CN109256929A - Band generating function damper - Google Patents

Band generating function damper Download PDF

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Publication number
CN109256929A
CN109256929A CN201710574654.9A CN201710574654A CN109256929A CN 109256929 A CN109256929 A CN 109256929A CN 201710574654 A CN201710574654 A CN 201710574654A CN 109256929 A CN109256929 A CN 109256929A
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CN
China
Prior art keywords
bar
magnetic
generating function
coil part
cylinder
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.)
Pending
Application number
CN201710574654.9A
Other languages
Chinese (zh)
Inventor
太田晶久
关根伸
关根伸一
丰内敦士
福沢祐二
井门康司
岩本悠宏
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Nagoya Institute of Technology NUC
KYB Corp
Original Assignee
Kayaba Industry Co Ltd
Nagoya Institute of Technology NUC
Priority date (The priority date 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 date listed.)
Filing date
Publication date
Application filed by Kayaba Industry Co Ltd, Nagoya Institute of Technology NUC filed Critical Kayaba Industry Co Ltd
Priority to CN201710574654.9A priority Critical patent/CN109256929A/en
Publication of CN109256929A publication Critical patent/CN109256929A/en
Pending legal-status Critical Current

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Classifications

    • HELECTRICITY
    • H02GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02KDYNAMO-ELECTRIC MACHINES
    • H02K35/00Generators with reciprocating, oscillating or vibrating coil system, magnet, armature or other part of the magnetic circuit
    • H02K35/02Generators with reciprocating, oscillating or vibrating coil system, magnet, armature or other part of the magnetic circuit with moving magnets and stationary coil systems
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F16ENGINEERING ELEMENTS AND UNITS; GENERAL MEASURES FOR PRODUCING AND MAINTAINING EFFECTIVE FUNCTIONING OF MACHINES OR INSTALLATIONS; THERMAL INSULATION IN GENERAL
    • F16FSPRINGS; SHOCK-ABSORBERS; MEANS FOR DAMPING VIBRATION
    • F16F6/00Magnetic springs; Fluid magnetic springs, i.e. magnetic spring combined with a fluid
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F16ENGINEERING ELEMENTS AND UNITS; GENERAL MEASURES FOR PRODUCING AND MAINTAINING EFFECTIVE FUNCTIONING OF MACHINES OR INSTALLATIONS; THERMAL INSULATION IN GENERAL
    • F16FSPRINGS; SHOCK-ABSORBERS; MEANS FOR DAMPING VIBRATION
    • F16F7/00Vibration-dampers; Shock-absorbers
    • F16F7/01Vibration-dampers; Shock-absorbers using friction between loose particles, e.g. sand
    • F16F7/015Vibration-dampers; Shock-absorbers using friction between loose particles, e.g. sand the particles being spherical, cylindrical or the like
    • HELECTRICITY
    • H02GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02KDYNAMO-ELECTRIC MACHINES
    • H02K35/00Generators with reciprocating, oscillating or vibrating coil system, magnet, armature or other part of the magnetic circuit
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F16ENGINEERING ELEMENTS AND UNITS; GENERAL MEASURES FOR PRODUCING AND MAINTAINING EFFECTIVE FUNCTIONING OF MACHINES OR INSTALLATIONS; THERMAL INSULATION IN GENERAL
    • F16FSPRINGS; SHOCK-ABSORBERS; MEANS FOR DAMPING VIBRATION
    • F16F2222/00Special physical effects, e.g. nature of damping effects
    • F16F2222/04Friction
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F16ENGINEERING ELEMENTS AND UNITS; GENERAL MEASURES FOR PRODUCING AND MAINTAINING EFFECTIVE FUNCTIONING OF MACHINES OR INSTALLATIONS; THERMAL INSULATION IN GENERAL
    • F16FSPRINGS; SHOCK-ABSORBERS; MEANS FOR DAMPING VIBRATION
    • F16F2222/00Special physical effects, e.g. nature of damping effects
    • F16F2222/06Magnetic or electromagnetic

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  • Engineering & Computer Science (AREA)
  • General Engineering & Computer Science (AREA)
  • Power Engineering (AREA)
  • Mechanical Engineering (AREA)
  • Vibration Dampers (AREA)

Abstract

The present invention provides a kind of band generating function damper, can generate damping force well, and can generate electricity well.Band generating function damper (1) has cylinder (10), bar (50), magnetic-particle (90) and coil part (20).In cylinder (10), the bar (50) moved back and forth in axial direction freely is protruding to the outside.Magnetic-particle (90) has the characteristic of permanent magnet, and filled with multiple in cylinder (10).The direction of the magnetic line of force is formed by as the reciprocating movement of bar (50) changes by multiple magnetic-particles (90), to which the quantity of the perforative magnetic line of force changes in coil part (20), induced electromotive force is thus generated in coil part (20).

Description

Band generating function damper
Technical field
The present invention relates to a kind of band generating function dampers.
Background technique
The damping device of patent document 1 is standby: cylinder;The intracorporal piston of cylinder is inserted in a manner of moving freely;And The bar in cylinder and with piston connection is inserted in a manner of moving freely.The damping device is standby: being arranged in damper Elongation side room and compression side room;The damp channel and pump channel in connection elongation side room and compression side room side by side;Resistance is wanted Element is arranged on the midway of damp channel and applies resistance to the flowing of the fluid passed through;With the pump of two-way squirt-type, It is arranged on the midway of pump channel.In addition, the pump of the damper is driven by motor.When the damper is right by motor When pump is driven, fluid can be sent into from elongation side room to compression side room or be sent into from compression side room to elongation side room. That is, the damper itself can energetically stretch, to be adjusted to power (damping force) is generated.
In addition, Patent Document 1 discloses following contents, that is, can make respectively the pump of the damper and motor It is fluid motor and generator to function, and generator is driven using the flowing across the fluid of pump channel To generate electricity.
Citation
Patent document
Patent document 1: Japanese Unexamined Patent Publication 2015-102100 bulletin
Summary of the invention
Problems to be solved by the invention
However, since the flow of the fluid flowed in pump channel is less, pump and motor are difficult in the damper To be rotated, so that the generated energy that the motor functioned as generator is issued is less.Therefore, which can not It generates electricity well.
The case where present invention is in view of the above-mentioned prior art and the invention completed, project to be solved is, provides A kind of band generating function damper that can be generated damping force well and can generate electricity well.
Means for solving the problems
Band generating function damping device of the invention is for shell, bar, magnetic-particle and coil part.In shell, in axis side It is protruding to the outside that the bar freely or being pivoted freely is moved back and forth upwards.Magnetic-particle has the characteristic of permanent magnet, and Filled with multiple in shell.By multiple magnetic-particles be formed by the magnetic line of force direction with bar reciprocating movement or around The rotation of axis and change, so that the quantity of the perforative magnetic line of force changes in coil part, thus produced in coil part Raw induced electromotive force.
In the band generating function damper, when bar moves back and forth in axial direction or is rotated around axis, filling It can be moved in shell in the intracorporal magnetic-particle of shell, to generate damping force.
In addition, when the direction that the multiple magnetic-particles for carrying out movement in shell are formed by the magnetic line of force changes, The quantity of the perforative magnetic line of force can change in coil part.Thus induced electromotive force is generated in coil part.That is, The band generating function damper generates electricity.
Therefore, band generating function damper of the invention can generate damping force well, and can carry out well Power generation.
Magnetic-particle with generating function damper of the invention can have elasticity.In this case, when bar is in axis side When moving back and forth or being rotated upwards around axis, flexible deformation can be occurred by being filled in the intracorporal multiple magnetic-particles of shell.Pass through The elastic recoil power of the mutual frictional force of the magnetic-particle generated at this time and magnetic-particle, to make the band generating function damper Generate damping force.Further, since magnetic-particle has elasticity, therefore flexible deformation occurs each other for adjacent magnetic-particle, To make magnetic-particle be not easy each other it is hot sticky together.Therefore, which is not easy to interfere bar in axial direction Reciprocating movement or rotation around axis.
Band generating function damper of the invention can be configured with coil part in bar.In this case, can make to be matched The coil part set in bar effectively changes relative to the position of the intracorporal magnetic-particle of shell.Therefore, in band power generation function In energy damper, the magnetic line of force possessed by magnetic-particle can be passed through effectively in coil part.It is hindered as a result, in the band generating function In Buddhist nun's device, it is easy to make the quantity of the perforative magnetic line of force in coil part to change, to be easy to generate in coil part bigger Induced electromotive force.
Band generating function damper of the invention can be in the following way, that is, permanent magnet, coil part are configured in bar It is configured on shell.In this case, this can make magnetic-particle by the permanent magnet in bar with generating function damper Direction it is consistent, to keep the direction of the magnetic line of force possessed by magnetic-particle consistent.As a result, in the band generating function damper In, since towards the consistent magnetic line of force, perforative quantity changes in coil part, it is easy on being configured in shell Coil part in generate bigger induced electromotive force.
Band generating function damper of the invention can have piston, and the piston is configured in shell, and connect with bar Knot, and moved back and forth together with bar.In this case, which can make to fill by piston It is actively flowed in the intracorporal magnetic-particle of shell.Therefore, in the band generating function damper, possessed by magnetic-particle The magnetic line of force more actively passes through in coil part.As a result, in the band generating function damper, it is easy to make to run through in coil part The quantity of the magnetic line of force more actively change, to be easy to generate bigger induced electromotive force in coil part.
Band generating function damper of the invention can be in the following way, that is, permanent magnet, coil are configured in piston Portion is configured on shell.In this case, this can make to fill with generating function damper by the permanent magnet in piston It is consistent in the direction of the intracorporal magnetic-particle of shell, to keep the direction of the magnetic line of force possessed by magnetic-particle consistent, and can Make to be filled in the intracorporal magnetic-particle of shell by piston and more actively be flowed.As a result, in the band generating function damper In, it is easy to make that perforative quantity more actively changes in coil part towards the consistent magnetic line of force, to be easy to be configured in Bigger induced electromotive force is generated in coil part on shell.
Band generating function damper of the invention can be configured with coil part in piston.In this case, can make by The coil part configured in piston effectively changes relative to the position of the intracorporal magnetic-particle of shell.Therefore, it is sent out in the band In Electricity Functional damper, the magnetic line of force possessed by magnetic-particle can be passed through effectively in coil part.As a result, in band power generation function In energy damper, it is easy to make the quantity of the perforative magnetic line of force in coil part to change, to be easy to generate in coil part Bigger induced electromotive force.Also, since the band generating function damper can make to be filled in the intracorporal magnetic of shell by piston Property particle is actively flowed, therefore is easy to generate bigger induced electromotive force in coil part.
Band generating function damper of the invention can have rotor, and the rotor is configured in shell, and with around axis The bar connection rotated freely, and rotated in shell together with bar.In this case, when bar and rotor are revolved around axis When turning, it is filled in the intracorporal magnetic-particle of shell and is flowed up in the side that bar and rotor are rotated.The band generating function hinders as a result, Buddhist nun's device can generate damping force on the contrary direction rotated with bar and rotor, and sense is generated in coil part Answer electromotive force.
Detailed description of the invention
Fig. 1 is the cross-sectional view with generating function damper for indicating embodiment 1.
Fig. 2 is the schematic diagram for the magnetic-particle filled in the shell with generating function damper of embodiment 1.
Fig. 3 is the central axis indicated in the bar with generating function damper and piston that will make embodiment 1 in shell The speed (after, referred to as frequency) moved back and forth on direction is set as induced electromotive force in the case where 1Hz, generating in coil part Size relative to the time variation curve graph, (A) indicate period 1 induced electromotive force size relative to the time Variation, (B) indicate variation of the size of the induced electromotive force in the tenth period relative to the time.
Fig. 4 is to indicate the case where frequency of the bar with generating function damper of embodiment 1 and piston is set as 5Hz Under, curve graph that the size of induced electromotive force that generates in coil part is relative to the variation of time, (A) indicates period 1 Induced electromotive force variation of the size relative to the time, (B) indicate the size of the induced electromotive force in the tenth period relative to when Between variation.
Fig. 5 be indicate make embodiment 1 the bar with generating function damper and piston frequency between 1~5Hz Every time in each situation with 1Hz and when changing, the induced electromotive force that is generated in coil part and based on induced electromotive force and The curve graph of the size of the electric power of generation, (A) indicate the big of the induced electromotive force generated in coil part corresponding with frequency Small, (B) indicates the size of the electric power generated based on the induced electromotive force generated in coil part corresponding with frequency.
Fig. 6 is the cross-sectional view with generating function damper for indicating embodiment 2.
Fig. 7 is the cross-sectional view with generating function damper for indicating embodiment 3.
Fig. 8 is the cross-sectional view with generating function damper for indicating embodiment 4.
Fig. 9 is the cross-sectional view with generating function damper for indicating embodiment 5.
Figure 10 is the cross-sectional view for indicating the damper of embodiment 6, and (A) is the cross-sectional view of the central axis direction of rotor, (B) For the A-A cross-sectional view in Figure 10 (A).
(A) of Figure 11 is to indicate on the surface with side mobile with piston in generating function damper of embodiment 1 The partial enlarged view of the state of the magnetic-particle of abutting, (B) be indicate do not have piston band generating function damper in and The partial enlarged view of the state for the magnetic-particle that the surface of bar abuts.
Specific embodiment
It is illustrated referring to attached drawing to by the embodiment of the invention embodied with generating function damper.
1 > of < embodiment
As shown in Figure 1, embodiment 1 has the cylinder 10 as shell, piston 30, bar with generating function damper 1 50, a pair of of bar guide portion 70, multiple magnetic-particles 90 and coil part 20.
Cylinder 10 is the tubular of both ends open.Piston 30 has central portion 30A and both ends 30B.Central portion 30A is circle Column.Both ends 30B be outer diameter with the direction for the both ends of the surface for tending away from central portion 30A gradually smaller truncated cone Shape.Scheduled gap is formed between the outer peripheral surface of piston 30 and the inner peripheral surface of cylinder 10.Piston 30 is configured in cylinder 10 It is interior.
Bar 50 is formed as cylindric.Bar 50 and the top of the both ends 30B of piston 30 are continuous, and along two sides of piston 30 To extension.Bar 50 extends on the central axis direction of cylinder 10, and from the respective open end 10A at the both ends of cylinder 10 to cylinder The external of body 10 protrudes.That is, piston 30 and bar 50 link.Bar guide portion 70 is formed as having flange part 70B in periphery It is discoid, and by by the respective open end 10A at the both ends of cylinder 10 it is closed in a manner of and with each open end 10A Connection.Above-mentioned bar guide portion 70 is provided with through hole 70A in a manner of perforative on plate thickness direction at discoid center. The internal diameter of through hole 70A is more slightly larger than the outer diameter of bar 50.Through hole 70A is fixed in each of the both ends of cylinder 10 in bar guide portion 70 From open end 10A in the state of, run through on the central axis direction of cylinder 10.Bar 50 is in a manner of back and forth moving freely And it is inserted through in the through hole 70A of above-mentioned bar guide portion 70.Bar 50 and piston 30 are together in cylinder 10 along cylinder 10 Mandrel direction moves back and forth freely.In addition, cylinder 10, piston 30, bar 50 and a pair of of bar guide portion 70 are nonmagnetic material.
As shown in Fig. 2, multiple magnetic-particles 90 are formed as spherical form.These magnetic-particles 90 are A type Shore durometer Measure the elastomer for the silicon rubber as elastomer that hardness (hereinafter referred to as hardness) is 60.In addition, these magnetic-particles 90 In contain neodymium (Nd) particle 90A.The amount of neodymium (Nd) the particle 90A contained in these magnetic-particles 90 is about 60wt.% (17.78vol.%).Neodymium (Nd) particle 90A has magnetism.That is, magnetic-particle 90 has magnetic and elasticity.With this These magnetic-particles 90 that kind mode is formed are magnetized have magnetic force.That is, these magnetic-particles 90 have permanent magnet Characteristic.These magnetic-particles 90 are filled in the sky surrounded by cylinder 10 and a pair of of bar guide portion 70 with 60% filling rate Interior (that is, in cylinder 10).
Here, filling rate is indicated by following mathematical expressions (1).In addition, packing volume refers to filled with magnetic-particle 90 Space volume.
Mathematical expression (1)
Coil part 20 is the component being formed as follows, that is, is coaxially twined on surface by the metal wire that insulating film covers Around multi-turn, there is scheduled width radially, and be bundled into the internal diameter cylindrical shape more slightly larger than the outer diameter of cylinder 10.In addition, The metal wire of coil part 20 becomes such as flowering structure, that is, both ends are brought out respectively, and will be based on the sense generated in coil part 20 The electric current answering electromotive force and generating supplies (not shown) to electrical equipment that the outside with generating function damper 1 is arranged in etc.. Coil part 20 is with the cylindric inside insertion cylinder 10 in coil part 20 and makes the cylindric inside of coil part 20 along cylinder The mode of the outer peripheral surface of body 10 and be configured on the outer peripheral surface of cylinder 10.
In the band generating function damper 1 being formed in this way, when piston 30 is in the central axis direction of cylinder 10 When upper reciprocating movement, scheduled gap of the magnetic-particle 90 across the outer peripheral surface of piston 30 and the inner peripheral surface of cylinder 10 and into Row movement.At this point, between the inner peripheral surface and the magnetic-particle 90 that is abutted with the inner peripheral surface of cylinder 10 of cylinder 10, adjacent magnetism Between particle 90 and the outer peripheral surface of bar 50 and piston 30 and the magnetic-particle abutted with the outer peripheral surface of bar 50 and piston 30 Frictional force can be generated between 90.In addition, being located at the magnetic-particle 90 of the mobile side of piston 30 by 30 be collapsed of piston.At this point, logical Cross the elastic recoil power caused by the magnetic-particle 90 of 30 be collapsed of piston, and by piston 30 toward pushing back.That is, with power generation Function damper 1 generates damping force based on the frictional force and elastic recoil power generated in this way.
In addition, as shown in Figure 11 (A), when being located at the magnetic-particle 90 of the mobile side of piston 30 by 30 be collapsed of piston, Pressing force F can be applied to magnetic-particle 90.The inclined surface of pressing force F being oriented relative to both ends 30B and vertical direction. Pressing force F can be divided into the component on the direction of the component F1 on the central axis direction of cylinder 10 and the central axis far from cylinder 10 F2.It is mobile to the direction of the central axis far from cylinder 10 by component F2 by the magnetic-particle 90 of 30 be collapsed of piston.
In contrast, in the case where not having piston the band generating function damper 61 as shown in Figure 11 (B), when Bar 550 when being moved on the central axis direction of cylinder 10, the magnetic-particle 90 that is abutted with the outer peripheral surface of bar 550 can by its with The frictional force that is generated between the outer peripheral surface of bar 550 and rotate or moved together with bar 550.That is, living not having In the case where plug, magnetic-particle 90 will not be carried out mobile 550 be collapsed of bar on the central axis direction of cylinder 10.Therefore, no The case where applying pressing force there are magnetropism particle 90, thus compared with the case where being provided with piston, the flowing of magnetic-particle 90 It is smaller.
That is, the magnetic-particle 90 being filled in cylinder 10 can be made more actively to carry out by setting piston 30 Flowing.
In addition, at this point, multiple magnetic-particles 90 are formed by the direction of the magnetic line of force along with the past of bar 50 and piston 30 Multiple movement and change, become so that multiple magnetic-particles 90 are formed by the magnetic line of force perforative quantity in coil part 20 Change, therefore generates induced electromotive force in coil part 20.That is, being carried out with generating function damper 1 by coil part 20 Power generation.
Next, showing expression in Fig. 3 (A), (B) by bar 50 and piston 30 with generating function damper 1 Frequency be set as the variation of the size of induced electromotive force in the case where 1Hz, generating in coil part 20 relative to the time Curve graph.Specifically, (A) indicates variation of the size of the induced electromotive force of period 1 relative to the time, (B) indicates the tenth Variation of the size of the induced electromotive force in period relative to the time.
As shown in Fig. 3 (A), (B), in bar 50 and piston 30 in the whole areas for carrying out movement on the central axis direction of cylinder 10 In domain, there is induced electromotive force.In addition, the waveform of the induced electromotive force generated within period 1 and the tenth period is each other not Together.This be considered as due to, whenever bar 50 and piston 30 on the central axis direction of cylinder 10 when repeating to move back and forth, multiple magnetic Property particle 90 possessed by the direction of the magnetic line of force can change, therefore the variation side of the quantity of the magnetic line of force in thorough coil portion 20 Formula is different.
Next, showing expression in Fig. 4 (A), (B) by bar 50 and piston 30 with generating function damper 1 Frequency be set as the variation of the size of induced electromotive force in the case where 5Hz, generating in coil part 20 relative to the time Curve graph.Specifically, (A) indicates variation of the size of the induced electromotive force of period 1 relative to the time, (B) indicates the tenth Variation of the size of the induced electromotive force in period relative to the time.
As shown in Fig. 4 (A), (B), in bar 50 and piston 30 in the whole for carrying out movement on the central axis direction of cylinder 10 In region, there is induced electromotive force.In addition, compared with the case where frequency of bar 50 and piston 30 is 1Hz, induced electromotive force Size it is larger.This is considered as due to being filled in magnetic-particle 90 in cylinder 10 more compared with the case where frequency is 1Hz It is actively flowed, so that the quantity of the perforative magnetic line of force in coil part 20 be made more actively to change.In addition, at first week The waveform of the induced electromotive force generated in phase and the tenth period is different from each other.This is considered as due to whenever bar 50 and piston 30 on the central axis direction of cylinder 10 when repeating to move back and forth, and the direction of the magnetic line of force possessed by multiple magnetic-particles 90 can be sent out Changing, therefore the variation pattern of the quantity of the magnetic line of force in thorough coil portion 20 is different.
Next, shown in Fig. 5 (A), (B) make the bar 50 with generating function damper 1 and piston 30 frequency 1~ Between 5Hz every time in each situation with 1Hz and when being changed, the induced electromotive force that is generated in coil part 20 and be based on Induced electromotive force and the size of electric power generated.Specifically, Fig. 5 (A) indicate make bar 50 and piston 30 with scheduled time The size of the average value for the induced electromotive force that number generates in coil part 20 in a period of being moved back and forth, Fig. 5 (B) are indicated The size of the electric power generated based on the induced electromotive force generated in coil part 20.Specifically, for each in Fig. 5 (A) Value obtained from the average value of induced electromotive force under frequency is squared is divided by resistance value possessed by coil part 20 (about 6.5 Ω (ohm)) obtained value.
As shown in Fig. 5 (A), (B), the frequency with bar 50 and piston 30 becomes larger, the induction generated in coil part 20 The size of electromotive force and the electric power generated based on the induced electromotive force generated in coil part 20 is become larger.This be considered as by In, the frequency with bar 50 and piston 30 becomes larger, and the magnetic-particle 90 being filled in cylinder 10 can more actively be flowed, To which the quantity of the perforative magnetic line of force more actively changes in coil part 20.
In this way, in band generating function damper 1, when bar 50 and piston 30 are reciprocal on the central axis direction of cylinder 10 When mobile, carried out in cylinder 10 by the magnetic-particle 90 being filled in cylinder 10 mobile to generate damping force.
In addition, when the direction that the multiple magnetic-particles 90 for carrying out movement in cylinder 10 are formed by the magnetic line of force changes When, the quantity of the perforative magnetic line of force can change in coil part 20.Thus induced electromotive force is generated in coil part 20.? That is band generating function damper 1 generates electricity.
Therefore, band generating function damper 1 of the invention can generate damping force well, and can carry out well Power generation.
In addition, the magnetic-particle 90 with generating function damper 1 has elasticity.Therefore, when bar 50 is reciprocal in axial direction When moving or being rotated around axis, flexible deformation can occur for the multiple magnetic-particles 90 being filled in cylinder 10.By at this time The mutual frictional force of magnetic-particle 90 of generation and the elastic recoil power of magnetic-particle 90, to make band generating function damper 1 Generate damping force.Further, since magnetic-particle 90 has elasticity, therefore elasticity can mutually occur each other for adjacent magnetic-particle 90 Deformation, thus make magnetic-particle 90 be not easy each other it is hot sticky together.Therefore, band generating function damper 1 is not easy that bar 50 is interfered to exist Reciprocating movement in axis direction or the rotation around axis.
In addition, having piston 30 with generating function damper 1, which is configured in cylinder 10, and is connected with bar 50 Knot, and moved back and forth together with bar 50.Therefore, band generating function damper 1 can make to be filled in by piston 30 Magnetic-particle 90 in cylinder 10 is more actively flowed.Therefore, in band generating function damper 1,90 institute of magnetic-particle The magnetic line of force having can be passed through more actively in coil part 20.As a result, in band generating function damper 1, in coil part 20 The quantity of the interior perforative magnetic line of force is easy to more actively change, to be easy to generate bigger induced electricity in coil part 20 Kinetic potential.
2 > of < embodiment
As shown in fig. 6, embodiment 2 with generating function damper 11 and embodiment 1 the difference lies in that in piston The magnet 40 as permanent magnet is provided in 130.Other structures are identical as embodiment 1, mark to identical structure identical Symbol, and omit detailed description.
As shown in fig. 6, the band generating function damper 11 of embodiment 2 is provided with magnet 40 in piston 130.Magnet 40 Characteristic with permanent magnet, for example, be formed it is cylindrical, and with central axis and bar 50 and the central axis of piston 130 Coaxial mode and be configured in piston 130.In addition, magnet 40 for example becomes the pole N, another side with columned one end As the pole S mode and be magnetized.
In the band generating function damper 11 being formed in this way, when piston 130 is in the central axis side of cylinder 10 When moving back and forth upwards, scheduled gap of the magnetic-particle 90 across the outer peripheral surface of piston 130 and the inner peripheral surface of cylinder 10 And it is moved.At this point, between the inner peripheral surface and the magnetic-particle 90 that is abutted with the inner peripheral surface of cylinder 10 of cylinder 10, it is adjacent Between magnetic-particle 90 and the outer peripheral surface of bar 50 and piston 130 and the magnetic abutted with the outer peripheral surface of bar 50 and piston 130 Frictional force can be generated between property particle 90.In addition, being located at the magnetic-particle 90 of the mobile side of piston 130 can be pressed by piston 130 It collapses.At this point, by piston 130 toward pushing back and the elastic recoil power caused by the magnetic-particle 90 of 130 be collapsed of piston.Also It is to say, damping force is generated based on the frictional force and elastic recoil power generated in this way with generating function damper 11.
In addition, at this point, multiple magnetic-particles 90 are formed by the direction of the magnetic line of force along with the reciprocal of bar 50 and piston 130 It moves and changes, become so that multiple magnetic-particles 90 are formed by the magnetic line of force perforative quantity in coil part 20 Change, therefore generates induced electromotive force in coil part 20.That is, being carried out with generating function damper 11 by coil part 20 Power generation.
In this way, in band generating function damper 11, when bar 50 and piston 130 are past on the central axis direction of cylinder 10 When moving again, the magnetic-particle 90 being filled in cylinder 10 can be moved in cylinder 10, to generate damping force.
In addition, when the direction that the multiple magnetic-particles 90 for carrying out movement in cylinder 10 are formed by the magnetic line of force changes When, the quantity of the perforative magnetic line of force can change in coil part 20.Thus induced electromotive force is generated in coil part 20.? That is the band generating function damper 11 generates electricity.
Therefore, band generating function damper 11 of the invention can also generate damping force well, and can be well It generates electricity.
In addition, being configured with magnet 40 in piston 130 in the band generating function damper 11, coil part 20 is configured On cylinder 10.Therefore, the court of magnetic-particle 90 can be made by the magnet 40 in piston 130 with generating function damper 11 To consistent, to keep the direction of the magnetic line of force possessed by the magnetic-particle 90 being filled in cylinder 10 consistent, and can pass through Piston 130 and flow the magnetic-particle being filled in cylinder 10 90 more actively.The band generating function damper as a result, 11 are easy to make that perforative quantity more actively changes in coil part 20 towards the consistent magnetic line of force, to be easy to matched It sets and generates bigger induced electromotive force in the coil part 20 on cylinder 10.
3 > of < embodiment
As shown in fig. 7, embodiment 3 with generating function damper 21 and embodiment 1,2 the difference lies in that in work Coil part 120 is provided in plug 230.Other structures are identical as embodiment 1,2, mark identical symbol to identical structure Number, and omit detailed description.
The band generating function damper 21 of embodiment 3 is provided with coil part 120 in piston 230.Specifically, as schemed Shown in 7, cylindrical coil part 120 is matched in such a way that central shaft is with the central axis of bar 150 and piston 230 It sets in piston 230.In addition, the both ends for the metal wire drawn from coil part 120 become following structure, that is, via bar 150 The inside of one side side and be drawn to the outside with generating function damper 21, and will be based on being generated in coil part 120 Induced electromotive force and the electric current generated, which are supplied to the electrical equipment for being arranged at the outside with generating function damper 21 etc., (does not scheme Show).
In band generating function damper 21 formed in this way, when piston 230 is in the central axis direction of cylinder 10 When upper reciprocating movement, scheduled gap of the magnetic-particle 90 across the outer peripheral surface of piston 230 and the inner peripheral surface of cylinder 10 and It is moved.At this point, between the inner peripheral surface and the magnetic-particle 90 that is abutted with the inner peripheral surface of cylinder 10 of cylinder 10, adjacent magnetic Property particle 90 between and bar 150 and piston 230 outer peripheral surface and abutted with the outer peripheral surface of bar 150 and piston 230 magnetic Frictional force can be generated between grain 90.In addition, the magnetic-particle 90 for being located at the mobile side of piston 230 can be by 230 be collapsed of piston.This When, by piston 230 toward pushing back and the elastic recoil power caused by the magnetic-particle 90 of 230 be collapsed of piston.That is, Damping force is generated based on the frictional force and elastic recoil power generated in this way with generating function damper 21.
In addition, at this point, multiple magnetic-particles 90 are formed by the direction of the magnetic line of force along with bar 150 and piston 230 It moves back and forth and changes, so that multiple magnetic-particles 90 are formed by the magnetic line of force perforative quantity hair in coil part 120 Therefore changing generates induced electromotive force in coil part 120.That is, passing through coil part with generating function damper 21 120 generate electricity.
In this way, in band generating function damper 21, when bar 150 and piston 230 are on the central axis direction of cylinder 10 When reciprocating movement, the magnetic-particle 90 being filled in cylinder 10 can be moved in cylinder 10, to generate damping force.
In addition, when the direction that the multiple magnetic-particles 90 for carrying out movement in cylinder 10 are formed by the magnetic line of force changes When, the quantity of the perforative magnetic line of force can change in coil part 120.Thus induced electromotive force is generated in coil part 120. That is, generating electricity with generating function damper 21.
Therefore, band generating function damper 21 of the invention can also generate damping force well, and can be well It generates electricity.
In addition, being configured with coil part 120 in piston 230 with generating function damper 21.Therefore, can make to be configured in Coil part 120 in piston 230 effectively changes relative to the position of the magnetic-particle 90 in cylinder 10.Therefore, in band In generating function damper 21, the magnetic line of force possessed by magnetic-particle 90 can be passed through effectively in coil part 120.Exist as a result, In band generating function damper 21, the quantity of the perforative magnetic line of force is prone to change in coil part 120, to be easy to online Bigger induced electromotive force is generated in circle portion 120.Also, since band generating function damper 21 can be made by piston 230 The magnetic-particle 90 being filled in cylinder 10 is actively flowed, therefore is easy to generate bigger induction in coil part 120 Electromotive force.
4 > of < embodiment
As shown in figure 8, embodiment 4 with generating function damper 31 and Embodiments 1 to 3 the difference lies in that not Have piston, and is provided as the magnet 140 of permanent magnet in bar 250.Other structures are identical as Embodiments 1 to 3, right Identical structure marks identical symbol, and omits detailed description.
As shown in figure 8, the band generating function damper 31 of embodiment 4 is provided with magnet 140 in bar 250.Magnet 140 Characteristic with permanent magnet, for example, be formed it is cylindrical, and in a manner of the central axis of central axis and bar 250 And it is configured in bar 250.In addition, magnet 140 for example becomes the pole N with columned one end, another side becomes the side of the pole S Formula and be magnetized.
In the band generating function damper 31 being formed in this way, when bar 250 is in the central axis direction of cylinder 10 When upper reciprocating movement, magnetic-particle 90 moves in the scheduled gap between the outer peripheral surface of bar 250 and the inner peripheral surface of cylinder 10. Specifically, the magnetic-particle 90 abutted with the outer peripheral surface of bar 250 can be by rubbing what it was generated between the outer peripheral surface of bar 250 It wipes power and is moved together with bar 250.At this point, in the inner peripheral surface of cylinder 10 and the magnetism abutted with the inner peripheral surface of cylinder 10 Between grain 90 and adjacent magnetic-particle 90 can also generate frictional force each other.That is, with generating function damper 31 generate damping force based on the frictional force generated in this way.
In addition, at this point, the direction that multiple magnetic-particles 90 are formed by the magnetic line of force is sent out along with the reciprocating movement of bar 250 Changing changes so that multiple magnetic-particles 90 are formed by the magnetic line of force perforative quantity in coil part 20, therefore Induced electromotive force is generated in coil part 20.That is, being generated electricity with generating function damper 31 by coil part 20.
In this way, in band generating function damper 31, when bar 250 moves back and forth on the central axis direction of cylinder 10, The magnetic-particle 90 being filled in cylinder 10 can be moved in cylinder 10, to generate damping force.
In addition, when the direction that the multiple magnetic-particles 90 for carrying out movement in cylinder 10 are formed by the magnetic line of force changes When, the quantity of the perforative magnetic line of force can change in coil part 20.Thus induced electromotive force is generated in coil part 20.? That is band generating function damper 31 generates electricity.
Therefore, band generating function damper 31 of the invention can also generate damping force well, and can be well It generates electricity.
In addition, being configured with magnet 140 in bar 250 with generating function damper 31, coil part 20 is configured in cylinder 10 On.Therefore, the direction of magnetic-particle 90 can be made consistent by the magnet 140 in bar 250 with generating function damper 31, from And keep the direction of the magnetic line of force possessed by magnetic-particle 90 consistent.As a result, in the band generating function damper 31, due to direction The consistent magnetic line of force perforative quantity in coil part 20 changes, therefore is easy in the coil part being configured in cylinder 10 Bigger induced electromotive force is generated in 20.
5 > of < embodiment
As shown in figure 9, embodiment 5 with generating function damper 41 and Embodiments 1 to 4 the difference lies in that not Have piston, and is provided with coil part 220 in bar 350.Other structures are identical as Embodiments 1 to 4, to identical knot Structure marks identical symbol, and omits detailed description.
The band generating function damper 41 of embodiment 5 is provided with coil part 220 in bar 350.Specifically, such as Fig. 9 Shown, cylindrical coil part 220 is configured in bar in such a way that central shaft becomes the central axis with bar 350 In 350.In addition, the both ends for the metal wire drawn from coil part 220 become following structure, that is, via a side side of bar 350 Inside and be drawn to the outside with generating function damper 41, and will be based on the induction electric generated in coil part 220 Gesture and the electric current generated is supplied to (not shown) such as the electrical equipments for being arranged at the outside with generating function damper 41.
In the band generating function damper 41 being formed in this way, when bar 350 is in the central axis direction of cylinder 10 When upper reciprocating movement, magnetic-particle 90 carries out in the scheduled gap between the outer peripheral surface of bar 350 and the inner peripheral surface of cylinder 10 It is mobile.Specifically, the magnetic-particle 90 abutted with the outer peripheral surface of bar 350 between the outer peripheral surface of bar 350 by generating at it Frictional force and moved together with bar 350.At this point, the inner peripheral surface in cylinder 10 and the magnetic that is abutted with the inner peripheral surface of cylinder 10 Property particle 90 between and adjacent magnetic-particle 90 can also generate frictional force each other.That is, being hindered with generating function Buddhist nun's device 41 generates damping force based on the frictional force generated in this way.
In addition, at this point, the direction that multiple magnetic-particles 90 are formed by the magnetic line of force makes along with the reciprocating movement of bar 350 It changes, changes so that multiple magnetic-particles 90 are formed by the magnetic line of force perforative quantity in coil part 220, because This, generates induced electromotive force in coil part 220.That is, being sent out with generating function damper 41 by coil part 220 Electricity.
In this way, in band generating function damper 41, when bar 350 moves back and forth on the central axis direction of cylinder 10, The magnetic-particle 90 being filled in cylinder 10 can be moved in cylinder 10, to generate damping force.
In addition, when the direction that the multiple magnetic-particles 90 for carrying out movement in cylinder 10 are formed by the magnetic line of force changes When, the quantity of the perforative magnetic line of force can change in coil part 220.Thus induced electromotive force is generated in coil part 220. That is, generating electricity with generating function damper 41.
Therefore, band generating function damper 41 of the invention can also generate damping force well, and can be well It generates electricity.
In addition, the band generating function damper 41 is configured with coil part 220 in bar 350.Therefore, can make to be configured in Coil part 220 in bar 350 effectively changes relative to the position of the magnetic-particle 90 in cylinder 10.Therefore, it is sent out in band In Electricity Functional damper 41, the magnetic line of force possessed by magnetic-particle 90 can be passed through effectively in coil part 220.Band hair as a result, Electricity Functional damper 41 is easy to that the quantity of the perforative magnetic line of force in coil part 220 is made to change, to be easy in coil part Bigger induced electromotive force is generated in 220.
6 > of < embodiment
As shown in Figure 10 (A), (B), the difference with generating function damper 51 Yu Embodiments 1 to 5 of embodiment 6 Be, the shape of cylinder 110, the shape of bar guide portion 170, bar 450 and rotor 35 around axis be around cylinder 110 central axis and into The configuration etc. of row rotation this point, the shape and coil part 320 of coil part 320 relative to cylinder 110.Other structures and reality It is identical to apply mode 1~5, identical symbol is marked to identical structure, and omit detailed description.
As shown in Figure 10 (A), (B), cylinder 110 is the tubular of both ends open.
As bar guide portion 170 the first bar guide portion 171 be it is discoid, and so that another party face and cylinder 110 A side end face abut and the one side closed mode of cylinder 110 is linked with cylinder 110.In the first bar guide portion 171 The first through hole 171A is provided in a manner of perforative on plate thickness direction at discoid center.In addition, drawing in the first bar It leads in the first through hole 171A of the surface side of the another party in portion 171, is formed with from the inner peripheral surface of the first through hole 171A inwardly The first blocking part 171B that portion direction is extended with tabular.The internal diameter of first blocking part 171B is outer than bar 450 described hereinafter Diameter is slightly larger.It is embedded with sealing bearing 60 in the first through hole 171A, seals a face and the first blocking part 171B of bearing 60 A side face abut.
The second bar guide portion 172 as bar guide portion 170 is discoid, and so that a side face and cylinder 110 The end face of another party abuts and links the closed mode in the other side of cylinder 110 with cylinder 110.In the second bar guide portion 172 Discoid center at be provided with the second through hole 172A in a manner of perforative on plate thickness direction.In addition, being plate thickness Internally side is formed with from the inner peripheral surface of the second through hole 172A on direction at the middle part of perforative second through hole 172A To the second blocking part 172B extended with tabular.The internal diameter of second blocking part 172B is more slightly larger than the outer diameter of bar 450.In addition, with Played from the face of a side of the second blocking part 172B until the face of a side of the second bar guide portion 172 section (after, referred to as The side of two through hole 172A) the internal diameter of the second through hole 172A compare, from the face of another party of the second blocking part 172B Of section (after, referred to as the other side of the second through hole 172A) until the face of another party of the second bar guide portion 172 The internal diameter of two through hole 172A is smaller.It is embedded with sealing bearing 60 in the other side of the second through hole 172A, sealing bearing 60 One face is abutted with the face of another party of the second blocking part 172B.
As bar guide portion 170 third bar guide portion 173 be and the first bar guide portion 171 and the second bar guide portion 172 is thicker discoid.In addition, the internal diameter substantially phase of the discoid outer diameter of third bar guide portion 173 and cylinder 110 Together.Abut the face of a discoid side for third bar guide portion 173 with the face of another party of the first bar guide portion 171, also, Third bar guide portion 173 is embedded in the open end 110A of a side of cylinder 110 and links with the first bar guide portion 171. Third through hole is provided in a manner of perforative on plate thickness direction at the discoid center of third bar guide portion 173 173A.In addition, being formed with from third and running through in the third through hole 173A of the surface side of another party of third bar guide portion 173 The inner peripheral surface of hole 173A plays the third blocking part 173B that internally direction is extended with tabular.The internal diameter ratio of third blocking part 173B The outer diameter of the first end 35B of rotor 35 described hereinafter is slightly larger.
As bar guide portion 170 the 4th bar guide portion 174 be and the first bar guide portion 171 and the second bar guide portion 172 is thicker, and relatively thin discoid compared with third bar guide portion 173.In addition, the 4th bar guide portion 174 is discoid Outer diameter it is roughly the same with the internal diameter of cylinder 110.Draw the face of discoid another party of the 4th bar guide portion 174 with the second bar The face for leading a side in portion 172 abuts, also, the 4th bar guide portion 174 is embedded in the open end of another party of cylinder 110 Link in 110A with the second bar guide portion 172.At the discoid center of the 4th bar guide portion 174 on plate thickness direction Perforative mode and be provided with the 4th through hole 174A.In addition, the in the surface side of a side of the 4th bar guide portion 174 the 4th runs through In the 174A of hole, it is formed with the 4th blocking part that internally direction is extended with tabular from the inner peripheral surface of the 4th through hole 174A 174B.The internal diameter of 4th blocking part 174B is more slightly larger than the outer diameter of the second end 35C of rotor 35.
Rotor 35 has central portion 35A, first end 35B and the second end 35C.Central portion 35A is configured in third Between the face of one side of the face of another party of bar guide portion 173 and the 4th bar guide portion 174, and central portion 35A's and cylinder The cross sectional shape of 110 orthogonality of center shaft is square (0 (B) referring to Fig.1).In addition, in four faces for forming square shape Two neighboring face between be formed with rib (after, referred to as rib).
In addition, in central portion 35A on each end at the both ends on the central axis direction of cylinder 110, it is formed with and cylinder First plane 35D of 110 orthogonality of center shaft.
First end 35B and the second end 35C difference is cylindrical, and from two the first planes of central portion 35A 35D rises in respective center to be extended in the opposite direction each other.In addition, in first end 35B and the second end 35C far from The side of centre portion 35A is formed with the second plane 35E with the orthogonality of center shaft of cylinder 110.
Bar 450 is stretched out from the center of the second plane 35E of first end 35B and the second end 35C respectively.Namely It says, rotor 35 and bar 450 link.Bar 450 and first end 35B and the second end 35C phase are coaxial each other.Rotor 35 is configured In cylinder 110.
Bar 450 via the sealing bearing 60 being respectively embedded in the first bar guide portion 171 and the second bar guide portion 172 and Rotatably freely link with the first bar guide portion 171 and the second bar guide portion 172.In addition, first end 35B and second end Portion 35C be rotatably freely inserted through respectively the third through hole 173A of third bar guide portion 173 third blocking part 173B and In the 4th blocking part 174B of 4th through hole 174A of the 4th bar guide portion 174.
In addition, being configured with thrust bearing 80 in the inside of the third through hole 173A of third bar guide portion 173, and pass through It is inserted through the face of the second plane 35E of the first end 35B in the 173B of third blocking part and another party of the first bar guide portion 171 And thrust bearing 80 is clamped.In addition, being also configured with thrust axis on the inside of the 4th through hole 174A of the 4th bar guide portion 174 Hold 80, and the second plane 35E and the second bar guide portion of the second end 35C by being inserted through in the 4th blocking part 174B The face of 172 side and thrust bearing 80 is clamped.Bar 450 and rotor 35 are rotated around the central axis of cylinder 110 together as a result, Freely.
Coil part 320 is the component being formed as follows, that is, is coaxially twined on surface by the metal wire that insulating film covers Around multi-turn, there is scheduled width radially, and be bundled as annular shape.In band generating function damper 51, four lines Circle portion 320 by make the one end of respective annular shape along the outer peripheral surface of cylinder 110 in a manner of and be configured in the outer of cylinder 110 On circumferential surface.
In the band generating function damper 51 being formed in this way, when bar 450 and rotor 35 are in cylinder 110 When mandrel is rotated, the magnetic-particle 90 being filled in cylinder 110 is flowed.At this point, cylinder 110 inner peripheral surface and with Between the magnetic-particle 90 that the inner peripheral surface of cylinder 110 abuts, between the adjacent magnetic-particle 90 and center of rotor 35 Frictional force can be generated between the surface of portion 35A and the magnetic-particle 90 abutted with the surface of the central portion 35 of rotor 35.In addition, magnetic The central portion 35A be collapsed for the rotor 35 that property particle 90 is rotated.At this point, by by the magnetism of the central portion 35A be collapsed of rotor 35 Elastic recoil power caused by particle 90, and by the central portion 35A of rotor 35 toward pushing back.That is, being damped with generating function Device 51 is based on the frictional force and elastic recoil power generated in this way and in the contrary side rotated with rotor 35 Damping force is generated upwards.
In addition, at this point, multiple magnetic-particles 90 are formed by the direction of the magnetic line of force along with the rotation of bar 450 and rotor 35 And change, become so that multiple magnetic-particles 90 are formed by the magnetic line of force perforative quantity in four coil parts 320 Change, therefore generates induced electromotive force in these coil parts 320.That is, passing through four lines with generating function damper 51 Circle portion 320 generates electricity.
In this way, in band generating function damper 51, when bar 450 and rotor 35 are revolved around the central axis of cylinder 110 When turning, the magnetic-particle 90 being filled in cylinder 110 can be moved in cylinder 110, to generate damping force.
In addition, when the direction that the multiple magnetic-particles 90 for carrying out movement in cylinder 110 are formed by the magnetic line of force becomes When change, the quantity of the perforative magnetic line of force can change in four coil parts 320.Thus induction is generated in coil part 320 Electromotive force.That is, generating electricity with generating function damper 51.
Therefore, band generating function damper 51 of the invention can also generate damping force well, and can be well It generates electricity.
In addition, having rotor 35 with generating function damper 51, which is configured in cylinder 110, and with around cylinder The central axis of body 110 and the bar 450 that rotates freely links, and rotated in cylinder 110 together with bar 450.Therefore, when Bar 450 and rotor 35 around cylinder 110 central axis and when being rotated, be filled in the magnetic-particle 90 in cylinder 110 in bar 450 The side rotated with rotor 35 flows up.Band generating function damper 51 can be carried out with bar 450 and rotor 35 as a result, Damping force is generated on the contrary direction of rotation, and generates induced electromotive force in coil part 320.
The present invention is not limited to pass through Embodiments 1 to 6 illustrated by above-mentioned narration and attached drawing, such as reality below The mode of applying is also included in the technical scope of the present invention.
(1) although coil part is arranged on the outer peripheral surface of cylinder respectively in embodiment 1,3,5, in piston, bar It is interior, but coil part can also be arranged on the outer peripheral surface of cylinder, in bar and in piston simultaneously.
(2) although in Embodiments 1 to 6, magnetic-particle is the elasticity of the silicon rubber as elastomer of hardness 60 Body is also possible to other materials however, as long as having magnetism, in addition it is also possible to which these Material claddings are used.In addition, magnetic The hardness of particle can be about 40~90.In addition it is also possible to be the material that flexible deformation does not occur.
(3) although in Embodiments 1 to 6, the mutual size for being filled in the intracorporal multiple magnetic-particles of cylinder is the same, The magnetic-particle of a variety of partial sizes can also be filled in cylinder.
(4) although in Embodiments 1 to 6, the particle of neodymium (Nd) is contained in magnetic-particle, but as long as being that there is magnetism Material can also then contain other materials.In addition it is also possible to which compound contain these materials.
(5) although in Embodiments 1 to 6, bar is protruded from each open end of cylinder to the external of cylinder, can also With in the following way, that is, bar is prominent from a side of piston (rotor), also, bar is from the open end of a side of cylinder to cylinder The external of body protrudes.
(6) although in Embodiments 1 to 5, it is provided with a cylindric coil part, multiple coils also can be set Portion.
(7) it although in embodiment 6, is formed between adjacent two face in four faces for forming square Rib, but these ribs are not limited to proper corner angle, chamfering also can be implemented, or in a manner of keeping two faces continuous And it is formed with curved surface.
Symbol description
10,110 ... cylinders (shell);20,120,220,320 ... coil part;30,130,230 ... piston;35 ... rotors; 40,140 ... magnet (permanent magnet);50,150,250,350,450,550 ... bar;90 ... magnetic-particles.

Claims (10)

1. a kind of band generating function damper, which is characterized in that have:
Shell;
Bar, it is protruding to the outside from the shell, and move back and forth freely or be pivoted freely in axial direction;
Multiple magnetic-particles are filled in the shell, and the characteristic with permanent magnet;With
Coil part, by multiple magnetic-particles be formed by the magnetic line of force direction with the bar reciprocating movement or around The rotation of axis and change, so that the quantity of the perforative magnetic line of force changes in the coil part, thus in institute It states and generates induced electromotive force in coil part.
2. band generating function damper as described in claim 1, which is characterized in that
The magnetic-particle has elasticity.
3. band generating function damper as claimed in claim 1 or 2, which is characterized in that
The coil part is configured in the bar.
4. band generating function damper as claimed in claim 1 or 2, which is characterized in that
Permanent magnet is configured in the bar, the coil part is configured on the housing.
5. band generating function damper as claimed in claim 1 or 2, which is characterized in that
Has piston, the piston is configured in the shell, and is linked with the bar, and carry out together with the bar past It is multiple mobile.
6. band generating function damper as claimed in claim 1 or 2, which is characterized in that
Have rotor, the rotor is configured in the shell, and is linked with the bar freely is pivoted, and with institute Bar is stated to rotate in shell together.
7. band generating function damper as claimed in claim 3, which is characterized in that
Has piston, the piston is configured in the shell, and is linked with the bar, and carry out together with the bar past It is multiple mobile.
8. band generating function damper as claimed in claim 4, which is characterized in that
Has piston, the piston is configured in the shell, and is linked with the bar, and carry out together with the bar past It is multiple mobile.
9. band generating function damper as claimed in claim 7, which is characterized in that
Permanent magnet is configured in the piston, the coil part is configured on the housing.
10. band generating function damper as claimed in claim 8, which is characterized in that
The coil part is configured in the piston.
CN201710574654.9A 2017-07-14 2017-07-14 Band generating function damper Pending CN109256929A (en)

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Application Number Priority Date Filing Date Title
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Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN201710574654.9A CN109256929A (en) 2017-07-14 2017-07-14 Band generating function damper

Publications (1)

Publication Number Publication Date
CN109256929A true CN109256929A (en) 2019-01-22

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Family Applications (1)

Application Number Title Priority Date Filing Date
CN201710574654.9A Pending CN109256929A (en) 2017-07-14 2017-07-14 Band generating function damper

Country Status (1)

Country Link
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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
WO2024089901A1 (en) * 2022-10-28 2024-05-02 株式会社イノアックコーポレーション Electric device

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
WO2024089901A1 (en) * 2022-10-28 2024-05-02 株式会社イノアックコーポレーション Electric device

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