JP2015148753A - Slide unit for image blur correction - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a slide unit for image blur correction capable of reducing total thickness thereof even with a structure including an imaging device, a base plate and a slide support plate.SOLUTION: A slide unit for image blur correction includes: a slide support plate 40 orthogonal to an optical axis OA; an imaging device 45 positioned at a subject side in comparison to the slide support plate and incapable of relative displacement with regard to the slide support plate; and a base plate 48 positioned at an opposite side in a subject direction in comparison to the imaging device, fixed to the imaging device and electrically conducted to the imaging device. The slide support plate includes a base plate housing hole 43 that penetrates the slide support plate in a direction parallel to the optical axis and houses the base plate.

Description

  The present invention relates to an image shake correcting slide unit that is slidably disposed inside an imaging apparatus.

As a prior art of a camera shake correction apparatus using an image sensor, for example, there is the one shown in FIG.
The image shake correcting apparatus includes a flat plate-like rear yoke (not shown) fixed to the inner surface of the camera body, a flat plate-like front yoke parallel to the rear yoke located immediately before the rear yoke, and the rear yoke. And a slide unit positioned between the front yoke and the front yoke. A plurality of magnets are fixed to the rear surface of the front yoke.

The slide unit is an integrated image sensor, a substrate that is electrically connected to the image sensor, and a slide support plate made of a flat plate parallel to the rear yoke and the front yoke, stacked in the optical axis direction of the camera. is there. That is, the substrate is fixed to the rear surface of the image sensor, and the rear surface of the substrate is fixed to the front surface of the slide support plate. A plurality of coils (not shown) are fixed to the slide support plate.
The slide unit can slide relative to the rear yoke and the front yoke in the direction perpendicular to the optical axis of the camera. Furthermore, each coil of the slide support plate is in a magnetic field formed between each magnet, the front yoke, and the rear yoke even when the slide unit is located at any slide position with respect to the rear yoke and the front yoke. To position.

  When image blurring (camera shake) occurs in a camera equipped with the image blur correction apparatus having the above-described configuration, a control circuit built in the camera supplies a current to each coil of the slide support plate. Then, since the stage support plate and the image sensor slide by the driving force generated by each coil, the image blur generated in the camera is corrected.

JP2012-032526A

  The slide unit has a structure in which an image pickup element, a substrate, and a slide support plate are integrated in an optical axis direction. For this reason, the thickness of the entire slide unit (dimension in the optical axis direction) is increased, which in turn increases the thickness of the image shake correction apparatus. Since it is necessary to provide a display (provided on the back of the camera body) at a position located behind the image stabilization device inside the camera body, if the thickness of the image stabilization device increases, the entire camera body is moved in the optical axis direction. It must be enlarged.

  Furthermore, since the image pickup device largely protrudes forward with respect to the slide support plate, the center of gravity of the entire slide unit is located at a position far away from the slide support plate. Then, the slide operation of the slide unit may become unsmooth.

  An object of the present invention is to provide an image shake correcting slide unit capable of reducing the overall thickness while having a structure including an imaging device, a substrate, and a slide support plate.

  An image shake correction slide unit according to the present invention is an image shake correction slide unit that is slidable on a single plane orthogonal to the optical axis inside an imaging device and slides by the power of a driving unit. A slide support plate orthogonal to the slide support plate, an image sensor that is located closer to the subject than the slide support plate and cannot move relative to the slide support plate, and is located on the opposite side of the subject direction from the image sensor and A substrate that is fixed to the image sensor and is electrically connected to the image sensor, wherein the slide support plate passes through the slide support plate in a direction parallel to the optical axis and accommodates the substrate. It is characterized by comprising.

The substrate housing hole may have a shape in which cutout portions are formed at four corners of a quadrangle.
A plurality of female screw holes that are formed in the slide support plate and that are located in the cutout portion on the outer peripheral side of the substrate housing hole and penetrate the slide support plate in a direction parallel to the optical axis, and a front end portion that supports the slide A plurality of male screws that protrude forward from the front surface of the plate and are fixed to the rear surface of the imaging element may be provided.

  The outer shape of the substrate may be the same non-circular shape as the shape of the substrate housing hole when viewed in the optical axis direction.

  The image shake correcting slide unit of the present invention can reduce the thickness of the entire slide unit as compared with the prior art.

It is a vertical side view of a camera with an image shake correction function according to an embodiment of the present invention. FIG. 3 is an exploded perspective view of the image shake correction apparatus viewed from the front. It is a rear view of a front yoke. FIG. 4 is a transverse side view of the image shake correction apparatus in which a front yoke and a rear yoke are omitted. It is the disassembled perspective view seen from the front of a slide unit. It is a rear view of the slide unit which abbreviate | omits and shows the X direction drive coil and the Y direction drive coil. It is a cross-sectional side view similar to FIG. 4 of a prior art example.

Hereinafter, an embodiment of the present invention will be described with reference to FIGS. In the following description, as indicated by the arrows in the drawings, the left-right direction of the camera 10 (imaging device) is defined as the X direction, the up-down direction is defined as the Y direction, and the front-rear direction is defined as the Z direction.
First, the basic structure of the camera 10 and the image shake correction apparatus 20 will be described.
As shown in FIG. 1, an optical system including a plurality of lens groups L1, L2, and L3 is disposed in the lens barrel 11 of the camera 10. On the other hand, in the camera body 12 to which the lens barrel 11 can be attached and detached, an image shake correction device 20 located immediately after the lens unit L3 is disposed.

As shown in FIGS. 2 to 6, the image shake correction apparatus 20 includes a front yoke 21, a rear yoke 22, and a slide unit 38 as large components.
The front yoke 21 is a substantially rectangular flat plate member made of a magnetic material such as soft iron, and has a rectangular window hole 28 formed in the center thereof. The rear yoke 22 is a flat plate member made of a magnetic material such as soft iron having a substantially rectangular shape when viewed from the front. At five positions on the rear surface of the front yoke 21, there are connected support columns 23 extending rearward in a fixed state (only two are shown in FIG. 2). Five locations on the front surface of the rear yoke 22 are fixed to the rear end surface of each connecting column 23. The rear yoke 22 is fixed to the inner surface of the camera body 12 with three fixing screws (not shown). The front yoke 21 and the rear yoke 22 are parallel to each other, and both are orthogonal to the optical axis OA of the lens groups L1, L2, and L3.
Front mounting holes 31 are formed in the vicinity of the left and right upper corners of the front yoke 21 and the central part in the left and right direction of the lower end, respectively, and retainers 32 are fitted and fixed to the mounting holes 31 from the rear. It is. A circular ball support recess (not shown) is provided in the rear end surface of each retainer 32. Further, in the vicinity of the left and right upper corners on the front surface of the rear yoke 22 and the central portion in the left and right direction of the lower end, a ball support recess 34 having a front shape substantially the same as the above-described ball support recess is provided.

As shown in FIG. 3 and the like, X magnet units MX (driving means) composed of a pair of left and right magnets are fixed to the rear surface of the front yoke 21 in a manner located on both the left and right sides of the window hole 28, respectively. The left and right X magnet units MX have the same specifications, and the latter half of the left magnet is the N pole (the first half is the S pole) and the latter half of the right magnet is the S pole (the first half is the N pole). is there. Since the magnetic force generated by the left and right X magnet units MX reaches the front yoke 21 and the rear yoke 22 (because the front yoke 21 and the rear yoke 22 pass the magnetic flux of the left and right X magnet units MX), the right X An X magnetic circuit having the same magnetic flux density is formed between the facing portion of the magnet unit MX and the rear yoke 22 and between the facing portion of the left X magnet unit MX and the rear yoke 22. .
Further, a Y magnet unit MYA (driving means) and a Y magnet unit MYB (driving means), both of which are a pair of upper and lower magnets, are arranged in a straight line on the rear surface of the front yoke 21 so as to be positioned below the window hole 28. They are arranged side by side. The Y magnet unit MYA and the Y magnet unit MYB have the same specifications, and the latter half of the upper magnet is the N pole (the first half is the S pole), and the lower half of the lower magnet is the S pole (the first half). Is N pole). Since the magnetic force generated by the Y magnet unit MYA and the Y magnet unit MYB reaches the front yoke 21 and the rear yoke 22 (the front yoke 21 and the rear yoke 22 are the Y magnet unit MYA and the Y magnet unit MYB). Between the Y magnet unit MYA and the facing portion of the rear yoke 22 and between the Y magnet unit MYB and the facing portion of the rear yoke 22 for Y having the same magnetic flux density. A magnetic circuit is formed.

The slide unit 38 positioned between the front yoke 21 and the rear yoke 22 includes, as major components, a slide support plate 40, an image sensor 45, a substrate 48, X-direction drive coils CXA and CXB, and a Y-direction drive coil CYA. , CYB.
The slide support plate 40 made of metal is a flat plate orthogonal to the optical axis OA. A rectangular movement range restricting hole 41 is formed in each of the left and right upper corners of the slide support plate 40, and a relief recess 42 is formed in the lower edge portion of the slide support plate 40. Further, a substrate housing hole 43 is formed as a through hole (through the slide support plate 40 in a direction parallel to the optical axis OA) at the center of the slide support plate 40. As shown in the figure, the substrate storage hole 43 is a non-circular shape in which cutout portions (portions that enter the inside while forming an arc shape) are formed in the four corners of a rectangle that is long in the left-right direction (or a rectangle other than a rectangle). Shape. The slide support plate 40 has four female screw holes 44 located on the outer peripheral side of the substrate housing hole 43 (through the slide support plate 40 in a direction parallel to the optical axis OA). As shown in the figure, the four female screw holes 44 are provided in portions (the above-described notches) facing the four corners of the substrate housing hole 43. Furthermore, a rectangular coil attachment hole 40X that is long in the vertical direction is formed as a through hole in both the left and right sides of the slide support plate 40, and a rectangular coil attachment that is long in the left and right direction is formed at the lower edge of the slide support plate 40. The holes 40Y are formed as a pair of left and right. Further, two connecting columns 23 projecting from each movement range regulating hole 41 from the left and right upper corners of the front yoke 21 penetrate in the Z direction, and the relief recesses 42 are projected from the lower end of the front yoke 21. The support column 23 penetrates in the Z direction.

Three balls B1 positioned immediately before the slide support plate 40 are rotatably inserted into the ball support recesses of the retainers 32, and the slide support plates 40 are inserted into the ball support recesses 34 of the rear yoke 22. Three balls B2 located immediately after are inserted rotatably. Each of the balls B1 and B2 rotates with respect to the bottom surface of the ball support recess of the retainer 32 and the front surface of the slide support plate 40, and the bottom surface of the ball support recess 34 of the rear yoke 22 and the rear surface of the slide support plate 40. Touchable. Therefore, the slide support plate 40 has an initial position shown in FIG. 2 (a straight line passing through the centers of the left and right coil mounting holes 40X and a straight line passing through the centers of the left and right coil mounting holes 40Y are both parallel to the X direction, and these straight lines. In addition to being able to move linearly relative to the front yoke 21 and the rear yoke 22 in the X and Y directions, the straight line perpendicular to the Y direction is parallel to the X and Y directions. Relative rotation on the XY plane (perpendicular to the optical axis OA) is possible.
Further, since the two connection columns 23 protruding from the front yoke 21 are loosely fitted in the movement range restriction holes 41 of the slide support plate 40, the slide range of the slide support plate 40 is the same as the connection column 23 and the movement range restriction. The hole 41 is limited to a certain range.

The imaging element 45 has a rectangular shape when viewed from the front, and its outer shape is larger than the substrate housing hole 43 (see the dotted line in FIG. 6). The front surface of the imaging element 45 is an imaging surface 46. Further, a rectangular cover glass 47 is fixed to the front surface (imaging surface 46) of the image sensor 45. The imaging surface 46 of the imaging element 45 is an imaging surface on which an image transmitted through the lens groups L1 to L3 and the cover glass 47 is formed.
A substrate 48 (rigid substrate) having a plate thickness thinner than that of the slide support plate 40 is provided on the rear surface of the image sensor 45. The front shape of the substrate 48 (the outer shape thereof) is the same as the substrate storage hole 43 (including “substantially the same”) and is a non-circular shape. That is, arc-shaped cutouts 49 are formed at the four corners of the substrate 48. A circuit pattern (not shown) is formed on the rear surface of the substrate 48. A large number of terminal pins (not shown) that are electrically connected to the internal circuit of the image sensor 45 are integrally provided on the rear surface of the image sensor 45. The terminal pins of the image sensor 45 are fixedly connected to a substrate pattern that is electrically connected to the circuit pattern formed on the front surface of the substrate 48, thereby enabling the image sensor 45 and the substrate 48 to be electrically connected to each other. (In addition, each terminal pin in a state in which the front surface of the substrate 48 is in contact with the rear surface of the image sensor 45 and the terminal pins of the image sensor 45 penetrate a large number of small-diameter through holes penetrating the substrate 48 in the front-rear direction. The image pickup element 45 and the substrate 48 may be fixed so as to be electrically conductive with each other by soldering the rear end portion thereof to the circuit pattern of the substrate 48).

The substrate 48 integrated with the image sensor 45 is fitted to the substrate housing hole 43 from the front of the slide support plate 40, and the image sensor 45 is positioned in front of the slide support plate 40 (FIG. 4). FIG. 6).
Four male screws 50 are screwed into the four female screw holes 44 of the slide support plate 40 from the rear. As shown in FIGS. 4 and 6, an injection hole 51 that penetrates the male screw 50 in the front-rear direction is formed at the center of the male screw 50. As shown in FIG. 4, the front end of each male screw 50 projects forward from the front of the slide support plate 40. Four corners of the rear surface of the image sensor 45 (parts corresponding to the four notches 49 of the substrate 48) are in contact with the front ends of the four male screws 50, respectively. Since the adhesive injected into the injection hole 51 from the rear of each male screw 50 (in a liquid state before solidification) is in contact with the inner surface of each injection hole 51 and the four corners of the rear surface of the imaging element 45, ( The four corners of the rear surface of the image sensor 45 are fixed to the four male screws 50 (fixed to the slide support plate 40). The inclination (tilt) of the image sensor 45 (imaging surface 46) with respect to the slide support plate 40 can be changed (adjusted) by adjusting the amount of protrusion of the front end of each male screw 50 from the front surface of the slide support plate 40. Is possible.

  The X direction driving coil CXA (driving means) and the X direction driving coil CXB (driving means) having the same specifications (the same number of turns) are fitted and fixed in the left and right coil mounting holes 40X of the slide support plate 40. is there. The X-direction drive coils CXA and CXB have coil wires wound in a spiral shape more than 100 times (in the direction parallel to the slide support plate 40 or in the thickness direction of the slide support plate 40) and the XY plane. It is a parallel coil. The left and right X-direction drive coils CXA and CXB are respectively placed in the left and right X magnetic circuits (in the magnetic field) when the slide support plate 40 is located at any position with respect to the front yoke 21 and the rear yoke 22. Located (always opposite to the left and right X magnet units MX in the Z direction). When a current in one direction is passed through the X-direction drive coil CXA and the X-direction drive coil CXB, the X-direction drive coil CXA and the X-direction drive coil CXB are in the FX1 direction (X-direction drive coil shown in FIG. When a linear driving force in a direction parallel to the direction in which the CXA and the X direction driving coil CXB are arranged) is generated and a current in the opposite direction is passed through the X direction driving coil CXA and the X direction driving coil CXB, The X direction driving coil CXA and the X direction driving coil CXB generate a linear driving force in the FX2 direction (the direction opposite to FX1) shown in FIG.

  In the left and right coil mounting holes 40Y of the slide support plate 40, a Y-direction drive coil CYA (drive means) and a Y-direction drive coil CYB (drive means) having the same specification (the same number of turns) are fitted and fixed. is there. Both the Y-direction driving coil CYA and the Y-direction driving coil CYB have coil wires wound in a spiral shape more than 100 times (either in the direction parallel to the slide support plate 40 or in the thickness direction of the slide support plate 40). It is a coil parallel to the XY plane. The Y-direction driving coil CYA and the Y-direction driving coil CYB are arranged in the left and right Y magnetic circuits (in the magnetic field) regardless of the position of the slide support plate 40 with respect to the front yoke 21 and the rear yoke 22. (The Y magnet unit MYA and the Y magnet unit MYB always face each other in the Z direction). When a current in one direction is passed through the Y-direction driving coil CYA and the Y-direction driving coil CYB, the Y-direction driving coil CYA and the Y-direction driving coil CYB are in the FY1 direction (Y-direction driving coil shown in FIG. 5). A linear driving force in a direction orthogonal to the arrangement direction of the CYA and the Y-direction driving coil CYB is generated, and a current in the opposite direction is supplied to the Y-direction driving coil CYA and the Y-direction driving coil CYB. The Y-direction driving coil CYA and the Y-direction driving coil CYB generate linear driving force in the FY2 direction (the direction opposite to FY1) shown in FIG.

  Further, the right half of an FPC 53 (flexible printed circuit board) is fixed to the rear surface of the slide support plate 40. The circuit pattern of the substrate 48 is connected to the right half of the FPC 53 (Note that another FPC (not shown) is connected to the substrate 48 without connecting the circuit pattern of the FPC 53 and the substrate 48, and this FPC will be described later. Connected to the control board). Further, both ends of the X direction driving coils CXA and CXB and both ends of the Y direction driving coils CYA and CYB are also connected to the right half of the FPC 53.

  Further, as shown in FIGS. 2 and 5, on the front surface of the FPC 53, one X hall element HX located inside the X direction driving coil CXA, the Y direction driving coil CYA, and the Y direction driving coil CYB. The two Y Hall elements HY located inside are respectively soldered.

  The left end portion of the FPC 53 is connected to a control board (not shown) provided inside the camera body 12 in a fixed state. Furthermore, a battery (not shown) and a gyro sensor GS (see FIG. 1) provided inside the camera body 12 are connected to the control board.

The image blur correction device 20 causes image blur by causing the control board to pass electricity (current) generated by the battery through the FPC 53 to the X direction drive coils CXA and CXB and the direction drive coils CYA and CYB. Perform corrective action.
For example, when an image shake correction switch SW (see FIG. 1) provided in the camera body 12 is pushed when image shake in the X direction occurs in the camera 10, the gyro sensor GS built in the camera 10 determines the angular velocity of the camera body 12. To detect. Then, the control board calculates the X-direction moving distance (image shake amount) of the camera body 12 based on the angular velocity information, and the control board further controls the X-direction driving coil CXA and the X-direction driving coil CXB. Since currents of the same magnitude and direction flow, the X direction driving coil CXA and the X direction driving coil CXB generate the same driving force in the FX1 (FX2) direction. Then, the slide unit 38 (imaging device 45) moves linearly in the FX1 direction or the FX2 direction by the same distance as the image shake amount in the direction opposite to the image shake direction with respect to the camera body 12 (sliding in the X direction of the slide unit 38). The amount is detected by the hall element for X HX, and the control board recognizes the detected information), and the image blur of the image sensor 45 is corrected.

  On the other hand, when the image stabilization switch SW is pressed when image shake in the Y direction occurs in the camera 10, the gyro sensor GS detects the angular velocity of the camera body 12, and the control board detects the camera body 12 based on the angular velocity information. Since the Y direction driving coil CYA and the Y direction driving coil CYB are supplied with the same current in the same direction and in the same direction, the Y direction driving coil CYA is calculated. And the Y-direction driving coil CYB generate the driving force in the FY1 (FY2) direction having the same size. Then, the slide unit 38 (imaging device 45) moves linearly in the FY1 direction or the FY2 direction by the same distance as the image shake amount in the direction opposite to the image shake direction with respect to the camera body 12 (the slide of the slide unit 38 in the Y direction). The amount is detected by the Y hall element HY, and the detection information is recognized by the control board), and the image blur of the image sensor 45 is corrected.

  When the image blur correction switch SW is pressed when image blur in the rotational direction occurs in the camera 10, the gyro sensor GS detects the angular velocity of the camera body 12, and the control board detects the camera body 12 based on the angular velocity information. The movement distance (image blur amount) in the X direction and the Y direction is calculated. Further, the control board is the same for the Y-direction drive coil CYA and the Y-direction drive coil CYB while flowing the current in the same magnitude and direction to the X-direction drive coil CXA and the X-direction drive coil CXB. Current flows in different directions and directions. Then, the Y-direction driving coil CYA and the Y-direction driving coil CYB generate driving forces in the same direction and different sizes, respectively. Therefore, the slide unit 38 (the resultant force of the driving force in the FX1 (FX2) direction by the X direction driving coils CXA and CXB and the driving force in the FY1 (FY2) direction by the Y direction driving coil CYA and the Y direction driving coil CYB is obtained. The image pickup device 45) rotates in the opposite direction to the image shake direction by the same distance as the image shake amount, and the image shake (rotation shake) of the image pickup device 45 is corrected.

  When a shutter button (not shown) provided on the camera body 12 is pressed in a state where the image blur is corrected, an image pickup signal (electric signal) is sent from the control board to the image pickup element 45 via the FPC 53, the board 48, and the terminal. Therefore, the image sensor 45 performs an imaging operation. Further, imaging data (electrical signal) sent from the imaging element 45 to the control board via the terminal, the board 48 and the FPC 53 is displayed on a display (not shown) provided on the back surface of the camera body 12.

Since the slide unit 38 of this embodiment has a structure in which the substrate 48 is accommodated in the substrate accommodation hole 43 of the slide support plate 40, the overall thickness (dimension in the optical axis OA direction) of the slide unit 38 is made smaller than that of the conventional slide unit. It is possible. Therefore, the thickness of the image shake correction apparatus 20 can be made smaller than before. Therefore, it is possible to provide the display or the like in a portion located behind the image stabilization device 20 in the internal space of the camera body 12 without increasing the size of the entire camera body 12 in the optical axis OA direction.
Further, since the image pickup element 45 does not protrude greatly forward with respect to the slide support plate 40, the center of gravity of the entire slide unit 38 is not located at a position far away from the slide support plate 40 forward. Therefore, the slide operation of the slide unit 38 is unlikely to become unsmooth.

Further, since the substrate 48 having the same shape (non-circular shape) as the substrate storage hole 43 is fitted into the non-circular substrate storage hole 43 of the slide support plate 40, the substrate 48 (and the image sensor 45) slides. Relative rotation with respect to the support plate 40 can be reliably prevented.
Further, since the four female screw holes 44 are formed in the four cutout portions of the slide support plate 40 (of the substrate storage hole 43), the female screw holes 44 are formed at a location different from the cutout portion when the cutout portion is not formed. Compared with the case where it forms, it can suppress that the slide support plate 40 and the image shake correction apparatus 20 enlarge in a plane direction (slide movement direction).

As mentioned above, although this invention was demonstrated using the said embodiment, this invention is not limited to this embodiment, It can implement, giving various changes.
For example, the front shapes of the substrate 48 and the substrate housing hole 43 having the same shape may be different from those described above. The front shape of the substrate 48 may be different from the front shape of the substrate storage hole 43 of the slide support plate 40 (for example, a front shape smaller than the substrate storage hole 43).
The number of female screw holes 44 and male screws 50 formed in the slide support plate 40 may be plural other than four. Further, instead of the male screw 50, a pin or the like may be used.
The thickness of the substrate 48 may be the same as or thicker than the slide support plate 40.
Further, the image sensor 45 may be fixed to the slide support plate 40 by using a fixing means different from the male screw 50 or the adhesive.
As driving means for slidingly driving the slide unit 38 (image sensor 45), X direction driving coils CXA, CXB, Y direction driving coils CYA, CYB, X magnet unit MX, and Y magnet units MYA, MYB Different drive means (for example, a motor) may be used.
In the above embodiment, the present invention is applied to the slide unit 38 that can rotate with respect to the camera body 12. However, the known image shake in which the slide unit 38 (slide support plate 40) moves linearly only in the X direction and the Y direction. It is also possible to apply the present invention to the correction device. For example, instead of the balls B1 and B2 as means for supporting the slide unit 38, a guide bar extending in one of the X direction and the Y direction, and an X direction and a Y direction supported on the guide bar so as to be slidable along the one of the guide bar. The modification is provided by using a means provided with another guide bar extending along the other of the guide bar and a hole provided on the slide unit 38 that is slidably fitted along the other guide bar. Can be realized.
The present invention may be applied to an integrated camera in which the lens barrel and the camera body cannot be separated. Whether the lens barrel and the camera body are separable or not separable, an image stabilization device may be provided in the lens barrel.
Furthermore, the present invention may be applied to imaging devices other than cameras.

10 Camera (Imaging equipment)
DESCRIPTION OF SYMBOLS 11 Lens barrel 12 Camera body 20 Image shake correction apparatus 21 Front side yoke 22 Rear side yoke 23 Connection support | pillar 28 Window hole 31 Mounting hole 32 Retainer 34 Recessed part 38 Ball support slide unit (Slide unit for image shake correction)
40 Slide support plate 40X Coil mounting hole 40Y Coil mounting hole 41 Movement range restricting hole 42 Recessed recess 43 Substrate storage hole 44 Female screw hole 45 Imaging element 46 Imaging surface 47 Cover glass 48 Substrate (rigid substrate)
49 Notch 50 Male thread 51 Injection hole 53 FPC
B1 B2 Ball CXA CXB X direction drive coil (drive means)
CYA CYB Y direction drive coil (drive means)
Hall element HX X Hall element HY Y Hall element GS Gyro sensor MX X magnet unit (drive means)
MYA MYB Y magnet unit (drive means)
OA Lens optical axis SW Image stabilization switch

Claims (4)

In the image shake correction slide unit that is slidable on the one plane orthogonal to the optical axis inside the imaging device and slides by the power of the driving means,
A slide support plate orthogonal to the optical axis;
An image sensor that is located closer to the subject than the slide support plate and cannot move relative to the slide support plate;
A substrate that is located on the opposite side of the subject direction from the image sensor and is fixed to the image sensor, and is electrically connected to the image sensor;
With
The slide support plate according to claim 1, wherein the slide support plate includes a substrate storage hole that passes through the slide support plate in a direction parallel to the optical axis and stores the substrate. In the image shake correcting slide unit according to claim 1,
An image shake correcting slide unit in which the substrate housing hole has a shape in which cutout portions are formed at four corners of a quadrangle. The image shake correcting slide unit according to claim 2,
A plurality of female screw holes that are formed in the slide support plate and are located in the cutout portion on the outer peripheral side of the substrate housing hole and penetrate the slide support plate in a direction parallel to the optical axis;
A plurality of male screws threaded into the female screw holes, the front end projecting forward from the front surface of the slide support plate and fixed to the rear surface of the imaging element;
An image shake correcting slide unit. The image shake correcting slide unit according to any one of claims 1 to 3,
An image shake correcting slide unit, wherein an outer shape of the substrate is a non-circular shape identical to a shape of the substrate housing hole when viewed in the optical axis direction.

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