface 94 of the axially extending plate 92b includes a first cylindrical surface 941, a flat surface 942, and a second cylindrical surface 943 which are sequentially connected in the circumferential direction, the first cylinder
  • the face 941 is coaxial with the second cylindrical surface 943 and coaxial with the positioning hole 91.
  • the first cylindrical surface 941 and the second cylindrical surface 943 of all of the axially extending plates 92b are coaxially disposed to ensure that all of the first cylindrical surface 941 and the second cylindrical surface 943 are on the same cylindrical surface.
  • the first cylindrical surface 941 and the second cylindrical surface 943 of the outer side surface 94 of the axially extending plate 92b are in contact with the hole wall of the limiting hole.
  • the plane 942 of the outer side surface 94 of the axially extending plate 92b forms a gap with the wall of the limiting hole.
  • the frictional resistance between the outer side surface 94 of the axially extending plate 92b and the hole wall of the limiting hole can be reduced, which is advantageous for reducing the rotational force required to drive the locking spring member 7, and avoiding the occurrence of the locking spring member 7 during rotation. In the event of a setback, the smoothness of the rotation process of the locking spring member 7 is improved.
  • a groove 944 is provided on the outer side surface 94 of the axially extending plate 92b of the embodiment of the present invention facing away from the positioning hole 91.
  • the contact area of the outer side surface 94 of the axially extending plate 92b having the recess 944 with the hole wall of the limiting hole on the outer casing 1 becomes small, thereby ensuring that the outer side surface 94 of the axially extending plate 92b is restricted by the limiting hole.
  • the frictional resistance between the outer side surface 94 of the axially extending plate 92b and the hole wall of the limiting hole can be reduced, which is advantageous for reducing the rotational force required to drive the locking spring member 7, and avoiding the rotation of the locking spring member 7.
  • a setback occurs during the process to improve the smoothness of the rotation process of the locking spring member 7.
  • the groove 944 is disposed on the outer side surface 94 of the axially extending plate 92b and extends along the circumferential direction of the positioning hole 91. Further, the groove 944 extends circumferentially through the entire outer side surface 94 of the axially extending plate 92b. Preferably, a plurality of grooves 944 are spaced apart from each other along the axial direction of the positioning hole 91 on the outer side surface 94 of the axially extending plate 92b, further reducing the space between the outer side surface 94 of the axially extending plate 92b and the hole wall of the limiting hole Frictional resistance.
  • the axially extending plate 92b of each mandrel mating projection 92 includes a top portion and a bottom portion.
  • the axially extending plate 92b is connected to the radially extending plate 92a by the bottom, and the top is away from the radially extending plate 92a.
  • the groove 944 is disposed on the outer side surface 94 of the axially extending plate 92b and extends from the top in the axial direction of the positioning hole 91 toward the bottom. Further, the groove 944 is provided at an intermediate position of the axially extending plate 92b in the circumferential direction of the positioning hole 91.
  • a plurality of grooves 944 are circumferentially spaced along the positioning holes 91 on the outer side surface 94 of the axially extending plate 92b to further reduce the space between the outer side surface 94 of the axially extending plate 92b and the wall of the limiting hole. Frictional resistance.
  • the two or more mandrel fitting projections 92 of the present embodiment are uniformly disposed along the circumferential direction of the positioning hole 91.
  • each of the mandrel fitting projections 92 of the mandrel fitting projections 92 uniformly arranged in the circumferential direction is more uniformly subjected to the impact load. More balanced, it is beneficial to improve the smoothness of the locking spring member 7 during the rotation process, avoid premature damage of the locking spring member 7, and prolong the service life of the locking spring member 7.
  • the mandrel connector 9 of the embodiment is an integrally formed component, thereby improving the overall strength of the locking spring member 7, improving the ability of the locking spring member 7 to withstand an impact load, and being less prone to deformation and damage, thereby extending the lock.
  • the material of the annular member 8 and the mandrel connector 9 of the present embodiment are all metallic materials such as steel or aluminum alloy.
  • the ring member 8 and the mandrel connector 9 manufactured from a metal material are stronger in strength.
  • the mandrel connector 9 integrally formed in this embodiment can be manufactured by a stamping or casting process. The above-mentioned processing process is simple and difficult, thereby simplifying the production process of the mandrel connector 9, reducing the production process, thereby improving the production efficiency of the mandrel connector 9, and reducing the labor and material costs.
  • the ring member 8 of the present embodiment is a plate member.
  • the mandrel connector 9 of the present embodiment is a plate-like member as a whole except for the mandrel fitting projection 92.
  • the locking spring member 7 of the embodiment of the invention comprises an annular member 8 and a mandrel connector 9 that are connected to each other.
  • the mandrel connector 9 has a positioning hole 91 for use in cooperation with the mandrel and a mandrel fitting projection 92, and the rotation torque is transmitted through the mandrel fitting projection 92, and the transmission process is smooth.
  • the locking spring member 7 has a simple overall structure and high self-strength, so that the bearing capacity can be improved, the degree of damage caused by the impact of the additional load can be reduced, the life of the locking spring member 7 can be prolonged, and the rotary isolation switch can be operated normally for a long time.
  • the invention also relates to a rotary isolating switch.
  • the rotary disconnector of this embodiment includes the above-described lock spring member 7.
  • the rotary isolation switch of this embodiment is labor-saving and simple. Since the locking spring member 7 has good bearing performance, the rotary isolating switch of the embodiment can maintain a long-term normal working state, and the reliability and working stability of the rotary isolating switch are improved.

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Abstract

本发明涉及一种锁紧弹簧构件及旋转隔离开关。锁紧弹簧构件包括:环形部件,具有通孔以及沿通孔的径向延伸的缺口,缺口与通孔相连通;芯轴连接件,包括相互连接的固定部和安装部,芯轴连接件通过固定部与环形部件相连接,安装部设置于通孔内,安装部包括盘体及两个以上的芯轴配合凸起,盘体上设置有定位孔,定位孔的轴线与通孔的轴线重合或平行,两个以上的芯轴配合凸起围绕定位孔、相互间隔设置且由盘体的与定位孔相邻的边缘沿定位孔的轴向延伸。本发明锁紧弹簧构件,结构简单,包括的结构件数量少,从而提高了整体的自身强度,能够提升承受载荷冲击能力,不易发生损坏。

Description

锁紧弹簧构件及旋转隔离开关
相关申请的交叉引用
本申请要求享有于2017年06月29日提交的名称为“锁紧弹簧构件及旋转隔离开关”的中国专利申请201710517786.8的优先权,该申请的全部内容通过引用并入本文中。
技术领域
本发明涉及电气设备技术领域,具体涉及一种锁紧弹簧构件及旋转隔离开关。
背景技术
旋转隔离开关用于在通电状态下阻止或允许电流流动,使得配电装置中需要停电的部分与带电部分可靠的隔离。旋转隔离开关广泛地应用于电力系统中。尤其地,在光伏系统中,每个光伏电池中产生的较小的电流被并联地结合以便给利用系统提供所需的电流或总功率,利用旋转隔离开关则可以实现单独隔离、保护和断开每个光伏电池的目的。
旋转隔离开关的控制机构内设置有锁紧弹簧构件。旋转隔离开关的控制机构工作过程中,锁紧弹簧构件需要承受冲击力。对锁紧弹簧构件的结构提出了很高的要求。现有锁紧弹簧构件的结构较为复杂,在使用较短时间后容易发生损坏,导致旋转隔离开关无法正常工作。
发明内容
本发明实施例提供一种锁紧弹簧构件,结构简单,包括的结构件数量少,从而提高了整体的自身强度,能够提升承受载荷冲击能力,不易发生损坏。
一方面,本发明实施例提出了一种用于旋转隔离开关控制机构的锁紧 弹簧构件,其包括:环形部件,具有通孔以及沿通孔的径向延伸的缺口,缺口与通孔相连通;芯轴连接件,包括相互连接的固定部和安装部,芯轴连接件通过固定部与环形部件相连接,安装部设置于通孔内,安装部包括盘体及两个以上的芯轴配合凸起,盘体上设置有定位孔,定位孔的轴线与通孔的轴线重合或平行,两个以上的芯轴配合凸起围绕定位孔、相互间隔设置且由盘体的与定位孔相邻的边缘沿定位孔的轴向延伸。
根据本发明实施例的一个方面,每个芯轴配合凸起为板状结构,芯轴配合凸起包括径向延伸板以及轴向延伸板,径向延伸板沿定位孔的径向延伸,轴向延伸板沿定位孔的轴向延伸,轴向延伸板通过径向延伸板与定位孔的孔壁相连接。
根据本发明实施例的一个方面,轴向延伸板上朝向定位孔的内侧表面的横截面轮廓线为直线,所有轴向延伸板的横截面的内侧表面轮廓线的延长线相交形成多边形。
根据本发明实施例的一个方面,轴向延伸板上背向定位孔的外侧表面的横截面轮廓线为圆弧,圆弧的圆心位于定位孔的轴线上,所有轴向延伸板的横截面的外侧表面轮廓线的延长线形成圆形。
根据本发明实施例的一个方面,轴向延伸板上背向定位孔的外侧表面包括沿周向方向依次连接的第一圆柱面、平面以及第二圆柱面,第一圆柱面与第二圆柱面同轴。
根据本发明实施例的一个方面,两个以上的芯轴配合凸起沿定位孔的周向均匀设置。
根据本发明实施例的一个方面,芯轴连接件为一体成型,环形部件与芯轴连接件的材料均为金属材料。
根据本发明实施例提供的锁紧弹簧构件,其包括相互固定连接的环形部件和芯轴连接件。芯轴连接件结构简单,自身包括的结构件数量少,从而提高了整体的自身强度,能够提升承受载荷冲击能力,不易发生损坏。
另一个方面,本发明实施例提供一种旋转隔离开关,其包括上述的锁紧弹簧构件。
附图说明
下面将参考附图来描述本发明示例性实施例的特征、优点和技术效果。
图1是本发明实施例的旋转隔离开关的部分结构的分解结构示意图。
图2是本发明一实施例的锁紧弹簧构件的正面视角结构示意图。
图3是本发明一实施例的锁紧弹簧构件的反面视角结构示意图。
图4是本发明一实施例的锁紧弹簧构件的俯视结构示意图。
图5是本发明另一实施例的锁紧弹簧构件的正面视角结构示意图。
图6是本发明又一实施例的锁紧弹簧构件的正面视角结构示意图。
在附图中,相同的部件使用相同的附图标记。附图并未按照实际的比例绘制。
具体实施方式
下面结合附图和实施例对本发明的实施方式作进一步详细描述。以下实施例的详细描述和附图用于示例性地说明本发明的原理,但不能用来限制本发明的范围,即本发明不限于所描述的实施例。
在本发明的描述中,需要说明的是,除非另有说明,术语“第一”和“第二”等仅用于描述目的,而不能理解为指示或暗示相对重要性;“多个”的含义是两个或两个以上;术语“内”、“外”、“顶部”、“底部”等指示的方位或位置关系为基于附图所示的方位或位置关系,仅是为了便于描述本发明和简化描述,而不是指示或暗示所指的装置或元件必须具有特定的方位、以特定的方位构造和操作,因此不能理解为对本发明的限制。
如图1所示,本发明实施例的旋转隔离开关包括外壳1、设置于外壳1内的芯轴(图中未示出)、与外壳1相配合的盖体2、设置于盖体2上的旋转轴3以及设置于盖体2和外壳1之间的控制机构。本实施例的控制机构包括旋转操作构件5、旋转弹簧6以及锁紧弹簧构件7。本实施例的外壳1具有圆柱形容纳孔4,芯轴的一个端部设置于容纳孔4内,且芯轴的轴线与容纳孔4的轴线重合。本发明实施例的锁紧弹簧构件7用于旋转 隔离开关的控制机构。本实施例的锁紧弹簧构件7可围绕容纳孔4的轴线转动地设置于容纳孔4内,且与芯轴相连接。转动盖体2上的旋转轴3时,旋转轴3会带动旋转操作构件5、旋转弹簧6以及锁紧弹簧构件7转动,进而锁紧弹簧构件7会带动芯轴转动。
如图2、图3所示,本实施例的锁紧弹簧构件7包括环形部件8以及芯轴连接件9。本实施例的环形部件8包括通孔81以及沿通孔81的径向延伸的缺口82,其中,缺口82与通孔81相连通。本实施例的通孔81的横截面呈圆形。本实施例的环形部件8包括形成上述缺口82的两个弯折的自由端部。两个弯折的自由端部位于环形部件8的同一侧,且沿通孔81的轴向延伸。本实施例的芯轴连接件9包括相互连接的固定部9a和安装部9b,例如通过铆接、焊接、螺钉或螺栓连接的方式实现连接。芯轴连接件9通过固定部9a与环形部件8相连接。本实施例中,如图3所示,固定部9a与环形部件8上与缺口82相对的部分相连接。本实施例的固定部9a通过两个铆钉与环形部件8铆接连接,连接方式简单、高效且牢固可靠。安装部9b设置于通孔81内。安装部9b包括盘体90及两个以上的芯轴配合凸起。盘体90上设置有定位孔91。定位孔91的轴线与通孔81的轴线重合或平行。两个以上的芯轴配合凸起92围绕定位孔91、相互间隔设置且由盘体90的与定位孔91相邻的与定位孔91相邻的边缘沿定位孔91的轴向延伸。芯轴位于外壳1容纳孔4中的端部能够插入到芯轴配合凸起92围绕形成的空间内以完成彼此的插接配合。芯轴位于外壳1容纳孔4中的端部与芯轴配合凸起92之间为过渡配合或过盈配合,能够保证两者之间连接的稳定性以及两者之间的转动同步性。
本实施例的锁紧弹簧构件7通过安装部9b与芯轴连接配合,并能够通过安装部9b将转动力矩传递到芯轴部分。本实施例的锁紧弹簧构件7结构简单,包括的结构件数量少,从而提高了整体的自身强度,能够提升承受载荷冲击能力。本实施例的锁紧弹簧构件7的安装部9b的结构简单,且与芯轴的端部的连接配合更加牢固可靠。由于安装部9b与芯轴的端部之间插接配合后不存在间隙,从而能够保证锁紧弹簧构件7与芯轴同步转动,避免锁紧弹簧构件7与芯轴之间出现转动不同步而导致锁紧弹簧 构件7受到载荷冲击的情况,进而保证锁紧弹簧构件7传动稳定性,延长锁紧弹簧构件7的使用寿命。
如图2所示,本实施例的芯轴配合凸起92为板状结构。芯轴配合凸起92包括径向延伸板92a以及轴向延伸板92b。径向延伸板92a沿定位孔91的径向延伸。轴向延伸板92b沿定位孔91的轴向延伸。轴向延伸板92b通过径向延伸板92a与定位孔91的孔壁相连接。芯轴位于外壳1容纳孔4中的端部能够插入到芯轴配合凸起92的轴向延伸板92b围绕形成的空间内以完成彼此之间的插接配合。上述芯轴配合凸起92的结构能够提高自身强度,提升承载能力,另外,这样的结构也便于芯轴连接件9的整体加工制造,例如可以通过冲压或铸造的方式大批量、一体成型加工制造具有上述结构的芯轴配合凸起92的芯轴连接件9,生产效率高。
如图2所示,本实施例的安装部9b包括的每个芯轴配合凸起92的轴向延伸板92b包括朝向定位孔91的内侧表面93以及背向定位孔91的外侧表面94。芯轴配合凸起92的轴向延伸板92b与芯轴的端部插接配合后,轴向延伸板92b的内侧表面93可以与芯轴的端部的外周表面相贴合,提升芯轴配合凸起92与芯轴连接稳定性。本实施例的外壳1还包括与容纳孔4相连通且同轴设置的限位孔(图中未示出)。本实施例的限位孔为圆柱形。芯轴配合凸起92的轴向延伸板92b能够插入限位孔内,使得轴向延伸板92b的外侧表面94与限位孔的孔壁相配合。
如图4所示,本实施例的轴向延伸板92b的横截面的内侧表面93轮廓线为直线,且所有轴向延伸板92b的横截面的内侧表面93轮廓线的延长线相交形成边数大于三的多边形。优选地,上述多边形为正多边形,例如正三角形、正方形、正五边形等。优选地,本实施例的所有轴向延伸板92b的横截面的内侧表面93轮廓线的延长线相交形成正四边形。由于芯轴的端部的横截面通常大致呈正方形,因此方便与芯轴的端部进行配合。
当锁紧弹簧构件7转动时,轴向延伸板92b会相对限位孔沿限位孔的周向转动。在一个实施例中,轴向延伸板92b的横截面的外侧表面94轮廓线为圆弧,所有轴向延伸板92b的横截面的外侧表面94轮廓线的延长线形成圆形。轴向延伸板92b的外侧表面94与限位孔的孔壁相接触配 合,从而由于轴向延伸板92b受到限位孔的限制且轴向延伸板92b的外侧表面94与限位孔的孔壁在周向方向上均形成有接触区域,因此使得轴向延伸板92b转动过程中受力均衡,降低锁紧弹簧构件7在转动过程中受到额外的冲击载荷的影响,提升了锁紧弹簧构件7转动过程的平稳性。
在一个实施例中,如图1、图4所示,轴向延伸板92b的外侧表面94包括沿周向方向依次连接的第一圆柱面941、平面942以及第二圆柱面943,第一圆柱面941与第二圆柱面943同轴且与定位孔91同轴。所有的轴向延伸板92b的第一圆柱面941以及第二圆柱面943均同轴设置,从而保证所有的第一圆柱面941以及第二圆柱面943都处于同一圆柱面上。当芯轴配合凸起92的轴向延伸板92b插入限位孔内时,轴向延伸板92b的外侧表面94的第一圆柱面941和第二圆柱面943与限位孔的孔壁接触配合,轴向延伸板92b的外侧表面94的平面942与限位孔的孔壁形成有间隙。这样,轴向延伸板92b的外侧表面94与外壳1上的限位孔的孔壁的接触面积会变小,从而在保证轴向延伸板92b的外侧表面94受到限位孔的限制作用前提下,能够降低轴向延伸板92b的外侧表面94与限位孔的孔壁之间的摩擦阻力,有利于降低驱动锁紧弹簧构件7所需的转动力,避免锁紧弹簧构件7转动过程中出现顿挫情况,提升锁紧弹簧构件7转动过程的平稳性。
本发明实施例的轴向延伸板92b上背向定位孔91的外侧表面94上设置有凹槽944。具有凹槽944的轴向延伸板92b的外侧表面94与外壳1上的限位孔的孔壁的接触面积会变小,从而在保证轴向延伸板92b的外侧表面94受到限位孔的限制作用前提下,能够降低轴向延伸板92b的外侧表面94与限位孔的孔壁之间的摩擦阻力,有利于降低驱动锁紧弹簧构件7所需的转动力,避免锁紧弹簧构件7转动过程中出现顿挫情况,提升锁紧弹簧构件7转动过程的平稳性。
在一个实施例中,如图5所示,凹槽944设置在轴向延伸板92b的外侧表面94上且沿定位孔91的周向延伸。进一步地,凹槽944周向贯穿轴向延伸板92b的整个外侧表面94。优选地,多个凹槽944沿定位孔91的轴向间隔设置在轴向延伸板92b的外侧表面94上,进一步降低轴向延伸 板92b的外侧表面94与限位孔的孔壁之间的摩擦阻力。
在另一个实施例中,如图6所示,每个芯轴配合凸起92的轴向延伸板92b包括顶部以及底部。轴向延伸板92b通过底部与径向延伸板92a相连接,顶部远离径向延伸板92a。凹槽944设置在轴向延伸板92b的外侧表面94上,且从顶部沿定位孔91的轴向朝底部延伸。进一步地,凹槽944在定位孔91的周向方向上设置于轴向延伸板92b的中间位置。优选地,多个凹槽944沿定位孔91的周向间隔设置在轴向延伸板92b的外侧表面94上,进一步降低轴向延伸板92b的外侧表面94与限位孔的孔壁之间的摩擦阻力。
本实施例的两个以上的芯轴配合凸起92沿定位孔91的周向均匀设置。这样,一方面,方便加工制造安装部9b,提高生产效率;另一方面,周向均匀设置的芯轴配合凸起92中的每个芯轴配合凸起92受力更加均匀,承受的冲击载荷更均衡,有利于提升锁紧弹簧构件7转动过程的平稳性,避免锁紧弹簧构件7过早发生损伤,延长锁紧弹簧构件7的使用寿命。
本实施例的芯轴连接件9为一体成型部件,从而提高了锁紧弹簧构件7的整体强度,提升了锁紧弹簧构件7的承受冲击载荷的能力,不易发生变形、损坏,进而延长了锁紧弹簧构件7的使用寿命,保证具有本实施例的锁紧弹簧构件7的旋转隔离开关能够长期正常工作。本实施例的环形部件8和芯轴连接件9的材料均为金属材料,例如钢或铝合金等。由金属材料加工制造的环形部件8和芯轴连接件9的强度更高。本实施例一体成型的芯轴连接件9可以通过冲压或铸造的加工工艺进行制造。上述的加工工艺简单、难度低,从而简化芯轴连接件9的生产工艺,减少了生产工序,进而提高了芯轴连接件9的生产效率,降低了人力和材料成本。
本实施例的环形部件8为板状部件。本实施例的芯轴连接件9除芯轴配合凸起92之外整体上为板状部件。
本发明实施例的锁紧弹簧构件7包括相互连接的环形部件8和芯轴连接件9。芯轴连接件9具有用于与芯轴连接配合使用的定位孔91以及芯轴配合凸起92,通过芯轴配合凸起92传递转动力矩,传动过程平稳。锁紧 弹簧构件7整体结构简单,自身强度高,从而能够提升承载能力,降低额外载荷冲击造成的损伤程度,有利于延长锁紧弹簧构件7的寿命,保证旋转隔离开关长期正常地工作。
本发明还涉及一种旋转隔离开关。本实施例的旋转隔离开关包括上述的锁紧弹簧构件7。本实施例的旋转隔离开关操作省力、简便。由于锁紧弹簧构件7具有良好的承载性能,因此本实施例的旋转隔离开关能够保持长期正常工作状态,提升了旋转隔离开关的可靠性和工作稳定性。
虽然已经参考优选实施例对本发明进行了描述,但在不脱离本发明的范围的情况下,可以对其进行各种改进并且可以用等效物替换其中的部件。尤其是,只要不存在结构冲突,各个实施例中所提到的各项技术特征均可以任意方式组合起来。本发明并不局限于文中公开的特定实施例,而是包括落入权利要求的范围内的所有技术方案。

Claims (8)

  1. 一种用于旋转隔离开关控制机构的锁紧弹簧构件,其中,包括:
    环形部件,具有通孔以及沿所述通孔的径向延伸的缺口,所述缺口与所述通孔相连通;
    芯轴连接件,包括相互连接的固定部和安装部,所述芯轴连接件通过所述固定部与所述环形部件相连接,所述安装部设置于所述通孔内,所述安装部包括盘体及两个以上的芯轴配合凸起,所述盘体上设置有定位孔,所述定位孔的轴线与所述通孔的轴线重合或平行,所述两个以上的芯轴配合凸起围绕所述定位孔、相互间隔设置且由所述盘体的与所述定位孔相邻的边缘沿所述定位孔的轴向延伸。
  2. 根据权利要求1所述的锁紧弹簧构件,其中,每个芯轴配合凸起为板状结构,所述每个芯轴配合凸起包括径向延伸板以及轴向延伸板,所述径向延伸板沿所述定位孔的径向延伸,所述轴向延伸板沿所述定位孔的轴向延伸,所述轴向延伸板通过所述径向延伸板与所述定位孔的孔壁相连接。
  3. 根据权利要求2所述的锁紧弹簧构件,其中,所述轴向延伸板上朝向所述定位孔的内侧表面的横截面轮廓线为直线,所有所述轴向延伸板的横截面的内侧表面轮廓线的延长线相交形成多边形。
  4. 根据权利要求2所述的锁紧弹簧构件,其中,所述轴向延伸板上背向所述定位孔的外侧表面的横截面轮廓线为圆弧,所述圆弧的圆心位于所述定位孔的轴线上,所有所述轴向延伸板的横截面的外侧表面轮廓线的延长线形成圆形。
  5. 根据权利要求2所述的锁紧弹簧构件,其中,所述轴向延伸板上背向所述定位孔的外侧表面包括沿周向方向依次连接的第一圆柱面、平面以及第二圆柱面,所述第一圆柱面与所述第二圆柱面同轴。
  6. 根据权利要求1所述的锁紧弹簧构件,其中,所述两个以上的芯轴配合凸起沿所述定位孔的周向均匀设置。
  7. 根据权利要求1至6任一项所述的锁紧弹簧构件,其中,所述芯 轴连接件为一体成型,所述环形部件与所述芯轴连接件的材料均为金属材料。
  8. 一种旋转隔离开关,其中,包括如权利要求1至7任一项所述的锁紧弹簧构件。
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