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CN202065377U - Electromagnetic clutch - Google Patents

Electromagnetic clutch Download PDF

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Publication number
CN202065377U
CN202065377U CN2011201601869U CN201120160186U CN202065377U CN 202065377 U CN202065377 U CN 202065377U CN 2011201601869 U CN2011201601869 U CN 2011201601869U CN 201120160186 U CN201120160186 U CN 201120160186U CN 202065377 U CN202065377 U CN 202065377U
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CN
China
Prior art keywords
armature
coil
iron yoke
electromagnetic clutch
magnetic
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Expired - Fee Related
Application number
CN2011201601869U
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Chinese (zh)
Inventor
金跃庆
王明政
张东辉
杨孔雳
孙刚
靳峰雷
王雪娥
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China Institute of Atomic of Energy
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China Institute of Atomic of Energy
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Priority to CN2011201601869U priority Critical patent/CN202065377U/en
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Publication of CN202065377U publication Critical patent/CN202065377U/en
Anticipated expiration legal-status Critical
Expired - Fee Related legal-status Critical Current

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Abstract

The utility model discloses an electromagnetic clutch, which includes an iron yoke, a coil, and an armature. The device adopts a sleeve type structure, the armature is divided into sleeve type outer and inner armatures, corresponding notches are arranged on the inner wall of the outer armature and the outer wall of the inner armature, and the coil is embedded into the iron yoke. The utility model provides the electromagnetic clutch, which has a simple structure, can transmit bidirectional torque, has short release time, and is suitable for reactor requirements.

Description

一种电磁离合器an electromagnetic clutch

技术领域 technical field

本实用新型涉及反应堆工程技术领域,特别涉及一种适合反应堆工况的电磁离合器。The utility model relates to the technical field of reactor engineering, in particular to an electromagnetic clutch suitable for reactor working conditions.

背景技术 Background technique

电磁离合器在工业中应用十分广泛,有牙嵌式、干式单盘、扭簧式、磁粉式离合器。另外靠磁力工作的还有拍合式、螺管式、E型电磁铁和盘式电磁铁等,这些形式的电磁铁结构一般都是一个铁轭、一个线圈和一个衔铁等组成,线圈设置在铁轭中,通过给线圈通电可使得衔铁执行吸合动作,其动作原理比较简单。常用的电磁离合器线圈不密封在铁轭内,衔铁上也没有槽口,且线圈采用常规的布置方式。另外常用的电磁离合器接合件的接合方式靠刚性、磁力与机械力联合、或者摩擦方式,离合器脱开时间较长。例如,现有的扭簧式电磁离合器主要由主动盘、扭紧弹簧、轴套、衔铁、线圈、铁轭等组成,其工作原理是给线圈通电后轴套和衔铁相连,主动盘在转动过程中扭紧弹簧并带动衔铁转动,衔铁进一步带动轴套转动,断电后衔铁和轴套分离,轴套停止转动。该结构的离合器只能传递单向转矩,适用于低速、低惯量的小型机械中,且传递的转矩较小。Electromagnetic clutches are widely used in industry, including jaw clutches, dry single discs, torsion spring clutches, and magnetic powder clutches. In addition, there are snap-fit, solenoid, E-type electromagnets and disc electromagnets that work by magnetic force. The electromagnet structures of these forms are generally composed of an iron yoke, a coil and an armature. In the yoke, the armature can be pulled in by energizing the coil, and its action principle is relatively simple. Commonly used electromagnetic clutch coils are not sealed in the iron yoke, and there is no notch on the armature, and the coils are arranged in a conventional way. In addition, the engagement mode of the commonly used electromagnetic clutch engaging parts depends on rigidity, combination of magnetic force and mechanical force, or friction mode, and the clutch disengagement takes a long time. For example, the existing torsion spring electromagnetic clutch is mainly composed of a driving disc, a torsion spring, a bushing, an armature, a coil, and an iron yoke. The middle tightens the spring and drives the armature to rotate, and the armature further drives the shaft sleeve to rotate. After the power is cut off, the armature and the shaft sleeve are separated, and the shaft sleeve stops rotating. The clutch of this structure can only transmit one-way torque, which is suitable for small machines with low speed and low inertia, and the transmitted torque is relatively small.

目前,现有的电磁离合器无法满足反应堆的需要,因此急需研制一种适合反应堆内部环境需要的电磁离合器。At present, the existing electromagnetic clutch cannot meet the needs of the reactor, so it is urgent to develop an electromagnetic clutch suitable for the internal environment of the reactor.

发明内容 Contents of the invention

本实用新型克服了现有技术中的不足,提供了一种结构简单、能够传递双向转矩、脱开时间短的适合反应堆需要的电磁离合器。The utility model overcomes the deficiencies in the prior art and provides an electromagnetic clutch which is simple in structure, capable of transmitting two-way torque and short in disengagement time and is suitable for reactor needs.

为了解决上述技术问题,本实用新型是通过以下技术方案实现的:In order to solve the above technical problems, the utility model is achieved through the following technical solutions:

一种电磁离合器,包括铁轭、线圈、衔铁,关键在于,该装置为套筒式结构,衔铁分为套筒式的外衔铁和内衔铁,外衔铁的内壁和内衔铁的外壁设置有相对应的槽口,线圈内嵌在铁轭内。An electromagnetic clutch, including an iron yoke, a coil, and an armature. The key point is that the device is a sleeve-type structure, and the armature is divided into a sleeve-type outer armature and an inner armature. The inner wall of the outer armature and the outer wall of the inner armature are provided with corresponding The notch, the coil is embedded in the iron yoke.

所述线圈内嵌在铁轭内是指铁轭内开有环形槽,线圈缠绕在环形槽内。外衔铁由两种材料组成,在轴线方向上正对线圈的部分为非导磁材料,其余部分为导磁材料。The coil being embedded in the iron yoke means that the iron yoke is provided with an annular groove, and the coil is wound in the annular groove. The outer armature is composed of two materials, the part facing the coil in the axial direction is a non-magnetic material, and the rest is a magnetic material.

与现有技术相比,本实用新型的有益效果是:Compared with the prior art, the beneficial effects of the utility model are:

(1)本装置采用套筒式的内、外衔铁,装置结构简单,而且可将内、外衔铁分别作为主动轴和从动轴,当线圈通电时在驱动电机的驱动下使得主动轴和从动轴一起进行旋转,当停止给线圈通电时,主动轴和从动轴可以分别独自旋转。(1) The device adopts sleeve-type inner and outer armatures. The device structure is simple, and the inner and outer armatures can be used as the driving shaft and the driven shaft respectively. When the coil is energized, the driving shaft and the driven shaft are driven by the driving motor. The drive shafts rotate together, and when the power to the coil is stopped, the drive shaft and the driven shaft can each rotate independently.

(2)线圈密封在铁轭的环形槽内,避免了腐蚀气体对线圈的影响,很好的确保了电磁离合器的工作性能。(2) The coil is sealed in the annular groove of the iron yoke, which avoids the influence of corrosive gas on the coil and ensures the working performance of the electromagnetic clutch well.

(3)在内、外衔铁上设置有相应的槽口,磁力线大部分是沿着内、外套筒衔铁的磁极(槽口与槽口之间的部分)形成磁路,从而使得内、外套筒衔铁之间产生周向力。内、外衔铁完全靠磁力结合,能够传递双向转矩,传递的转矩较大,且离合器的脱开时间短。(3) There are corresponding notches on the inner and outer armatures, and most of the magnetic force lines form a magnetic circuit along the magnetic poles (the part between the notches and the notches) of the inner and outer sleeve armatures, so that the inner and outer A circumferential force is generated between the sleeve armatures. The inner and outer armatures are completely combined by magnetic force, which can transmit two-way torque, the transmitted torque is relatively large, and the disengagement time of the clutch is short.

附图说明 Description of drawings

图1离合器的剖面图Figure 1 Sectional view of the clutch

图2离合器横断面剖视图Figure 2 Cross-sectional view of the clutch

1铁轭、2线圈、3外衔铁、4内衔铁、5环形槽1 iron yoke, 2 coils, 3 outer armature, 4 inner armature, 5 annular groove

具体实施方式 Detailed ways

下面结合附图与具体实施方式对本实用新型作进一步详细描述:Below in conjunction with accompanying drawing and specific embodiment the utility model is described in further detail:

一种电磁离合器,如图1所示,电磁离合器呈套筒式结构,它主要由铁轭1、线圈2、外衔铁3、内衔铁4组成,其中铁轭1上开有环形槽5,环形槽5内嵌入线圈2。线圈2密封在铁轭1内,避免了腐蚀气体对线圈2的影响,可确保电磁离合器的工作性能。铁轭1、外衔铁3和内衔铁4分别为套筒式结构,外衔铁3和内衔铁4安装在铁轭1内,铁轭1、外衔铁3、内衔铁4之间留有间隙。外衔铁3由两种材料组成,在轴线方向上正对线圈2的部分为非导磁材料,其余部分为导磁材料。如图2所示,外衔铁3的内壁上设置有一定数量的槽口,在内衔铁4的外壁上也设置与之相对应的一定数量的槽口。而磁路总是沿着磁阻最小的路径形成回路,因此磁力线大部分是沿着内、外衔铁4、3的磁极(槽口与槽口之间的部分)而形成磁路,从而使得内、外衔铁4、3之间产生周向力。内衔铁4和外衔铁3为接合件,其接合方式完全靠磁力结合,这样使离合器的脱开时间短。An electromagnetic clutch, as shown in Figure 1, the electromagnetic clutch is a sleeve-type structure, which is mainly composed of an iron yoke 1, a coil 2, an outer armature 3, and an inner armature 4, wherein an annular groove 5 is opened on the iron yoke 1, and the annular The coil 2 is embedded in the slot 5 . The coil 2 is sealed in the iron yoke 1, avoiding the influence of corrosive gas on the coil 2, and ensuring the working performance of the electromagnetic clutch. The iron yoke 1, the outer armature 3 and the inner armature 4 are sleeve-type structures respectively, the outer armature 3 and the inner armature 4 are installed in the iron yoke 1, and there is a gap between the iron yoke 1, the outer armature 3 and the inner armature 4. The outer armature 3 is composed of two materials, the part facing the coil 2 in the axial direction is a non-magnetic material, and the rest is a magnetic material. As shown in FIG. 2 , a certain number of notches are provided on the inner wall of the outer armature 3 , and a certain number of corresponding notches are also provided on the outer wall of the inner armature 4 . And the magnetic circuit always forms a loop along the path with the least reluctance, so most of the lines of force form a magnetic circuit along the magnetic poles (the part between the notch and the notch) of the inner and outer armatures 4, 3, so that the inner , A circumferential force is generated between the outer armatures 4 and 3. The inner armature 4 and the outer armature 3 are engaging parts, and the engaging mode is completely combined by magnetic force, so that the disengagement time of the clutch is short.

线圈2在环形槽5内的缠绕方向为内衔铁4、外衔铁3的圆周方向,由磁力线经过铁轭1、外衔铁3、内衔铁4沿线圈2的轴线方向上形成磁回路,从而使得内衔铁4、外衔铁3之间产生吸力。The winding direction of the coil 2 in the annular groove 5 is the circumferential direction of the inner armature 4 and the outer armature 3, and the magnetic force line passes through the iron yoke 1, the outer armature 3, and the inner armature 4 to form a magnetic circuit along the axial direction of the coil 2, so that the inner Suction force is generated between the armature 4 and the outer armature 3 .

本装置与反应堆控制棒驱动机构相连,外衔铁3与电机驱动部件连接,作为驱动部件的输出端,内衔铁4与执行部件连接,作为执行部件的输入端。The device is connected with the reactor control rod drive mechanism, the outer armature 3 is connected with the motor drive part as the output end of the drive part, and the inner armature 4 is connected with the execution part as the input end of the execution part.

当给线圈2通电流时,将在铁轭1、外衔铁3、内衔铁4之间形成磁路,因磁路总会沿着磁阻最小的方向形成回路,即会使得内、外衔铁4、3向着磁极与磁极重合的方向运动,使得内衔铁4、外衔铁3吸合在一起,能够将控制棒的驱动部件和执行部件的传动链连接起来,在电机驱动力的作用下使控制棒上下移动。When current is applied to the coil 2, a magnetic circuit will be formed between the iron yoke 1, the outer armature 3, and the inner armature 4, because the magnetic circuit will always form a loop along the direction of the smallest reluctance, which will make the inner and outer armatures 4 , 3 move toward the direction where the magnetic poles coincide with the magnetic poles, so that the inner armature 4 and the outer armature 3 are attracted together, which can connect the driving part of the control rod with the transmission chain of the executive part, and make the control rod under the action of the driving force of the motor Moving up and down.

当停止给线圈2通电流时,内衔铁4、外衔铁3之间的磁场将消失,使内衔铁4、外衔铁3之间吸合力消失,造成内衔铁4和外衔铁3所在的传动链断开,从而使得驱动部件和执行部件的传动链断开,从而实现了内衔铁4、外衔铁3所在的传动链可以单独进行动作。内衔铁4所在的传动链单独旋转后,控制棒驱动机构完成快速落棒功能。When the current to the coil 2 is stopped, the magnetic field between the inner armature 4 and the outer armature 3 will disappear, so that the attraction force between the inner armature 4 and the outer armature 3 will disappear, causing the transmission chain where the inner armature 4 and the outer armature 3 are located to break Open, so that the transmission chain of the driving part and the execution part is disconnected, so that the transmission chain where the inner armature 4 and the outer armature 3 are located can operate independently. After the drive chain where the inner armature 4 is located rotates independently, the control rod drive mechanism completes the rapid rod drop function.

Claims (3)

1. a magnetic clutch comprises iron yoke, coil, armature, it is characterized in that, this device is telescoping structure, armature is divided into telescopic outer armature and interior armature, and the inwall of outer armature and the outer wall of interior armature are provided with corresponding notch, and coil is embedded in the iron yoke.
2. a kind of magnetic clutch according to claim 1 is characterized in that, it is to have circular groove in the iron yoke that described coil is embedded in the iron yoke, and coil is wrapped in the circular groove.
3. a kind of magnetic clutch according to claim 1 is characterized in that, outer armature is made up of two kinds of materials, and the part over against coil on axial direction is a non-magnet material, and remaining part is a permeability magnetic material.
CN2011201601869U 2011-05-19 2011-05-19 Electromagnetic clutch Expired - Fee Related CN202065377U (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN2011201601869U CN202065377U (en) 2011-05-19 2011-05-19 Electromagnetic clutch

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN2011201601869U CN202065377U (en) 2011-05-19 2011-05-19 Electromagnetic clutch

Publications (1)

Publication Number Publication Date
CN202065377U true CN202065377U (en) 2011-12-07

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CN2011201601869U Expired - Fee Related CN202065377U (en) 2011-05-19 2011-05-19 Electromagnetic clutch

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Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN102192252A (en) * 2011-05-19 2011-09-21 中国原子能科学研究院 Electromagnetic clutch
CN104539097A (en) * 2014-12-26 2015-04-22 中国原子能科学研究院 Sealed dual-redundancy roller way drive devices
CN111946759A (en) * 2020-08-07 2020-11-17 倪荷春 Brake mechanism of cableway slider

Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN102192252A (en) * 2011-05-19 2011-09-21 中国原子能科学研究院 Electromagnetic clutch
CN102192252B (en) * 2011-05-19 2013-04-17 中国原子能科学研究院 Electromagnetic clutch
CN104539097A (en) * 2014-12-26 2015-04-22 中国原子能科学研究院 Sealed dual-redundancy roller way drive devices
CN111946759A (en) * 2020-08-07 2020-11-17 倪荷春 Brake mechanism of cableway slider
CN111946759B (en) * 2020-08-07 2022-08-23 倪荷春 Brake mechanism of cableway slider

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C14 Grant of patent or utility model
GR01 Patent grant
C17 Cessation of patent right
CF01 Termination of patent right due to non-payment of annual fee

Granted publication date: 20111207

Termination date: 20140519