CN205430022U - Linear vibrating motor - Google Patents
Linear vibrating motor Download PDFInfo
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- CN205430022U CN205430022U CN201520955134.9U CN201520955134U CN205430022U CN 205430022 U CN205430022 U CN 205430022U CN 201520955134 U CN201520955134 U CN 201520955134U CN 205430022 U CN205430022 U CN 205430022U
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Abstract
The utility model provides a linear vibrating motor, including oscillator and stator, the oscillator includes the balancing weight and inlays the vibrating mass who establishes in the balancing weight that the stator includes stator coil and sets up the inside guiding core at stator coil, wherein, vibrating mass includes at least two polarity identical that border on the permanent magnet of setting and set up the magnetic yoke magnet between adjacent permanent magnet, the contiguous end of the permanent magnet of per two adjacent settings, and in the both ends of magnetic yoke magnet, at least the cross -sectional width of one end is greater than the mid portion's of magnetic yoke magnet cross -sectional width, the structure looks adaptation of the structure of permanent magnet and the magnetic yoke magnet that borders on. The trend of utilizing above -mentioned linear vibrating motor can control the magnetic line of force increases the magnetic line of force through stator coil to reinforcing linear vibrating motor's the sense of shaking.
Description
Technical field
This utility model relates to consumption electronic product technical field, more specifically, relates to a kind of linear vibration motor being applied to portable consumer electronics product.
Background technology
Along with the development of communication technology, portable type electronic product, as mobile phone, handheld device or palm multimedia entertainment equipment etc. enter the life of people.In these portable type electronic products, typically can do system feedback with vibrating motor, the incoming call prompting of such as mobile phone, the vibrational feedback etc. of game machine.But, along with the lightening development trend of electronic product, its internal various components and parts also need to adapt to this trend, and vibrating motor is no exception.
Existing vibrating motor, generally comprises upper cover and upper cover and forms the lower cover of oscillation space, does the oscillator (including balancing weight and permanent magnet) of linear vibration, be connected upper cover and make oscillator do elastic supporting member for supporting optical member of reciprocating vibration and be positioned at the stator coil of oscillator distance below in oscillation space.
In the vibrating motor of above-mentioned this structure, the produced magnetic line of force ratio of the permanent magnet in oscillator itself is relatively decentralized, and the relative magnetic flux through stator coil also can be smaller, and the active force of generation can be smaller, affects vibration sense effect；When moving to two ends, the mode that vertically magnetizes is also little through the magnetic flux of stator coil, thus has influence on the vibration sense of electronic product, straight-line oscillation response speed compared with slow, vibration sense is little.
Utility model content
In view of the above problems, the purpose of this utility model is to provide a kind of linear vibration motor, to solve vibratory response speed existing for current motor compared with the problem such as slow, vibration sense is little.
Thering is provided a kind of linear vibration motor according to this utility model, including oscillator and stator, oscillator includes balancing weight and the vibrating mass being embedded in balancing weight, and stator includes stator coil and is arranged on the magnetic conduction core within stator coil；Wherein, vibrating mass includes at least two blocks of permanent magnets being provided adjacent to and the conductive magnetic yoke/Magnet being arranged between adjacent permanent magnet, and the polarity of the abutting end of the permanent magnet of every two pieces of adjacent settings is identical；Further, in the two ends of conductive magnetic yoke/Magnet, at least the cross-sectional width of one end is more than the cross-sectional width of the mid portion of conductive magnetic yoke/Magnet, and the structure of permanent magnet is suitable with the structure of adjacent conductive magnetic yoke/Magnet.
Furthermore it is preferred that scheme be that the cross section of conductive magnetic yoke/Magnet is dies, permanent magnet is provided with the avoiding structure suitable with dies.
Furthermore it is preferred that scheme be that the cross section of conductive magnetic yoke/Magnet is trapezium structure；The cross-sectional width of the upper surface of conductive magnetic yoke/Magnet is more than the cross-sectional width of mid portion；Or, the cross-sectional width of the lower surface of conductive magnetic yoke/Magnet is more than the cross-sectional width of mid portion；Permanent magnet is correspondingly arranged on avoiding structure near one end of conductive magnetic yoke/Magnet.
Furthermore it is preferred that scheme be that the axis direction of stator coil is vertical with the magnetizing direction of the permanent magnet of vibrating mass, conductive magnetic yoke/Magnet and magnetic conduction core Heterogeneous Permutation.
Furthermore it is preferred that scheme be, between conductive magnetic yoke/Magnet and the magnetic conduction core corresponding with conductive magnetic yoke/Magnet, distance d of horizontal direction is positioned at the numerical range of [0.1mm, 0.3mm].
Furthermore it is preferred that scheme be that stator includes the corresponding stator coil being arranged on oscillator side or upper and lower both sides and arranges magnetic conduction core in the stator coils, and the axis direction of stator coil is vertical with the magnetizing direction of the permanent magnet of vibrating mass.
In addition, preferably scheme is, when stator include the corresponding stator coil being arranged on the upper and lower both sides of vibrating mass and arrange in the stator coils magnetic conduction core time, the corresponding stator coil being arranged on the upper and lower both sides of vibrating mass is parallel to each other and the sense of current in stator coil is contrary.
Furthermore it is preferred that scheme be that the position of corresponding stator is provided with the avoiding structure dodging stator on balancing weight；Medium position at balancing weight is provided with the groove accommodating vibrating mass.
Furthermore it is preferred that scheme be also to include shell；It is symmetrically arranged with at the two ends of oscillator and recommends Magnet；Position corresponding with recommending Magnet on shell is fixedly installed and recommends coil around recommend Magnet；Recommend coil winding recommending on coil rack.
Furthermore it is preferred that scheme be to be provided with to house on balancing weight and recommend the accepting groove of Magnet.
Utilize above-mentioned according to linear vibration motor of the present utility model, conductive magnetic yoke/the Magnet of polymorphic structure is set between the permanent magnet of oscillator, the magnetic line of force produced permanent magnet by the conductive magnetic yoke/Magnet of polymorphic structure is gathered, make stator be obtained in that the biggest magnetic flux, thus strengthen the seismaesthesia of linear vibration motor.
Accompanying drawing explanation
By with reference to below in conjunction with the explanation of accompanying drawing and the content of claims, and along with being more fully understood from of the present utility model, other purpose of the present utility model and result will be more apparent and should be readily appreciated that.In the accompanying drawings:
Fig. 1 is the decomposition texture schematic diagram of the linear vibration motor according to this utility model embodiment；
Fig. 2 is the cross-sectional view of the linear vibration motor according to this utility model embodiment；
Fig. 3-1 is the conductive magnetic yoke according to this utility model embodiment/Magnet cross section structure schematic diagram one；
Fig. 3-2 is the conductive magnetic yoke according to this utility model embodiment/Magnet cross section structure schematic diagram two；
Fig. 4-1 is the vibrating mass according to this utility model embodiment and stator combined structure schematic diagram；
Fig. 4-2 is the vibrating mass stress schematic diagram under the stator coil "on" position in Fig. 4-1；
Fig. 5-1 is the vibrating mass according to another specific embodiment of this utility model and stator combined structure schematic diagram；
Fig. 5-2 is the vibrating mass stress schematic diagram under the stator coil "on" position in Fig. 5-1.
Reference therein includes: upper cover 1, recommends coil 2, recommend coil rack 3, recommend Magnet 4, balancing weight 5, accepting groove 51a, accepting groove 51b, groove the 52, first stator coil the 61, second stator coil the 62, first magnetic conduction core the 71, second magnetic conduction core the 72, first permanent magnet the 81, second permanent magnet the 82, the 3rd permanent magnet 83, the first conductive magnetic yoke/Magnet 91, the second conductive magnetic yoke/Magnet 92, shell fragment 10, lower cover 11.
The most identical label indicates similar or corresponding feature or function.
Detailed description of the invention
In the following description, for purposes of illustration, in order to provide the comprehensive understanding to one or more embodiments, many details are elaborated.It may be evident, however, that these embodiments can also be realized in the case of not having these details.In other example, for the ease of describing one or more embodiments, known structure and equipment illustrate in block form an.
The produced magnetic line of force ratio of permanent magnet itself for solving in existing vibrating motor structure in oscillator is relatively decentralized, and the relative magnetic flux through stator coil also can be smaller, thus affects the problems such as the vibrating effect of product.This utility model arranges the conductive magnetic yoke/Magnet of polymorphic structure between the permanent magnet of oscillator, the magnetic line of force produced permanent magnet by the conductive magnetic yoke/Magnet of polymorphic structure is gathered, stator is made to be obtained in that the biggest magnetic flux, thus strengthen the seismaesthesia of linear vibration motor, it is thus achieved that preferably Consumer's Experience.
For describing linear vibration motor structure of the present utility model in detail, below with reference to accompanying drawing, specific embodiment of the utility model is described in detail.
Fig. 1 shows the decomposition texture of the linear vibration motor according to this utility model embodiment；Fig. 2 shows the cross-section structure of the linear vibration motor according to this utility model embodiment.
As Fig. 1 and Fig. 2 jointly shown in, the linear vibration motor of this utility model embodiment, including oscillator and the stator that be arranged in parallel with oscillator, oscillator includes balancing weight and the vibrating mass being embedded in balancing weight, and stator includes stator coil and is arranged on the magnetic conduction core within stator coil；Wherein, vibrating mass includes at least two blocks of permanent magnets being provided adjacent to and the conductive magnetic yoke/Magnet being arranged between permanent magnet, the polarity of the abutting end of the permanent magnet of every two pieces of adjacent settings is identical, and, in the two ends of conductive magnetic yoke/Magnet, at least the cross-sectional width of one end is more than the cross-sectional width of the mid portion of conductive magnetic yoke/Magnet, the structure of permanent magnet is suitable with the structure of adjacent conductive magnetic yoke/Magnet, the magnetic line of force produced permanent magnet by the conductive magnetic yoke/Magnet of polymorphic structure is gathered, thus increase the magnetic line of force through stator coil, the final vibrating effect strengthening linear vibration motor.
Specifically, Fig. 3-1 and Fig. 3-2 shows two kinds of odd-shaped cross section structures of the conductive magnetic yoke/Magnet according to this utility model embodiment.
As shown in Fig. 3-1 and Fig. 3-2, in the two ends of conductive magnetic yoke/Magnet, at least the cross-sectional width of one end is more than the cross-sectional width of the mid portion of conductive magnetic yoke/Magnet.In the cross section structure of the conductive magnetic yoke/Magnet shown in Fig. 3-1, the cross section dies of conductive magnetic yoke/Magnet, the cross-sectional width at conductive magnetic yoke/Magnet two ends is all higher than the cross-sectional width of the middle part of conductive magnetic yoke/Magnet.In the cross section structure of the conductive magnetic yoke/Magnet shown in Fig. 3-2, the cross section of conductive magnetic yoke/Magnet is trapezium structure, the cross-sectional width of its one end is more than the cross-sectional width of the middle part of conductive magnetic yoke/Magnet, figure is specifically illustrated as the cross-sectional width cross-sectional width more than middle part of lower end, in fact, when the cross section of conductive magnetic yoke/Magnet is trapezium structure, it is also possible to be the cross-sectional width cross-sectional width more than conductive magnetic yoke/Magnet of its upper end.Assembling for the ease of vibrating mass, permanent magnet is provided with the avoiding structure suitable with dies or trapezium structure, conductive magnetic yoke/the Magnet of polymorphic structure is arranged between the permanent magnet of oscillator and stator can be made to obtain the biggest magnetic flux, thus strengthen the vibration sense of linear vibration motor.
It should be noted that, the polymorphic structure of the conductive magnetic yoke/Magnet involved by linear vibration motor of the present utility model is not limited to the concrete structure shown in accompanying drawing, guarantee in the two ends of conductive magnetic yoke/Magnet, at least the cross-sectional width of one end is more than the cross-sectional width of the mid portion of conductive magnetic yoke/Magnet, it is also possible to deforms the structure of conductive magnetic yoke/Magnet on this basis or improves.It is further to note that the Magnet in the conductive magnetic yoke/Magnet related in the application, specially can substitute conductive magnetic yoke for strengthening magnetic field intensity, concentrating the Magnet of the magnetic line of force.
Additionally, the stator in linear vibration motor of the present utility model, including the corresponding stator coil being arranged on oscillator side or upper and lower both sides and setting magnetic conduction core in the stator coils, the axis direction of stator coil is vertical with the magnetizing direction of the permanent magnet of vibrating mass.Wherein, when stator include the corresponding stator coil being arranged on the upper and lower both sides of vibrating mass and arrange in the stator coils magnetic conduction core time, the corresponding stator coil being arranged on the upper and lower both sides of vibrating mass is parallel to each other and the sense of current in stator coil is contrary.
As specific embodiment, the structure of linear vibration motor will be described in detail using the cross section of conductive magnetic yoke/Magnet for dies below.
Shown in Fig. 1 and Fig. 2, in a detailed description of the invention of the present utility model, linear vibration motor includes shell, houses oscillator in the enclosure and the stator be arrangeding in parallel with oscillator, and shell includes upper cover 1 and fixing lower cover 11 suitable with upper cover；Oscillator includes balancing weight 5 and is embedded at the vibrating mass within balancing weight 5, the second conductive magnetic yoke/Magnet 92 that vibrating mass includes first permanent magnet the 81, second permanent magnet the 82, the 3rd permanent magnet 83 and the first conductive magnetic yoke/Magnet 91 being arranged between the first permanent magnet 81 and the second permanent magnet 82, is arranged between the second permanent magnet 82 and the 3rd permanent magnet 83；Stator includes being positioned at the first stator pack on the upside of oscillator and is positioned at symmetrical with the first stator pack on the downside of oscillator and the second stator pack be arrangeding in parallel.First stator pack includes the first stator coil 61 and the first magnetic conduction core 71 being arranged in the first stator coil 61, and the second stator pack includes the second stator coil 62 and the second magnetic conduction core 72 being arranged in the second stator coil 62；First stator coil 61 and the second stator coil 62 be arranged in parallel, and charging current is in opposite direction.
Specifically, in three block permanent magnets of adjacent setting, each permanent magnet is identical with the polarity of the abutting end of the permanent magnet being connected, i.e. order or N-S, S-N, N-S order arrangement in S-N, N-S, S-N, conductive magnetic yoke/Magnet is arranged between adjacent permanent magnet, and the magnetizing direction of permanent magnet is vertical with the axis direction of the stator coil of stator.Herein, the axis direction of stator coil is the direction at the central axis place of stator coil and magnetic conduction core therein, and in this specific embodiment, the magnetizing direction of Magnet is horizontal direction, and the axis direction of stator coil is vertical direction.The strength repelled each other can be produced due between the two ends that the polarity that two permanent magnets are adjacent is identical, therefore, the magnetic line of force of permanent magnet can be concentrated through the conductive magnetic yoke/Magnet between adjacent two permanent magnet and be arranged on the stator coil below vibrating mass, thus increases the magnetic flux through stator coil as far as possible.
Wherein, the axis direction of the stator coil of stator is vertical with the magnetizing direction of the permanent magnet of vibrating mass, conductive magnetic yoke/Magnet and magnetic conduction core Heterogeneous Permutation.Between conductive magnetic yoke/Magnet and the magnetic conduction core corresponding with conductive magnetic yoke/Magnet as shown in Figure 1, distance d of horizontal direction is positioned at [0.1mm, 0.3mm] numerical range in, it is to say, the horizontal range of the centrage of the magnetic conduction core of corresponding (namely nearest) stator of the distance between center line of each conductive magnetic yoke/Magnet is 0.1～0.3mm.Shown in accompanying drawing, distance between first magnetic conduction core 71 and the first conductive magnetic yoke/Magnet 91 and the second conductive magnetic yoke/Magnet 92 is equal to the distance between the second magnetic conduction core 72 and the first conductive magnetic yoke/Magnet 91 and the second conductive magnetic yoke/Magnet 92, and this distance is respectively positioned in the numerical range of [0.1mm, 0.3mm].
Additionally, the position of corresponding stator is provided with the avoiding structure dodging stator on balancing weight 5；Medium position at balancing weight 5 is provided with the groove 52 accommodating vibrating mass.The length in linear vibration motor X-direction of corresponding second permanent magnet 82 is more than the length of its other permanent magnets being provided adjacent to, therefore, on balancing weight 5, the corresponding groove housing the second permanent magnet 82 is also configured as the structure that intermediate sizes is relatively big, both sides size is less, thus when permanent magnet is assembled in the groove 52 of balancing weight 5 successively, it is possible to the permanent magnet that size is different is positioned respectively.Wherein, balancing weight 5 can use tungsten steel block or nickel steel block or the contour density-metal material of nickel tungsten to make, and to strengthen vibration force, the vibration making electronic product is more intensive.
In another detailed description of the invention of the present utility model, stator can be provided only on side or the both sides of oscillator.It is symmetricly set on oscillator both sides and only side at oscillator as Fig. 4-1, Fig. 4-2 and Fig. 5-1, Fig. 5-2 respectively illustrate stator coil the vibrating mass of stator coil and stator combined structure and its vibrating mass stressing conditions under stator coil "on" position are set.
The oscillator of explanation this utility model linear vibration motor as a example by Fig. 4-1 and Fig. 4-2 is provided with operation principle during two block permanent magnets.According to Fig. 4-1 and Fig. 4-2, in the linear vibration motor of this utility model embodiment, oscillator includes three blocks of permanent magnets being provided adjacent to and the conductive magnetic yoke/Magnet being arranged between adjacent permanent magnet, is positioned at the first stator pack above oscillator symmetrical about oscillator with the second stator pack being positioned at below oscillator.
As shown in Fig. 4-1, under static state, the distance between the first magnetic conduction core and the first conductive magnetic yoke/Magnet and the second conductive magnetic yoke/Magnet is equal to the distance between the second magnetic conduction core and the first conductive magnetic yoke/Magnet and the second conductive magnetic yoke/Magnet.To the first stator coil being positioned on the upside of oscillator be positioned at after the second stator coil on the downside of oscillator is passed through electric current in opposite direction, according to judging electrical conductor left hand rule of Impact direction in magnetic field, stretch out left hand, make thumb and remaining four finger vertical, and all with palm in the same plane；Allowing magnetic induction line enter from the centre of the palm, and make four fingers point to sense of current, at this moment the direction of thumb indication is exactly electrified wire direction of suffered Ampere force in magnetic field.
As shown in the Fig. 4-2, being denoted as " ⊙ " sense of current is that vertical view faces out, and is denoted asThe sense of current is that vertical view is towards inner, it is assumed that the energising direction of the first stator coil be "And ⊙ ", the energising of second stator coil and the first stator coil is in opposite direction is " ⊙ and", according to left hand rule the first stator coil and the second stator coil, the Impact direction in magnetic field is F ' to the left, owing to stator coil maintains static, and relation based on active force Yu counteracting force, then permanent magnet stress F to the right.So, just driven balancing weight to do translational motion to the right together by the permanent magnet of motive force to the right, thus extrude the bolster (such as, spring or shell fragment) on the right side of balancing weight, the bolster on the left of stretching balancing weight.
In like manner, when the sense of current in the first stator coil and the second stator coil changes simultaneously, according to left hand rule, the direction of the magnetic field force F ' that stator coil is subject to is to the right.But owing to stator coil maintains static, then permanent magnet is by the active force of in opposite direction with F ' and that size is identical F, just driven balancing weight to do translational motion to the left together by the permanent magnet of motive force to the left, make the bolster at balancing weight two ends continue to be stretched/extrude after extruding/extended state restores to the original state simultaneously.Alternately, the oscillator making vibrating mass and the balancing weight of permanent magnet and conductive magnetic yoke/Magnet composition be formed moves reciprocatingly in the direction of the mounting plane being parallel to stator, thus realizes the vibration of linear vibration motor in above-mentioned motion.
It should be noted that the situation that the permanent magnet that stator is provided only in the situation of oscillator side and vibrating mass is set to two pieces is all similar with the vibration principle of above-mentioned linear vibration motor, here is omitted.
Shown in Fig. 1, in another detailed description of the invention of the present utility model, it is symmetrically arranged with at the two ends of balancing weight 5 and recommends Magnet 4 and house and recommend the accepting groove of Magnet 4 and (include accepting groove 51a and accepting groove 51b, lower same), recommend Magnet 4 for two pieces and be individually positioned in corresponding accepting groove.Position corresponding with recommending Magnet 4 on shell is fixedly installed and recommends coil 2 around recommend Magnet 4, after recommending coil 2 energising, the Magnet 4 of recommending recommending coil 2 internal with it matches, it is fixed on shell immovable owing to recommending coil 2, so that recommending Magnet 4 by active force onesize, in opposite direction, move reciprocatingly offer driving force along on the direction of the plane parallel at stator place for oscillator.
Wherein, for convenience of to recommending the coiling of coil 2 and fixing, linear vibration motor of the present utility model can also include recommend coil rack 3, recommend coil 2 to be wound on and recommend on coil rack 3, by being fixed on recommending coil rack 3 on the shell of linear vibration motor, it is possible to realize indirectly making to recommend coil 2 and be fixed on shell.
It addition, can also arrange shell fragment 10 at the two ends of balancing weight 5, one end of shell fragment 10 is connected with balancing weight, and the other end is fixed on shell, thus is hung on by oscillator in the space that shell is formed, and the vibration for oscillator provides elastic restoring force；The magnetic field of change is produced after magnetic conduction core energising in stator, moved reciprocatingly along the direction parallel with stator place plane by the always drive vibrator of walking changing magnetic field magnetic line, i.e. permanent magnet in vibrating mass and the magnetic conduction core in stator produces the traction thrust interacted, and finally makes linear vibration motor vibrate
Utilize above-mentioned according to linear vibration motor of the present utility model, conductive magnetic yoke/the Magnet being arranged between permanent magnet is set to polymorphic structure, and the magnetic line of force produced permanent magnet by the conductive magnetic yoke/Magnet of polymorphic structure gathered, make stator be obtained in that the biggest magnetic flux, strengthen the vibration sense of linear vibration motor.
Describe in an illustrative manner according to linear vibration motor of the present utility model above with reference to accompanying drawing.It will be understood by those skilled in the art, however, that the linear vibration motor that above-mentioned this utility model is proposed, it is also possible on the basis of without departing from this utility model content, make various improvement.Therefore, protection domain of the present utility model should be determined by the content of appending claims.
Claims (10)
1. a linear vibration motor, including oscillator and stator, described oscillator includes balancing weight and the vibrating mass being embedded in described balancing weight, and described stator includes stator coil and is arranged on the magnetic conduction core within described stator coil；It is characterized in that,
Described vibrating mass includes at least two blocks of permanent magnets being provided adjacent to and the conductive magnetic yoke/Magnet being arranged between adjacent permanent magnet, and the polarity of the abutting end of the permanent magnet of every two pieces of adjacent settings is identical；Further,
In the two ends of described conductive magnetic yoke/Magnet, at least the cross-sectional width of one end is more than the cross-sectional width of the mid portion of described conductive magnetic yoke/Magnet, and the structure of described permanent magnet is suitable with the structure of adjacent conductive magnetic yoke/Magnet.
2. linear vibration motor as claimed in claim 1, it is characterised in that
The cross section of described conductive magnetic yoke/Magnet is dies, is provided with the avoiding structure suitable with described dies on described permanent magnet.
3. linear vibration motor as claimed in claim 1, it is characterised in that
The cross section of described conductive magnetic yoke/Magnet is trapezium structure；The cross-sectional width of the upper surface of described conductive magnetic yoke/Magnet is more than the cross-sectional width of mid portion；Or, the cross-sectional width of the lower surface of described conductive magnetic yoke/Magnet is more than the cross-sectional width of mid portion；Described permanent magnet is correspondingly arranged on avoiding structure near one end of described conductive magnetic yoke/Magnet.
4. linear vibration motor as claimed in claim 1, it is characterised in that
The axis direction of described stator coil is vertical with the magnetizing direction of the permanent magnet of described vibrating mass, described conductive magnetic yoke/Magnet and described magnetic conduction core Heterogeneous Permutation.
5. linear vibration motor as claimed in claim 4, it is characterised in that
Between described conductive magnetic yoke/Magnet and the described magnetic conduction core corresponding with described conductive magnetic yoke/Magnet, distance d of horizontal direction is positioned in the numerical range of [0.1mm, 0.3mm].
6. linear vibration motor as claimed in claim 1, it is characterised in that
Described stator includes the corresponding stator coil being arranged on described oscillator side or upper and lower both sides and the magnetic conduction core being arranged in described stator coil, and the axis direction of described stator coil is vertical with the magnetizing direction of the permanent magnet of described vibrating mass.
7. linear vibration motor as claimed in claim 6, it is characterised in that when stator includes the corresponding stator coil being arranged on the upper and lower both sides of described vibrating mass with the magnetic conduction core being arranged in described stator coil,
The described corresponding stator coil being arranged on the upper and lower both sides of described vibrating mass is parallel to each other and the sense of current in stator coil is contrary.
8. linear vibration motor as claimed in claim 7, it is characterised in that
On described balancing weight, the position of corresponding described stator is provided with the avoiding structure dodging described stator；
Medium position at described balancing weight is provided with the groove accommodating described vibrating mass.
9. linear vibration motor as claimed in claim 1, it is characterised in that also include shell；
It is symmetrically arranged with at the two ends of described oscillator and recommends Magnet；
On the housing with described recommend the corresponding position of Magnet be fixedly installed around described in recommend Magnet recommend coil；Described coil winding of recommending is being recommended on coil rack.
10. linear vibration motor as claimed in claim 9, it is characterised in that
Balancing weight is provided with the accepting groove recommending Magnet described in collecting.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201520955134.9U CN205430022U (en) | 2015-11-25 | 2015-11-25 | Linear vibrating motor |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201520955134.9U CN205430022U (en) | 2015-11-25 | 2015-11-25 | Linear vibrating motor |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN205430022U true CN205430022U (en) | 2016-08-03 |
Family
ID=56536337
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201520955134.9U Withdrawn - After Issue CN205430022U (en) | 2015-11-25 | 2015-11-25 | Linear vibrating motor |
Country Status (1)
| Country | Link |
|---|---|
| CN (1) | CN205430022U (en) |
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| WO2017133152A1 (en) * | 2016-02-05 | 2017-08-10 | 歌尔声学股份有限公司 | Linear vibration motor |
-
2015
- 2015-11-25 CN CN201520955134.9U patent/CN205430022U/en not_active Withdrawn - After Issue
Cited By (2)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| WO2017133152A1 (en) * | 2016-02-05 | 2017-08-10 | 歌尔声学股份有限公司 | Linear vibration motor |
| US11469656B2 (en) | 2016-02-05 | 2022-10-11 | Goertek Inc. | Linear vibrating motor |
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| Date | Code | Title | Description |
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| C14 | Grant of patent or utility model | ||
| GR01 | Patent grant | ||
| C56 | Change in the name or address of the patentee | ||
| CP01 | Change in the name or title of a patent holder |
Address after: 261031 Dongfang Road, Weifang high tech Industrial Development Zone, Shandong, China, No. 268 Patentee after: Goertek Inc. Address before: 261031 Dongfang Road, Weifang high tech Industrial Development Zone, Shandong, China, No. 268 Patentee before: Goertek Inc. |
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| AV01 | Patent right actively abandoned | ||
| AV01 | Patent right actively abandoned |
Granted publication date: 20160803 Effective date of abandoning: 20190118 |