WO2020232695A1 - 一种基于电涡流耗能技术的输电线路减振装置 - Google Patents

一种基于电涡流耗能技术的输电线路减振装置 Download PDF

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Publication number
WO2020232695A1
WO2020232695A1 PCT/CN2019/088124 CN2019088124W WO2020232695A1 WO 2020232695 A1 WO2020232695 A1 WO 2020232695A1 CN 2019088124 W CN2019088124 W CN 2019088124W WO 2020232695 A1 WO2020232695 A1 WO 2020232695A1
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Prior art keywords
gear
transmission line
slider
connecting rod
eddy current
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PCT/CN2019/088124
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English (en)
French (fr)
Inventor
付兴
李宏男
杜文龙
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大连理工大学
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Application filed by 大连理工大学 filed Critical 大连理工大学
Priority to US16/762,065 priority Critical patent/US20210057898A1/en
Priority to PCT/CN2019/088124 priority patent/WO2020232695A1/zh
Publication of WO2020232695A1 publication Critical patent/WO2020232695A1/zh

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    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F16—ENGINEERING ELEMENTS AND UNITS; GENERAL MEASURES FOR PRODUCING AND MAINTAINING EFFECTIVE FUNCTIONING OF MACHINES OR INSTALLATIONS; THERMAL INSULATION IN GENERAL
    • F16F—SPRINGS; SHOCK-ABSORBERS; MEANS FOR DAMPING VIBRATION
    • F16F15/00—Suppression of vibrations in systems; Means or arrangements for avoiding or reducing out-of-balance forces, e.g. due to motion
    • F16F15/02—Suppression of vibrations of non-rotating, e.g. reciprocating systems; Suppression of vibrations of rotating systems by use of members not moving with the rotating systems
    • F16F15/03—Suppression of vibrations of non-rotating, e.g. reciprocating systems; Suppression of vibrations of rotating systems by use of members not moving with the rotating systems using magnetic or electromagnetic means
    • F16F15/035—Suppression of vibrations of non-rotating, e.g. reciprocating systems; Suppression of vibrations of rotating systems by use of members not moving with the rotating systems using magnetic or electromagnetic means by use of eddy or induced-current damping
    • H—ELECTRICITY
    • H02—GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02G—INSTALLATION OF ELECTRIC CABLES OR LINES, OR OF COMBINED OPTICAL AND ELECTRIC CABLES OR LINES
    • H02G7/00—Overhead installations of electric lines or cables
    • H02G7/14—Arrangements or devices for damping mechanical oscillations of lines, e.g. for reducing production of sound

Definitions

  • the invention relates to the technical field of power equipment and transmission line vibration reduction, in particular to a transmission line vibration reduction device based on eddy current energy consumption technology.
  • the purpose of the present invention is to provide a transmission line vibration reduction device based on eddy current energy consumption technology.
  • a transmission line vibration damping device based on eddy current energy dissipation technology including insulator string 1, slider 2, guide rod 3, wire spring 4, gear a5, connecting rod a6, gear b7, gear c8, connecting rod b9, and copper Sheet 10, permanent magnet 11, steel plate 12, bolt 13, cover plate 14, hollow body 15, ball 16 and sliding hole 17;
  • the hollow body 15 and the cover plate 14 constitute the shell of the entire vibration damping device, which are connected by bolts 13; the entire vibration damping device is composed of two energy consuming units and arranged symmetrically; the two energy consuming units share the insulator string 1 and Slider 2, symmetrical;
  • the insulator string 1 passes through the sliding hole 17 at the bottom center of the hollow body 15, the upper end of which is connected with the slider 2, and the lower end is connected with a wire;
  • the sliding hole 17 is opened at the bottom of the hollow body 15 along the moving direction of the slider 2, and its size is equal to the stroke of the slider 2;
  • the slider 2 is sleeved on the guide rod 3, the side of the slider 2 has teeth, the slider 2 is not in direct contact with the device casing, and the ball 16 is used for friction reduction treatment;
  • the two ends of the guide rod 3 are fixed on the shell, which guides the displacement of the slider 2, and a wire spring 4 is sleeved on it; one end of the wire spring 4 is connected to the shell, and the other end is connected to the slider 2 ;
  • the gear a5 meshes with the teeth on the side of the slider 2, and the gear b7 meshes with the gear c8; the gear a5 and the gear b7 are rigidly connected to the connecting rod a6, and the gear c8 and the connecting rod b9 are rigidly connected ;
  • the steel plate 12 and the shell form a closed cavity.
  • the permanent magnet 11 and the copper sheet 10 are placed in the closed cavity.
  • the two permanent magnets 11 are respectively fixed on the top and bottom of the closed cavity.
  • the copper sheet 10 is located in the two permanent magnets 11 between;
  • the connecting rod b9 passes through the closed cavity, and passes through the permanent magnet 11, the copper sheet 10 and the permanent magnet 11 in sequence. Both ends of the connecting rod b9 are not in direct contact with the housing, and the ball 16 is used for friction reduction treatment; the copper sheet 10 and the connecting rod b9 are rigidly connected.
  • the radius of the gear b7 is larger than the radius of the gear c8.
  • the ball 16 is a spherical steel ball.
  • the slider 2, the guide rod 3, the wire spring 4, the gear a5, the connecting rod a6, the gear b7, the gear c8, the connecting rod b9, the steel sheet 12, the bolt 13, the cover plate 14, the hollow body 15, and the ball 16 are all composed of Made of magnetic material.
  • the working principle of the present invention when the transmission wire vibrates in the direction perpendicular to the transmission line, the insulator string will drive the slider to move, thereby driving the gear a, the gear b, the gear c, and the copper sheet to rotate.
  • the copper sheet receives a force that inhibits its movement. This is because the relative movement of the copper sheet and the magnetic field causes the copper sheet to generate a dynamic electromotive force, and the movement of the electric charge forms an eddy current.
  • These eddy currents are subjected to Lorentz force under the action of a magnetic field, and the direction is always opposite to the direction of movement of the copper sheet, thus forming resistance, that is, the eddy current damping force.
  • a transmission line vibration damping device based on eddy current energy dissipation technology of the present invention can effectively reduce the vibration perpendicular to the direction of the transmission line, that is, the vibration of the most unfavorable load direction of the transmission tower structure under normal circumstances, which can effectively improve The carrying capacity of the line tower;
  • a transmission line vibration damping device based on eddy current energy consumption technology of the present invention uses eddy current technology to consume energy and greatly improves energy consumption efficiency by adjusting gear radius ratios, which can effectively reduce transmission lines Vibration
  • a transmission line vibration damping device based on eddy current energy dissipation technology of the present invention can realize the adjustment of damping parameters by adjusting the magnetic field strength of the permanent magnet and the distance between the copper sheet and the permanent magnet;
  • a transmission line vibration damping device based on eddy current energy consumption technology of the present invention adopts permanent magnets to provide a continuous magnetic field source without external energy sources and can produce long-term stable vibration damping effects;
  • a transmission line vibration damping device based on eddy current energy dissipation technology of the present invention adopts magnetic conductive materials, which can effectively avoid magnetic leakage of the magnetic circuit, which not only improves the efficiency of eddy current damping, but also avoids impact on the surrounding The influence of various components;
  • the transmission line vibration damping device based on eddy current energy consumption technology of the present invention has reasonable design, simple structure, and easy installation and maintenance.
  • FIG. 1 is an A-A cross-sectional view of a transmission line vibration damping device based on eddy current energy consumption technology according to an embodiment of the present invention
  • FIG. 2 is a B-B cross-sectional view of a transmission line vibration reduction device based on eddy current energy consumption technology according to an embodiment of the present invention
  • FIG. 3 is a schematic diagram of the position of a transmission line vibration reduction device based on eddy current energy consumption technology according to an embodiment of the present invention
  • an embodiment of an eddy current energy dissipation technology-based transmission line vibration damping device provided by an embodiment of the present invention includes an insulator string 1, a slider 2, a guide rod 3, a wire spring 4. Gear a 5, connecting rod a 6, gear b 7, gear c 8, connecting rod b 9, copper sheet 10, permanent magnet 11, steel plate 12, bolt 13, cover plate 14, hollow body 15, ball 16, sliding hole 17 .
  • the wire is hung on the insulator string 1, and the insulator string 1 is connected to the slider 2.
  • the insulator string 1 and the slider 2 are driven to move along the guide rod 3, and the slider after the vibration 2 is reset under the action of the line spring 4;
  • the teeth on the side of the slider 2 engage with the gear a5, the movement of the slider 2 drives the rotation of the gear a5, and the gear b7 is just connected with the connecting rod a6, the gear a5 and the gear b7 rotate synchronously;
  • Gear b7 meshes with gear c8, and the rotation of gear b7 drives the rotation of gear c8;
  • the copper sheet 10 is just connected to the connecting rod b9, the copper sheet 10 and the gear c8 rotate synchronously;
  • the copper sheet 10 is between the magnetic fields generated by the two permanent magnets 11 Rotation produces eddy currents, and the radius of gear b7 is larger than gear c8, which can enlarge the rotation angle of copper sheet 10, thereby generating
  • the transmission line vibration reduction device based on eddy current energy consumption technology of the present invention can effectively reduce the vibration perpendicular to the direction of the transmission line, that is, the vibration of the most unfavorable load direction of the transmission tower structure under normal circumstances, and can effectively improve the transmission line tower Carrying capacity; eddy current technology is used for energy consumption, and the energy consumption efficiency is greatly improved by adjusting the gear radius ratio, which can effectively reduce the vibration of the transmission line; by adjusting the magnetic field strength of the permanent magnet 11 and the copper sheet 10 and the permanent magnet The distance between 11 and 11 can realize the adjustment of damping parameters; the present invention uses permanent magnets 11 to provide a continuous magnetic field source, without external energy, and can produce long-term stable vibration reduction effects; the present invention uses magnetic materials, which can effectively avoid magnetic circuits.
  • the magnetic flux leakage not only improves the efficiency of eddy current damping, but also avoids the influence on various surrounding components; the invention has reasonable design, simple structure and easy installation and maintenance. Because the transmission line is under wind load almost at any time, and earthquakes are rare, the application of the eddy current energy dissipation spacer in the wind resistance of the transmission line is more important.
  • the present invention can only reduce the vibration perpendicular to the direction of the transmission line, and has no vibration reduction effect along the direction of the transmission line.
  • the most unfavorable load direction of the transmission tower structure is perpendicular to the direction of the transmission line.
  • the direction of the transmission line, controlling the vibration in this direction can effectively improve the carrying capacity of the line tower;
  • the stiffness of the line spring 4 needs to be calculated according to the upper limit wind speed set artificially, and the wind load at this wind speed is N, and the slider 17 is the largest If the stroke is L and the number of springs is m, the lower limit of stiffness k min is equal to N/mL.
  • the slider will easily collide with the shell, which is not conducive to durability. If the stiffness is too large, the movement stroke will be too small and energy consumption efficiency. Low; third, the radius Rb of the gear b7 is greater than the radius Ra of the gear a5, so that the corner of the copper sheet 10 can be enlarged, and the magnification is equal to Rb/Ra; fourth, apply lubrication on the gear, the ball 16 and the guide rod 3. Oil, reduce rotational friction.

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  • Engineering & Computer Science (AREA)
  • Physics & Mathematics (AREA)
  • General Engineering & Computer Science (AREA)
  • Electromagnetism (AREA)
  • Acoustics & Sound (AREA)
  • Aviation & Aerospace Engineering (AREA)
  • Mechanical Engineering (AREA)
  • Vibration Prevention Devices (AREA)

Abstract

一种基于电涡流耗能技术的输电线路减振装置，包括绝缘子串（1）、滑块（2）、导杆（3）、线弹簧（4）、齿轮a（5）、连接杆a（6）、齿轮b（7）、齿轮c（8）、连接杆b（9）、铜片（10）、永磁体（11）、钢板（12）、螺栓（13）、盖板（14）、空心体（15）、滚珠（16）和滑孔（17），空心体（15）和盖板（14）构成整个减振装置的外壳，二者通过螺栓（13）连接，整个减振装置由两个耗能单元组成，对称布置。该减振装置可有效减小垂直于输电线路方向的振动，即通常情况下输电塔结构最不利荷载方向的振动，可有效提高线路铁塔的承载能力；采用电涡流技术进行耗能，并通过调整齿轮半径比的办法大大提高了耗能效率，可以有效减小输电线路的振动。

Description

一种基于电涡流耗能技术的输电线路减振装置 技术领域
本发明涉及电力设备、输电线路减振技术领域，具体涉及一种基于电涡流耗能技术的输电线路减振装置。
 背景技术
随着国际上不少国家和地区对用电需求的逐步增加，输电线路的档距、导线的分裂数等均呈增加趋势，这也导了输电线路的风振危害日趋严重。输电线路在风荷载作用下的振动不可忽视，严重时可能造成断线、疲劳断股等危害，极大地威胁着输电线路的安全运行。为了减少导线振动给输电线路带来的危害，必须采取有效措施对其进行抑制。目前，通常的做法主要是通过安装阻尼间隔棒、失谐摆、阻尼间隔棒等装置来实现其抑制导线振动的目的，但减振效果比较有限。因此，研发一种设计合理、减振效果明显的减振装置，将有利于输电线路的安全运行，减少维护成本。
 技术问题
本发明的目的是提供了一种基于电涡流耗能技术的输电线路减振装置。
 技术解决方案
一种基于电涡流耗能技术的输电线路减振装置，包括绝缘子串1、滑块2、导杆3、线弹簧4、齿轮a5、连接杆a6、齿轮b7、齿轮c8、连接杆b9、铜片10、永磁体11、钢板12、螺栓13、盖板14、空心体15、滚珠16和滑孔17；
所述的空心体15和盖板14构成整个减振装置的外壳，二者通过螺栓13连接；整个减振装置由两个耗能单元组成，对称布置；两个耗能单元共用绝缘子串1和滑块2，左右对称；
所述的绝缘子串1过空心体15底部中心的滑孔17，其上端与滑块2相连，下端连接导线；
所述的滑孔17沿着滑块2运动的方向开在空心体15底部，其尺寸等于滑块2的行程；
所述的滑块2套在导杆3上，滑块2侧面有齿，滑块2不与装置外壳直接接触，采用滚珠16进行降摩擦处理；
所述的导杆3两端固定在外壳上，其对滑块2的位移进行导向，其上套有线弹簧4；所述的线弹簧4一端连在外壳上，另一端连在滑块2上；
所述的齿轮a5与滑块2侧面的齿咬合，齿轮b7与齿轮c8咬合；所述的齿轮a5、齿轮b7均与连接杆a6为刚性连接，所述的齿轮c8与连接杆b9为刚性连接；
所述的钢板12与外壳形成一个密闭空腔，永磁体11和铜片10置于密闭空腔内，两永磁体11分别固定在密闭空腔的顶部和底部，铜片10位于两永磁体11之间；
所述的连接杆b9穿过密闭空腔，并依次穿过永磁体11、铜片10和永磁体11，其两端不与外壳直接接触，采用滚珠16进行降摩擦处理；所述的铜片10与连接杆b9为刚性连接。
所述齿轮b7的半径大于齿轮c8的半径。
所述的滚珠16为球形钢珠。
所述滑块2、导杆3、线弹簧4、齿轮a5、连接杆a6、齿轮b7、齿轮c8、连接杆b9、钢片12、螺栓13、盖板14、空心体15、滚珠16均由导磁材料制成。
本发明的工作原理：当输电导线垂直输电线路方向发生振动时，绝缘子串会带动滑块运动，进而带动齿轮a、齿轮b、齿轮c、铜片转动。由楞次定律可知，铜片会受到一个抑制其运动的力。这是由于铜片与磁场的相对运动使得铜片中产生了动生电动势，电荷移动形成了电涡流。这些电涡流在磁场的作用下受到洛伦兹力，且方向总是与铜片的运动方向相反，从而形成了阻力，即电涡流阻尼力。与此同时，由于电流的热效应，一部分振能量将被转化为热能，从而起到减小振动的作用。特别地，假定滑块滑过的距离为d，齿轮a的半径为R a，齿轮b的半径为R b，齿轮c的半径为R c，R b＞R c，则可以将铜片的转动角度进行放大，转动的角度为(d/R a)×(R b/R c)，放大倍数为R b/R c，即齿轮b与齿轮c的半径比越大，齿轮a的半径越小，耗能效率越高。
有益效果
（1）本发明的一种基于电涡流耗能技术的输电线路减振装置，可有效减小垂直于输电线路方向的振动，即通常情况下输电塔结构最不利荷载方向的振动，可有效提高线路铁塔的承载能力；
（2）本发明的一种基于电涡流耗能技术的输电线路减振装置，采用电涡流技术进行耗能，并通过调整齿轮半径比的办法大大提高了耗能效率，可以有效减小输电线路的振动；
（3）本发明的一种基于电涡流耗能技术的输电线路减振装置，通过调整永磁体的磁场强度以及铜片和永磁体的间距，可以实现阻尼参数的调节；
（4）本发明的一种基于电涡流耗能技术的输电线路减振装置，采用永磁体提供连续不断的磁场源，无需外界能源，能产生长期稳定的减振效果；
（5）本发明的一种基于电涡流耗能技术的输电线路减振装置，采用了导磁材料，可以有效避免磁路的漏磁，不仅提高了电涡流阻尼的效率，而且避免了对周围各种元器件的影响；
（6）本发明的一种基于电涡流耗能技术的输电线路减振装置，设计合理、构造简单、便于安装维护。
 附图说明
图1为本发明实施例提供的一种基于电涡流耗能技术的输电线路减振装置的A-A剖面图；
图2为本发明实施例提供的一种基于电涡流耗能技术的输电线路减振装置的B-B剖面图；
图3为本发明实施例提供的一种基于电涡流耗能技术的输电线路减振装置的位置示意图；
图中：1绝缘子串；2滑块；3导杆；4线弹簧；5齿轮a；6连接杆a；7齿轮b；8齿轮c；9连接杆b；10铜片；11永磁体；12钢板；13螺栓；14盖板；15空心体；16滚珠；17滑孔。
 本发明的实施方式
为使得本发明的发明目的、特征、优点能够更加的明显和易懂，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，下面所描述的实施例仅仅是本发明一部分实施例，而非全部的实施例。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它实施例，都属于本发明保护的范围。
请参阅图1至图3，本发明实施例提供的一种基于电涡流耗能技术的输电线路减振装置的一个实施例，包括绝缘子串1、滑块2、导杆3、线弹簧4、齿轮a 5、连接杆a 6、齿轮b 7、齿轮c 8、连接杆b 9、铜片10、永磁体11、钢板12、螺栓13、盖板14、空心体15、滚珠16、滑孔17。
导线悬挂在绝缘子串1上，绝缘子串1与滑块2相连；当导线在风在作用下发生振动时，带动绝缘子串1、滑块2沿着导杆3的方向发生位移，振动过后滑块2又在线弹簧4的作用下复位；滑块2侧面的齿与齿轮a5咬合，滑块2的运动带动齿轮a5的转动，齿轮b7与连接杆a6刚接，则齿轮a5和齿轮b7同步转动；齿轮b7与齿轮c8咬合，齿轮b7转动带动齿轮c8的转动；铜片10与连接杆b9刚接，则铜片10与齿轮c8同步转动；铜片10在两个永磁体11产生的磁场之间转动，产生电涡流，且齿轮b7的半径大于齿轮c8，可以放大铜片10的转动角度，从而产生更大强度的电涡流，提高阻尼效率；钢板12包裹在永磁体11周围，与装置外壳形成一个封闭空腔，可以保证导磁作用，提高电涡流产生效率；连接杆、滑块2与外壳接触的部位装有滚珠16，可以减小摩擦；空心体15和盖板14构成整个装置的外壳，二者通过螺栓13进行连接，便于拆装。
本发明的一种基于电涡流耗能技术的输电线路减振装置，可有效减小垂直于输电线路方向的振动，即通常情况下输电塔结构最不利荷载方向的振动，可有效提高线路铁塔的承载能力；采用电涡流技术进行耗能，并通过调整齿轮半径比的办法大大提高了耗能效率，可以有效减小输电线路的振动；通过调整永磁体11的磁场强度以及铜片10和永磁体11的间距，可以实现阻尼参数的调节；本发明采用永磁体11提供连续不断的磁场源，无需外界能源，能产生长期稳定的减振效果；本发明采用了导磁材料，可以有效避免磁路的漏磁，不仅提高了电涡流阻尼的效率，而且避免了对周围各种元器件的影响；本发明设计合理、构造简单、便于安装维护。因输电线路上几乎随时都在承受风荷载，而地震罕见发生，所以该电涡流耗能间隔棒在输电线路抗风问题上的应用更重要。
设计本发明时需要注意：第一，本发明仅能减小垂直于输电线路方向的振动，对沿输电线路方向无减振效果，但通常情况下输电塔结构最不利荷载的方向即为垂直于输电线路的方向，控制此方向振动可有效提高线路铁塔的承载能力；第二，线弹簧4刚度需根据人为设定的上限风速进行计算，设此风速下的风荷载为N，滑块17最大行程为L，弹簧数量为m，则刚度下限k min等于N/mL，刚度小于下限值则滑块容易与外壳碰撞，不利于耐久性，刚度太大，则运动行程过小，耗能效率低下；第三，齿轮b7的半径Rb大于齿轮a5的半径Ra，从而可以对铜片10的转角进行放大，放大倍数等于Rb/Ra；第四，在齿轮、滚珠16以及导杆3上涂抹润滑油，减小转动摩擦。
本发明的上述实施例并不是对本发明保护范围的限定，本发明的实施方式不限于此，凡此种种根据本发明的上述内容，按照本领域的普通技术知识和惯用手段，在不脱离本发明上述基本技术思想前提下，对本发明上述结构做出的其它多种形式的修改、替换或变更，均应落在本发明的保护范围之内。

Claims (5)

  1. 一种基于电涡流耗能技术的输电线路减振装置，其特征在于，所述的基于电涡流耗能技术的输电线路减振装置包括绝缘子串（1）、滑块（2）、导杆（3）、线弹簧（4）、齿轮a（5）、连接杆a（6）、齿轮b（7）、齿轮c（8）、连接杆b（9）、铜片（10）、永磁体（11）、钢板（12）、螺栓（13）、盖板（14）、空心体（15）、滚珠（16）和滑孔（17）；
    所述的空心体（15）和盖板（14）构成整个减振装置的外壳，二者通过螺栓（13）连接；整个减振装置由两个耗能单元组成，对称布置；两个耗能单元共用绝缘子串（1）和滑块（2），左右对称；
    所述的绝缘子串（1）过空心体（15）底部中心的滑孔（17），其上端与滑块（2）相连，下端连接导线；
    所述的滑孔（17）沿着滑块（2）运动的方向开在空心体（15）底部，其尺寸等于滑块（2）的行程；
    所述的滑块（2）套在导杆（3）上，滑块（2）侧面有齿，滑块（2）不与装置外壳直接接触，采用滚珠（16）进行降摩擦处理；
    所述的导杆（3）两端固定在外壳上，其对滑块（2）的位移进行导向，其上套有线弹簧（4）；所述的线弹簧（4）一端连在外壳上，另一端连在滑块（2）上；
    所述的齿轮a（5）与滑块（2）侧面的齿咬合，齿轮b（7）与齿轮c（8）咬合；所述的齿轮a（5）、齿轮b（7）均与连接杆a（6）为刚性连接，所述的齿轮c（8）与连接杆b（9）为刚性连接；
    所述的钢板（12）与外壳形成一个密闭空腔，永磁体（11）和铜片（10）置于密闭空腔内，两永磁体（11）分别固定在密闭空腔的顶部和底部，铜片（10）位于两永磁体（11）之间；
    所述的连接杆b（9）穿过密闭空腔，并依次穿过永磁体（11）、铜片（10）和永磁体（11），其两端不与外壳直接接触，采用滚珠（16）进行降摩擦处理；所述的铜片（10）与连接杆b（9）为刚性连接。
  2. 根据权利要求1所述的基于电涡流耗能技术的输电线路减振装置，其特征在于，所述齿轮b（7）的半径大于齿轮c（8）的半径。
  3. 根据权利要求1或2所述的基于电涡流耗能技术的输电线路减振装置，其特征在于，所述的滚珠（16）为球形钢珠。
  4. 根据权利要求1或2所述的基于电涡流耗能技术的输电线路减振装置，其特征在于，所述滑块（2）、导杆（3）、线弹簧（4）、齿轮a（5）、连接杆a（6）、齿轮b（7）、齿轮c（8）、连接杆b（9）、钢板（12）、螺栓（13）、盖板（14）、空心体（15）和滚珠（16）均由导磁材料制成。
  5. 根据权利要求3所述的基于电涡流耗能技术的输电线路减振装置，其特征在于，所述滑块（2）、导杆（3）、线弹簧（4）、齿轮a（5）、连接杆a（6）、齿轮b（7）、齿轮c（8）、连接杆b（9）、钢板（12）、螺栓（13）、盖板（14）、空心体（15）和滚珠（16）均由导磁材料制成。
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