WO2019000214A1

WO2019000214A1 - Multi-directionally movable voice coil motor, and dual-camera and dual-optical anti-vibration module

Info

Publication number: WO2019000214A1
Application number: PCT/CN2017/090294
Authority: WO
Inventors: 刘志远; 洪航庆
Original assignee: 东莞佩斯讯光电技术有限公司
Priority date: 2017-06-27
Filing date: 2017-06-27
Publication date: 2019-01-03

Abstract

The present invention is applicable to the technical field of photographing driver devices, and provides a multi-directionally movable voice coil motor, and a dual-camera and dual-optical anti-vibration module. The voice coil motor comprises a load assembly, a metal magnetic yoke, a magnet set, an upper spring, a lower spring, an upper gasket, and a lower cover. The metal magnetic yoke can shield an external magnetic field, and avoids external magnetic interference. Multiple coils can be connected in series or in parallel to constitute more than at least three coil sets operating independently, in order to control lenses to move in directions of three degrees of freedom and deflect about an X/Y axis, so that automatic focusing and optical anti–vibration can be implemented, the deflection between a lens and an image sensor generated due to assembly or the implementation of automatic focusing and anti-vibration can also be corrected, and the alignment problem between optical axes of a main camera and a secondary camera of a dual-camera module can also be overcome. The movement portion of the motor has no magnet and light weight, and is not easy to be influenced by an external magnetic field. By applying two motors to a dual-camera and dual-optical anti-vibration module, the module can have an optical anti-vibration function.

Description

A multi-directional moving voice coil motor and a dual-camera dual optical anti-shake module

Technical field

The invention belongs to the technical field of camera driving devices, and particularly relates to a voice coil motor capable of multi-directional movement and a double-camera dual optical anti-shake module.

Background technique

The camera pixel of the mobile phone has been upgraded, and the function requirements are more diversified. The anti-shake function is already the standard configuration of the mobile phone, and the market is TDK. MITSUMI and ALPS production belt OIS The function of the motor is dominant. However, the optical anti-shake motors of the above three are complicated in structure due to the magnets in the moving parts designed by themselves, and the moving parts are heavy and consume a large amount of electricity. And because there are magnets in the moving parts, the motor is easily affected by the external magnetic field or the magnetic field of the nearby motor. Therefore, it is currently impossible to use two motors with optical anti-shake function on the dual camera at the same time, that is, the double-lens double optical anti-shake mode cannot be realized. group.

On the other hand, the current optical image stabilization motor moves in three dimensions, Z-direction AF and translation or around in the X&Y plane. The deflection of the X/Y axis, but the translation of the X&Y plane produces a deflection of the optical axis from the Z axis, and the deflection around the X/Y axis also brings along Z. The deflection in the axial direction and the error in the assembly process of the module will cause the lens to form a certain angle with the image sensor, resulting in the image of the camera module being unclear at the four corners and the edges, especially in the pixel. The higher the case, the more difficult the imaging problem becomes. All mobile phones, modules and motor factories have made efforts to solve the problems they are currently encountering, such as the need to introduce modules during the assembly process. The AA machine reduces assembly errors, but the AA machine is costly, and production efficiency and yield are less than ideal.

technical problem

The technical problem to be solved by the present invention is to provide a multi-directional moving voice coil motor and a dual-camera dual optical anti-shake module, which aims to solve the problem that the prior art cannot simultaneously use two optical anti-shake functions on the dual camera. The motor and the assembly angle and the like easily cause a certain angle between the lens and the image sensor.

Technical solution

The embodiment of the invention provides a multi-directional moving voice coil motor, which comprises a loading assembly for loading a lens, a metal yoke covered on the outside of the loading assembly, a plurality of magnet sets, an upper spring, a lower spring, an upper gasket, and a lower cover;

The outer side of the loading assembly is fixed with at least two anti-shake coils distributed along the circumferential direction of the loading assembly, the plane of the winding of the anti-shake coil is perpendicular to the axial direction of the loading assembly; At least two deflection focus coils are further fixed on the side, and the winding plane of the deflection focus coil is parallel to the axial direction of the loading assembly;

The magnet group is fixed on an inner side surface of the metal yoke, and an anti-shake coil and a deflection focus coil jointly correspond to a magnet group; wherein an end of the magnet group facing the loading assembly is an inner end portion, One end facing away from the loading assembly is an outer end portion, and the inner end portion is opposite in polarity to the outer end portion; the magnet group is divided into an upper end portion and a lower end portion along an axial direction of the loading assembly, the magnet The upper end of the group is opposite to a side of the deflection focus coil and the lower end is opposite to a side of the deflection focus coil;

The deflection focus coil corresponds to an end surface of an inner end portion of the magnet group, and an upper lateral side of the deflection focus coil is located in a magnetic field of an upper end portion; a magnetic field of a lower lateral side of the deflection focus coil is located at a lower end portion The anti-shake coil corresponds to an end surface of an upper end portion or a lower end portion of the magnet group, and a left lateral side of the anti-shake coil is located in a magnetic field at an outer end portion of the magnet group, and the anti-shake coil The right lateral side is located in the magnetic field at the inner end of the magnet group;

An upper end of the loading assembly is fixedly coupled to the upper spring, a lower end thereof is fixedly coupled to the lower spring; the upper spring is coupled to the upper gasket, and the lower spring is coupled to the lower cover, the upper portion The spacer and the lower cover are mutually inserted; the lower cover has a terminal for electrically connecting with an external circuit, and the anti-shake coil and the deflection focus coil pass the upper spring, the lower spring, and the upper gasket and the lower cover The electrical connection of the terminals.

Further, the magnet group is a magnet that is magnetized by a plane two poles in a plane perpendicular to the axial direction of the loading assembly, or may be two ordinary magnets stacked on top of each other.

Further, the loading assembly includes a carrier and a bracket stacked one above another in the optical axis direction of the voice coil motor, the carrier and the bracket being a split structure or a unitary structure; all the anti-shake coils are fixed on the carrier, and Distributed along the circumferential spacing of the carrier; all of the deflection focus coils are attached to the stent and distributed along the circumferential spacing of the stent.

Further, the voice coil motor includes at least two sets of anti-shake coils, wherein each set of anti-shake coils includes two oppositely disposed anti-shake coils, and two anti-shake coils of the same group are connected in series/parallel or mutually to the outside The control circuit is connected; four of the two sets of anti-shake coils are evenly distributed on the outer circumference of the carrier.

Further, the voice coil motor includes two sets of yaw focus coils, wherein each set of yaw focus coils includes two oppositely disposed yaw focus coils, and the same set of two yaw focus coils are connected in series/parallel to each other; The four deflection focus coils in the deflection focus coil are evenly distributed on the outer circumference of the bracket.

Further, the outer circumference of the bracket extends along the circumferential direction of four evenly distributed card strips, and the deflection focus coil is sleeved on the card strip.

Further, the upper spring and the lower spring are respectively provided with a conductive line, and the anti-shake coil and the deflection focus coil are electrically connected to the conductive lines on the upper spring and the lower spring; the upper gasket extends to conduct electricity a pin, the conductive line of the upper spring is electrically connected to the pin of the upper pad, the conductive line of the lower spring is electrically connected to the terminal of the lower cover; and the lower cover is provided with a avoidance hole, When the gasket and the lower cover are inserted into each other, the pin passes through the escape hole of the lower cover.

Further, the upper spring includes four connecting units staggered in the circumferential direction of the loading assembly, each connecting unit unit including an upper outer arm, an upper middle arm, an upper inner arm, and an upper spring arm connected between the three The upper outer arm is fixedly attached to the upper spacer, the upper intermediate arm is attached to the upper end surface of the bracket, and the upper inner arm is fixedly fixed on the upper end surface of the carrier, and Electrically connected to the anti-shake coil and the deflection focus coil.

Further, the lower spring comprises eight connecting units which are staggered in the circumferential direction of the loading assembly, each connecting unit unit includes a lower outer arm, a lower spring arm and a lower inner arm, and the lower outer arm is fixedly fixed thereto. In the cover, the lower spring arm is attached to the lower end surface of the bracket, and the lower inner arm is fixedly fixed to the lower end surface of the carrier, and is electrically connected to the anti-shake coil and the deflection focus coil. .

In order to solve the above technical problem, the present invention also provides a dual-camera dual optical anti-shake module comprising two of the above-described multi-directional moving voice coil motors.

Beneficial effect

Compared with the prior art, the invention has the following advantages:

The magnet group is fixedly mounted on the inner side surface of the metal yoke; the loading assembly and the coil are suspended in the metal yoke by the upper spring and the lower spring, and the metal yoke can shield the external magnetic field and prevent external magnetic interference.

When the anti-shake coil is energized, the magnet group can generate different directions of force for the at least two anti-shake coils, the plane of the two forces being perpendicular to the optical axis (ie, the axis direction of the loading assembly), so that the loading assembly can be pushed The optical anti-shake function is realized by the controllable motion in any direction perpendicular to the plane of the optical axis. When a current of the same magnitude is applied to all of the deflection focus coils, the magnetic field of the magnet group produces a force parallel to the optical axis to the deflection focus coil, driving the loading assembly to move back and forth along the optical axis direction to achieve focusing. When a current of different magnitude or direction is applied to two deflection focus coils in the same group, the magnitude of the force generated by the magnetic field of the magnet group to the deflection focus coils on both sides is different, so that both sides of the loading assembly occur. Deflection, optical axis calibration and correction.

The motor mechanism of the invention has small volume and simple structure, wherein a plurality of coils can be connected in series or in parallel to form at least three sets of independent working coil groups, which can control the movement of the lens along three degrees of freedom (X, Y and Z directions). And the deflection around the X/Y axis, it can auto focus, optical image stabilization, and can correct the angle between the lens and the image sensor caused by assembly or focus or anti-shake, and can also overcome the main of the dual camera module. The alignment between the camera and the optical axis of the sub-camera ultimately improves the overall quality of the camera function of the camera. In addition, the multi-axis motor can completely cancel the AA machine in the module production process, which is a disruptive revolution, greatly reducing the dependence on production equipment, reducing production costs and improving production efficiency.

The internal moving part of the motor is a loading assembly and a coil. The loading assembly can be made of plastic. Since the moving parts have no magnet, the weight is light, the power consumption is low, and the external magnetic field is not easily affected. Therefore, there is no mutual magnetic field interference between the two motors located close to each other. The motor is applied to the dual-camera dual optical anti-shake module, so that the module can have an optical anti-shake function.

DRAWINGS

The one or more embodiments are exemplified by the accompanying drawings in the accompanying drawings, and FIG. The figures in the drawings do not constitute a scale limitation unless otherwise stated.

1 is a schematic exploded view of a multi-directional moving voice coil motor according to an embodiment of the present invention;

Figure 2 is a longitudinal cross-sectional view of the motor of Figure 1;

3 is a schematic view showing the positional relationship of a deflection focus coil, an anti-shake coil, and a magnet in the motor shown in FIG. 1;

Figure 4 is a perspective view showing the structure of the upper spring in the motor shown in Figure 1;

Fig. 5 is a perspective view showing the structure of a lower spring in the motor shown in Fig. 1.

Embodiments of the invention

The present invention will be further described in detail below with reference to the accompanying drawings and embodiments. It is understood that the specific embodiments described herein are merely illustrative of the invention and are not intended to limit the invention.

1 and 2, in accordance with a preferred embodiment of the present invention, a multi-directional moving voice coil motor includes a loading assembly for loading a lens, and a metal covering the outside of the loading assembly 1. The yoke 2, the magnet group 3, the deflection focus coil 4, the anti-shake coil 5, the upper spring 6, the lower spring 7, the upper spacer 8, and the lower cover 9.

At least two anti-shake coils 5 distributed along the circumferential direction of the loading unit 1 are fixed to the outer surface of the loading unit 1, and the plane of the winding of the anti-shake coil 5 is perpendicular to the axial direction of the loading unit 1. At least two deflection focus coils 4 are also fixed on the outer side surface of the loading assembly 1. In order to enable the loading assembly 1 to be deflected in two directions (i.e., respectively around the X axis and the Y axis), the present embodiment has two sets of deflection focus coils. 4. Each set of deflection focus coils 4 includes two deflection focus coils 4 respectively fixed to opposite outer faces of the loading assembly 1, and the winding plane of the deflection focus coils 4 is parallel to the axial direction of the loading assembly 1.

A plurality of magnet groups 3 are fixed to the inner side surface of the metal yoke 2. Referring to FIG. 3, an anti-shake coil 5 and a deflection focus coil 4 collectively correspond to a magnet group 3. Wherein, one end of the magnet group 3 facing the loading assembly 1 is an inner end portion, and one end facing away from the loading assembly 1 is an outer end portion, and the inner end portion and the outer end portion have opposite polarities; the magnet group 3 is along the axial direction of the loading assembly 1. Divided into an upper end portion and a lower end portion, the upper end portion of the magnet group 3 is opposite to the polarity of a side surface of the deflection focusing coil 4 close to the side surface of the deflection focusing coil 4.

The deflection focus coil 4 corresponds to the end surface of the inner end portion of the magnet group 3, and the upper lateral side 41 of the deflection focus coil 4 is located in the magnetic field of the upper end portion, and the lower lateral side 42 of the deflection focus coil 4 is located in the magnetic field of the lower end portion. The anti-shake coil 5 corresponds to the end surface of the upper end portion of the magnet group 3 (in practical applications, the anti-shake coil 5 can also be disposed at a position corresponding to the end surface of the lower end portion of the magnet group 3), and the left-hand side of the anti-shake coil 5 The side 53 is located in the magnetic field at the outer end of the magnet group 3, and the right lateral side 54 of the anti-shake coil 5 is located in the magnetic field at the inner end of the magnet group 3.

The upper end of the loading assembly 1 is fixedly connected to the upper spring 6, and the lower end thereof is fixedly connected to the lower spring 7; the upper spring 6 is connected to the upper spacer 8, the lower spring 7 is connected to the lower cover 9, and the upper spacer 8 and the lower cover 9 are mutually connected. Plug in. The lower cover 9 has a conductive terminal 91 for electrical connection with an external circuit, and the anti-shake coil 5 and the deflection focus coil 4 are electrically connected to the terminal 91 of the lower cover 9 via the upper spring 6, the lower spring 7, and the upper spacer 8.

Specifically, the magnet group 3 is two ordinary magnets stacked on top of each other (in practical applications, a magnet that is magnetized in a plane perpendicular to the plane perpendicular to the axis of the loading assembly 1), as shown in the figure, The magnet group 3 includes two stepped upper layer magnets 31 and a lower layer magnet 32. The inner end portion of the upper layer magnet 31 is an S pole, the outer end portion is an N pole, and the inner end portion of the lower layer magnet 32 is an N pole. The outer end is an S pole.

The loading assembly 1 includes a carrier 11 and a bracket 12 that are stacked one above another in the optical axis direction. The carrier 11 and the bracket 12 are in a separate structure or a unitary structure. In the present embodiment, the carrier 11 and the bracket 12 are in a separate structure, and all the anti-shake coils 5 are fixed on the carrier 11 and distributed along the circumferential direction of the carrier 11; all the deflection focusing coils 4 are fixed on the bracket 12, And distributed along the circumferential direction of the stent 12.

The voice coil motor described above includes two sets of anti-shake coils 5 and two sets of deflection focus coils 4. Each of the anti-shake coils 5 includes two anti-shake coils 5 disposed oppositely, and the two anti-shake coils 5 of the same group are connected in series or in parallel, or there is no direct electrical connection between the anti-shake coils 5, respectively. Connect to external circuits for separate control. Each set of deflection focus coils 4 includes two oppositely disposed deflection focus coils 4. The two deflection focus coils 4 of the same group are connected in series or in parallel, or there may be no direct electrical connection between the deflection focus coils 4, respectively. The circuit connections are individually controlled. Four uniformly distributed card slots (not shown) extend around the periphery of the carrier 11, and the four anti-shake coils 5 are respectively placed on the four card slots. The outer circumference of the bracket 12 extends four circumferentially distributed strips 121 along the circumferential direction thereof, and the four deflection focus coils 4 are respectively sleeved on the strips 121.

When the anti-shake coil 5 is energized, the magnet group 3 can generate forces in different directions for the two sets of anti-shake coils 5. In the present embodiment, the directions of the two forces are orthogonal to each other. The planes of the two forces are perpendicular to the optical axis (ie, the axial direction of the carrier 11), so that the carrier 11 and the components connected thereto can be pushed in a controlled motion in any direction perpendicular to the plane of the optical axis to achieve optical image stabilization. Features.

When a current of the same magnitude is supplied to each of the deflection focus coils 4, the lateral side 41 and the lower lateral side 42 of each of the deflection focus coils 4 correspond to one conductor, and the upper lateral side 41 and the lower lateral side 42 are respectively received by the upper layer magnet 31. The magnetic field of the lower layer magnet 32 is affected by the magnetic field in the axial direction of the bracket 12, and the direction of the magnetic field in the upper lateral side 41 and the lower lateral side 42 is opposite, so that the direction of the magnetic field is opposite, so the whole The magnitude and direction of the force of the magnet group 3 on each of the deflection focus coils 4 are the same. At this time, the magnet group 3 can push the bracket 12 and the member connected thereto to move up and down along the optical axis direction (ie, the axial direction of the bracket 12). , to achieve auto focus function. When currents of different magnitudes or directions are respectively transmitted to the two deflection focus coils 4 of the same group, the magnitude or direction of the force received by the deflection focus coil 4 on both sides of the bracket 12 is different, so that the bracket 12 is deflected along the X/Y axis. , to achieve optical axis calibration and correction.

In order to provide the upper spring 6 and the lower spring 7 with a conductive function, the upper spring 6 and the lower spring 7 are each provided with a conductive line (in practical applications, the upper spring 6 and the lower spring 7 are entirely made of a metal material, for example, copper or copper. alloy). The anti-shake coil 5 and the deflection focus coil 4 are electrically connected to the conductive lines on the upper spring 6 and the lower spring 7. The upper gasket 8 extends out of the conductive pin 81, the conductive line of the upper spring 6 is electrically connected to the pin 81 of the upper gasket 8, and the conductive line of the lower spring 7 is electrically connected to the terminal 91 of the lower cover 9; the lower cover 9 is opened When the upper spacer 8 and the lower cover 9 are inserted into each other, the pin 81 passes through the escape hole 92 of the lower cover 9 so as to be electrically connected to an external circuit.

Referring to FIG. 4, the upper spring 6 includes four connecting units staggered along the circumferential direction of the loading assembly 1, each connecting unit unit including an upper outer arm 61, an upper intermediate arm 62, an upper inner arm 63, and three connected Between the upper spring arms 64. The upper outer arm 61 is fixedly attached to the upper spacer 8, and the upper intermediate arm 62 is attached to the upper end surface of the bracket 12. The upper inner arm 63 is fixedly attached to the upper end surface of the carrier 11, and is coupled to the anti-shake coil 5 and the deflection. The focus coil 4 is electrically connected.

Referring to FIG. 5, the lower spring 7 includes eight connecting units which are alternately distributed along the circumferential direction of the loading assembly 1, and each of the connecting unit units includes a lower outer arm 71, a lower spring arm 72 and a lower inner arm 73 which are sequentially connected. The lower outer arm 71 is fixedly attached to the lower cover 9, the lower spring arm 72 is attached to the lower end surface of the bracket 12, and the lower inner arm 73 is fixedly attached to the lower end surface of the carrier 11, and is coupled to the anti-shake coil 5 and the deflection focus coil. 4 electrical connections.

In the multi-directional moving voice coil motor of the embodiment, the outer side cover of the loading assembly 1 is provided with a metal yoke 2, and the magnet group 3 is fixedly mounted on the inner side surface of the metal yoke 2; the loading assembly 1 and all the coils pass through the upper spring 6 The lower spring 7 is suspended in the metal yoke 2, and the metal yoke 2 can shield the external magnetic field from external magnetic interference.

The motor mechanism of the embodiment has a small volume and a simple structure, wherein a plurality of coils can be connected in series or in parallel to form at least three sets of independently working coil groups, which can control the lens in three degrees of freedom (X, Y and Z directions). Movement and deflection around the X/Y axis can autofocus, optical image stabilization, and correct the off-angle of the lens and image sensor caused by assembly or focus or anti-shake, and can also overcome the dual camera module The alignment between the main camera and the optical axis of the sub-camera ultimately improves the overall quality of the camera function of the electronic device such as a mobile phone. In addition, the multi-axis motor can completely cancel the AA machine in the module production process, which is a disruptive revolution, greatly reducing the dependence on production equipment, reducing production costs and improving production efficiency.

The embodiment also provides a dual-camera dual optical anti-shake module, comprising two multi-directional moving voice coil motors. The carrier 11 and the bracket 12 in this embodiment can be made of plastic. Since the moving parts have no magnet, the weight is light, the power consumption is low, and the external magnetic field is not easily affected. Therefore, there is no mutual magnetic field interference between the two motors located close to each other. The motor is applied to the dual-camera dual optical anti-shake module, so that the module can have an optical anti-shake function.

The above is only the preferred embodiment of the present invention, and is not intended to limit the present invention. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present invention should be included in the protection of the present invention. Within the scope.

Claims

A multi-directional moving voice coil motor, comprising: a loading assembly for loading a lens, a metal yoke covering the outside of the loading assembly, a plurality of magnet sets, an upper spring, a lower spring, an upper spacer, and a lower cover;

The outer side of the loading assembly is fixed with at least two anti-shake coils distributed along the circumferential direction of the loading assembly, the plane of the winding of the anti-shake coil is perpendicular to the axial direction of the loading assembly; At least two deflection focus coils are further fixed on the side, and the winding plane of the deflection focus coil is parallel to the axial direction of the loading assembly;

The magnet group is fixed on an inner side surface of the metal yoke, and an anti-shake coil and a deflection focus coil jointly correspond to a magnet group; wherein an end of the magnet group facing the loading assembly is an inner end portion, One end facing away from the loading assembly is an outer end portion, and the inner end portion is opposite in polarity to the outer end portion; the magnet group is divided into an upper end portion and a lower end portion along an axial direction of the loading assembly, the magnet The upper end of the group is opposite to a side of the deflection focus coil and the lower end is opposite to a side of the deflection focus coil;

The deflection focus coil corresponds to an end surface of an inner end portion of the magnet group, and an upper lateral side of the deflection focus coil is located in a magnetic field of an upper end portion; a magnetic field of a lower lateral side of the deflection focus coil is located at a lower end portion The anti-shake coil corresponds to an end surface of an upper end portion or a lower end portion of the magnet group, and a left lateral side of the anti-shake coil is located in a magnetic field at an outer end portion of the magnet group, and the anti-shake coil The right lateral side is located in the magnetic field at the inner end of the magnet group;

An upper end of the loading assembly is fixedly coupled to the upper spring, a lower end thereof is fixedly coupled to the lower spring; the upper spring is coupled to the upper gasket, and the lower spring is coupled to the lower cover, the upper portion The spacer and the lower cover are mutually inserted; the lower cover has a terminal for electrically connecting with an external circuit, and the anti-shake coil and the deflection focus coil pass the upper spring, the lower spring, and the upper gasket and the lower cover The electrical connection of the terminals.
The multi-directional moving voice coil motor according to claim 1, wherein the magnet group is a magnet that is magnetized in a plane perpendicular to the plane of the loading assembly, or two magnets. Stacked ordinary magnets.
A multi-directional motion voice coil motor according to claim 1, wherein said loading assembly comprises a carrier and a bracket stacked one above another in the optical axis direction of the voice coil motor, said carrier and the bracket being of a separate structure Or a unitary structure; all of the anti-shake coils are fixed on the carrier and distributed along the circumferential direction of the carrier; all of the deflection focus coils are fixed on the bracket and distributed along the circumferential direction of the bracket.
A multi-directional motion voice coil motor according to claim 3, wherein said voice coil motor comprises at least two sets of anti-shake coils, wherein each set of anti-shake coils comprises two oppositely disposed anti-shake coils. The two anti-shake coils of the same group are connected in series/parallel with each other or each connected to an external control circuit; four of the two sets of anti-shake coils are evenly distributed on the outer circumference of the carrier.
A multi-directional motion voice coil motor according to claim 3, wherein said voice coil motor comprises two sets of deflection focus coils, wherein each set of deflection focus coils comprises two oppositely disposed deflection focus coils, the same The two deflection focus coils of the group are connected in series/parallel to each other or to each of the external control circuits; four of the two sets of deflection focus coils are evenly distributed on the outer circumference of the bracket.
The multi-directional moving voice coil motor according to claim 3, wherein the outer periphery of the bracket extends four circumferentially distributed strips along a circumferential direction thereof, and the deflecting focus coil is sleeved on the On the card.
The multi-directional moving voice coil motor according to any one of claims 1 to 6, wherein the upper spring and the lower spring are each provided with a conductive line, and the anti-shake coil and the deflection focus coil are both Electrically connecting with the conductive line on the upper spring and the lower spring; the upper spacer extends out of the conductive pin, the conductive line of the upper spring is electrically connected to the pin of the upper pad, and the conductive of the lower spring The circuit is electrically connected to the terminal of the lower cover; the lower cover is provided with a relief hole, and when the upper gasket and the lower cover are inserted into each other, the pin passes through the escape hole of the lower cover.
A multi-directional moving voice coil motor according to any one of claims 3 to 6, wherein said upper spring comprises four connecting units which are staggered in the circumferential direction of the loading assembly, each connecting unit unit The upper outer arm, the upper middle arm, the upper inner arm, and an upper spring arm connected between the three, the upper outer arm is fixedly attached to the upper spacer, and the upper intermediate arm is attached to the On the upper end surface of the bracket, the upper inner arm is fixedly attached to the upper end surface of the carrier, and is electrically connected to the anti-shake coil and the deflection focus coil.
A multi-directional moving voice coil motor according to any one of claims 3 to 6, wherein said lower spring comprises eight connecting units which are staggered in the circumferential direction of the loading assembly, each connecting unit unit The lower outer arm is attached to the lower cover, the lower outer arm is attached to the lower cover, and the lower inner arm is attached to the lower end surface of the bracket, and the lower inner arm is attached The unit is fixed to the lower end surface of the carrier and electrically connected to the anti-shake coil and the deflection focus coil.
A dual camera dual optical anti-shake module comprising two multi-directional motion voice coil motors as claimed in any one of claims 1 to 9.