JPH0876165A - Anti-vibration camera - Google Patents

Abstract

(57) [Summary] [Purpose] Without installing new actuators, etc.
It enables to lock and unlock the anti-vibration optical system without any special operation. [Structure] A shake correction lens L3 that changes the optical axis of a photographic optical system to correct shake and a focusing lens L4 that is arranged close to the shake correction lens unit and is movable in the optical axis direction. By bringing the focusing lens L4 into contact with the shake correction lens L3, the shake correction lens L3 is locked.

Description

Detailed Description of the Invention

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to an anti-vibration camera for preventing camera shake by moving the optical axis of an anti-vibration optical system, and more particularly,
The present invention relates to an anti-vibration camera of a type that electromagnetically drives the anti-vibration system.

[0002]

2. Description of the Related Art Conventionally, as an anti-vibration camera of this type, for example, a locking means for locking the correction optical means at a predetermined position or releasing the locked state, and a lens barrel for holding an optical system including the correction optical means. There is disclosed a configuration in which it is operated in association with the movement operation between the retracted state and the photographing preparation state (Japanese Patent Laid-Open No. 5-100280).

[0003]

However, in the conventional anti-vibration camera described above, the anti-vibration optical system cannot be locked unless the collapsing operation is performed, so that the anti-vibration camera cannot be reliably locked in accordance with the photographing condition. In addition, the vibration-proof optical system cannot be locked unless a new actuator is used as the locking means, which complicates the structure, increases the size, and causes a cost increase.

An object of the present invention is to provide an anti-vibration camera capable of locking and unlocking the anti-vibration optical system without providing a new actuator or the like and performing no special operation.

[0005]

In order to solve the above-mentioned problems, the invention of claim 1 provides a blur correction lens unit for correcting a shake by changing an optical axis of a photographing optical system, and the blur correction lens unit. An anti-vibration camera having a movable lens unit that is arranged in close proximity and that is movable in the optical axis direction, wherein the movable lens unit is brought into contact with the shake correction lens unit to move the shake correction lens unit. It is characterized in that a shake correction lens locking device for locking is provided.

According to a second aspect of the present invention, in the image stabilizing camera according to the first aspect, a shake correction drive is provided which has a permanent magnet and moves either the iron core or the coil to electromagnetically drive the shake correction lens section. The shake correction lens locking device includes a permanent magnet included in the shake correction driving unit.
The moving lens unit and the shake correction lens unit are suction-held and locked to lock.

The invention of claim 3 relates to claim 1 or claim 2.
The anti-vibration camera described in [1] is characterized in that the moving lens unit is a zoom lens or a focus lens.

According to a fourth aspect of the present invention, in the image stabilizing camera according to any one of the first to third aspects, the shake correction lens locking device locks in conjunction with turning off the power switch. It is characterized by

According to a fifth aspect of the present invention, in the image stabilizing camera according to any one of the first to third aspects, the shake correction lens lock device is locked in association with the closing operation of the photographing lens barrier. It is characterized by performing.

According to a sixth aspect of the present invention, in the image stabilizing camera according to any one of the first to third aspects, the blur correction lens lock device is locked in association with the end of the shutter release operation. It is characterized by performing.

According to a seventh aspect of the present invention, in the image stabilizing camera according to any one of the first to third aspects, the shake correction lens lock device locks in conjunction with a return operation of the focus lens. It is characterized by performing.

According to an eighth aspect of the present invention, in the image stabilization camera according to any one of the first to seventh aspects, the shake correction lens lock device sets the shake correction lens portion to an image stabilization reference before locking. It is characterized by returning to the position.

According to a ninth aspect of the present invention, in the image stabilizing camera according to any one of the first to eighth aspects, the shake correction lens lock device includes the moving lens unit and the shake correction lens unit. It is characterized by returning to the lens retracted position after the contact.

The invention of claim 10 is defined by claim 1 to claim 8.
The image stabilizing camera according to any one of items 1 to 3, wherein the shake correction lens lock device returns to the lens retracted position while the moving lens unit and the shake correction lens unit are in contact with each other.

The invention of claim 11 relates to claims 1 to 8.
In the anti-vibration camera described in any one of the items 1 to 3, the shake correction lens lock device is characterized in that the movable lens unit and the shake correction lens unit are brought into contact with each other after returning to the lens retracted position.

The twelfth aspect of the present invention includes the first to the first aspects.
In the image stabilizing camera according to any one of items 1 to 3, the shake correction lens lock device unlocks in synchronization with turning on of a power switch. Claim 1
According to a third aspect of the present invention, in the image stabilizing camera according to any one of the first to eleventh aspects, the blur correction lens locking device unlocks in synchronization with an opening operation of the taking lens barrier. Characterize.

The invention of claim 14 relates to claims 1 to 1.
In the image stabilizing camera according to any one of items 1 to 3, the shake correction lens lock device unlocks in synchronization with an operation for starting shooting preparation.

The invention of claim 15 relates to claim 1 to claim 1.
The anti-vibration camera according to any one of 1 above, wherein the shake correction lens lock device is unlocked in synchronization with a shutter release operation. According to a sixteenth aspect of the present invention, in the image stabilizing camera according to any one of the first to fifteenth aspects, the shake correction lens lock device is unlocked while holding the lock position. To do.

[0019]

In the present invention, the moving lens such as the focus lens is moved and brought into contact with the shake correcting lens so that the shake correcting lens is locked so as not to move. It can be securely locked, and there is no need to install a new actuator.

[0020]

【Example】

(First Embodiment) A first embodiment will be described in more detail below with reference to the drawings. 1 and 2 are side cross-sectional views showing a lens barrel-integrated camera (zoom camera) to which a first embodiment of an anti-vibration camera according to the present invention is applied. FIG. 1 shows the camera in a non-photographing state. 2 shows a state in which the lens barrel is collapsed and the image stabilization lens is locked, and FIG. 2 shows a state in which the camera is turned on and the lens barrel is extended to take a picture, and the image stabilization lens is unlocked. It is the figure shown.

A fixed lens barrel 2 is fixed to the camera body 1, and straight grooves 2a and 2b in the optical axis direction are formed on the peripheral surface of the fixed lens barrel 2. A cam barrel 3 is rotatably inserted in the outer peripheral surface of the fixed lens barrel 2 and is prevented from coming off by a ring 4. A gear portion 3d is formed on the outer peripheral surface of the cam barrel 3, and the gear portion 3d has a gear G.
The rotation of the zoom motor 77 (FIG. 4) is transmitted via R, and thereby the cam barrel 3 rotates. Also, the cam barrel 3
Cam grooves 3a, 3b, 3c are formed on the peripheral surface of the.

The front lens group L is provided on the inner peripheral surface side of the fixed lens barrel 2.
The lens barrel 45 holding 1 is inserted, and the cam follower 45a planted on the outer peripheral surface thereof penetrates the straight advance groove 2a and is engaged with the cam groove 3a. A pair of barriers 46 for protecting the taking lens are provided at the front of the lens barrel 45, and the barriers 46 are opened and closed by an operating lever 47. In this embodiment, the barrier 46 is manually opened and closed by operating the operating lever 47 as described above. However, the present invention is not limited to this, and the power switch S, which will be described later,
The barrier 46 is automatically opened (by a barrier drive mechanism (not shown) including a motor) in response to the turning on of W5, and the barrier 46 is automatically (by the barrier drive mechanism) in response to turning off of the switch SW5. May be closed.

A second lens group frame 5 is inserted on the inner peripheral surface side of the fixed lens barrel 2. The second lens group frame 5 drives the shake correction lens L3 and the shake correction lens L3. The driving machine, the shutter 42, and the lens L2 fixed in the shutter 42 are held.

As shown in FIG. 3, the lens frame 6 holds the blur correction lens L3 of the blur correction lens drive mechanism. The lens frame 6 has a guide shaft 7 for guiding in the Y direction.
a and 7b are fixed, and the hole 60a of the X stage 60
And 60b are attached so as to be freely movable in the guide axis direction. The magnets 8a,
8b is attached, and the coil 9a,
9b is fixed to the X stage 60.

Guide shafts 61a and 61b for guiding in the X-axis direction are fixed to the stage 60, and the second group lens frame 5 is provided.
The holes 5d and 5e are mounted so as to be freely movable in the guide axis direction. Magnets 62a and 62b are attached to the outer circumferences of the guide shafts 61a and 61b, and coils 63a and 63b are fixed to the second group lens frame 5 so as to surround the outer circumferences.

FIG. 4 is a sectional view showing the shake correction mechanism of the image stabilizing camera according to this embodiment. Between the lens frame 6 and the second group lens frame 5, ropes 64a to 64c (see FIG. 3) are provided, and the tension spring 65 presses the lens frame 6 against the second group lens frame 5. The second group lens frame 5 has an L
The ED 66 and the lens 67 are fixed, a point light source image is formed on the PSD element 68 on the lens frame 6, and the lens frame 6
Can detect the amount of movement of the correction lens position detector 23 of the shake correction lens L3 (see FIG. 5).
Is configured.

By energizing the coils 9a and 9b,
The shake correction lens L3 is driven in the Y direction, and the coil 9 is driven based on the position signal from the correction lens position detector 23.
The energization to a and 9b is controlled to drive the shake correction lens L3 to a predetermined position. The blur correction lens L3 includes a coil 63.
By energizing a and 63b, it is similarly driven in the X direction.
Therefore, when the camera is not used, the coils 9a, 9b, 63
Since a and 63b are not energized, there is no restriction in the direction perpendicular to the optical axis of the shake correction lens L3, and if external force is applied, there is a risk of collision due to mechanical restrictions and destruction.

A lens shutter mechanism 40 is integrally attached to the second group lens frame 5, as shown in FIG. The lens shutter mechanism 40 includes a shutter blade 41 that also serves as a diaphragm and a drive unit 4 that drives the shutter blade 41.
2 are integrated with each other, and the drive unit 42 is screwed to the substrate 51-1 by screws 43. In addition, the drive unit 42
An electric component 42a such as a motor for driving the shutter blade 41 is mounted on the. A lens L2 is held on the inner peripheral surface side of the second group lens frame 5. Here, the cam follower 51-1a planted on the substrate 51-1 penetrates the rectilinear groove 2b and is engaged with the cam groove 3b.

The lens substrate 51 is inserted into the rear side of the fixed barrel 2, a helicoid screw 51a is formed on the inner peripheral surface thereof, and a cam follower 51b is planted on the outer peripheral surface thereof. The cam follower 51b penetrates the rectilinear groove 2b and is engaged with the cam groove 3c. Lens holder 52
Is a member for holding the focusing lens L4,
A helicoid 52a is formed on the outer peripheral surface thereof. The helicoid 52 a is the helicoid 51 of the lens substrate 51.
It meshes with a. Lens holder 52 and lens substrate 5
A compression spring 59 is inserted between the two, and the backlash of the helicoids 52a and 51a is urged in one direction.

The focusing motor 53 has a gear 53a integrally provided on its output shaft.
Mesh with the helicoid 51a. Motor 5
The rotation of 3 rotates the lens holder 52. When the lens holder 52 rotates, the lens holder 52, that is, the focusing lens L4 moves in the optical axis direction by the action of the helicoids 51a and 52a, thereby performing focusing.

The focusing lens L4 has a lock portion L4a formed on the front side, and this lock portion L4a is
By contacting the end portion 6a of the lens holder 6 of the blur correction lens L3, the blur correction lens L3 is locked. At this time, if the focusing lens L4 and the blur correction lens L3 are brought into contact with each other and then returned to the lens retracted position, the lock time is long and the lock can be reliably performed. Also,
By returning to the lens retracted position while abutting, the sequence for locking becomes shorter. Further, if the contact is made after returning to the lens retracted position, the stroke can be reduced.

FIG. 5 is a block diagram showing the control circuit of the image stabilization camera according to this embodiment. The control IC 71 is connected with a photometry circuit 81, a distance measurement circuit 82, a camera shake sensor 83 for detecting the camera shake amount due to camera shake, and the like.

Further, an electric component 42a for driving a shutter is connected to the control IC 71 via a shutter driver 73. In addition, via the camera shake correction coil driver 74, the coils 9a, 9b, 61a, 61 in the X and Y directions are provided.
b is connected, and the camera shake correction lens position detection circuit 7
5 through the correction lens detector 23 (PS
D68X, 68Y, LEDs 66X, 66Y) are respectively connected. Image stabilization lens position detection circuit 75
Detects the amount of movement and the direction of movement of the shake correction lens L3 based on the output of the correction lens detector 23, and performs control I
Enter in C71.

Further, a focusing motor 53 is connected to the control IC 71 via a focusing motor driver 76, and a focusing motor driver 72 is connected via a zoom motor driver 72.
The zoom motor 77 is connected.

On the other hand, the control IC 71 has a half-press switch SW1 which is turned on by half-pressing the release button and a release switch SW which is turned on by fully-pressing the release button.
2 and the zooming switches SW3 and SW4 are connected. The control IC 71 actuates the photometry circuit 81 and the distance measurement circuit 82 when the half-push switch SW1 is turned on, and moves the focusing lens L4 in the optical axis direction based on the detection output of the distance measurement circuit 82. Focusing is performed. Further, when the full-press switch SW2 is turned on, the shutter drive electric component 42a is drive-controlled based on the output of the photometric circuit 81 to open / close the shutter blades 41. Further, during the shutter release, the control IC 71 drives and controls the magnets 9a, 9b, 61a, 61b in the X and Y directions based on the output of the camera shake sensor 83 and the output of the camera shake correction lens position detection circuit 75. The blur correction lens L3 is appropriately moved in a direction orthogonal to the optical axis to prevent image blur caused by camera shake.

The control IC 71 is a zooming switch SW.
When 3 and SW4 are turned on, the zoom motor 77 is driven to rotate the cam barrel 3 via the gear GR. Since the cam grooves 3a, 3b, 3c move with the rotation of the cam barrel 3, the lens barrel 45 and the lens substrates 51-1 and 51 are respectively moved in the optical axis direction via the cam followers 45a, 5a and 51b. The lenses L1 to L4 are driven so that they are zoomed to predetermined positions.

Further, the control IC 71 is provided with a power switch SW5 for starting the camera and a barrier switch SW6 for detecting the closed state of the lens barrier 46. In the control IC 71, when the power switch SW5 is off or the barrier switch SW6 is on, the focusing motor 53 is driven, the focusing lens L4 moves forward, and the lock portion L4a thereof moves to the lens holder 6 of the blur correction lens L3. The end portion 6a of the
The operation of 3 is locked. To simplify the explanation, in the flowcharts (FIGS. 6 and 8) described later, only the operation when the power switch SW5 is turned off will be described.
The description of the operation when the barrier 46 is opened (when the barrier switch SW6 is on) is omitted. The operation when the barrier 46 is closed (when the barrier switch SW6 is off) may be considered by replacing the description of the power switch SW5 in the flowchart with the barrier switch SW6.

6 and 7 are flow charts for explaining the operation of the first embodiment of the image stabilizing camera according to the present invention. In the first embodiment, the blur correction lens L3 is locked when the zoom lens barrel is retracted (state of FIG. 1), and the blur correction lens L is driven when the W end is driven.
3 is unlocked (state of FIG. 2). S
At 102, when the power switch MSW is turned on, S
In 103, the battery check (BC) is performed, and if the voltage is sufficient, the process proceeds to S104.

In S104, the centering drive of the shake correction lens L3 is performed. The reason for this is that when the lens barrel is extended and released from the locked state, the camera shake correction lens L3 is prevented from falling in the gravity direction.
This is for holding the shake correction lens L3 at the center position.

In S105, the taking lens barrel is driven to the W end. That is, the taking lens barrel is extended so as to release the shake correction lens L3 from the locked state.
When the extension to the W end position is started, the gap between the blur correction lens L3 and the focusing lens L4 is opened, and the blur correction lens L3 fitted in the lens frame 52 of the focusing lens L4 is released from the locked state. (Fig. 2
reference).

At S106, when the driving of the taking lens barrel to the W end is completed, the driving of the blur correction lens L3 is stopped. That is, when the centering drive operation is stopped, the blur correction lens L3 stops at the mechanical limit position in the gravity direction.

At S107, the main switch (SW
If the state of 5) is judged and the ON state is held, S
In step 108, it is determined whether the half-press switch SW1 is on or off. If the half-push switch SW1 is on, S109
If it is off, the process returns to S108. In step S109, the camera shake sensor 83 is activated, and in step S110, photometry and distance measurement are performed. Then, in step S111, the focusing lens is driven based on the distance measurement result to perform the focusing operation.

In step S112, it is determined whether the full-press switch SW2 of the shutter release switch is on or off. If the full-press switch SW2 is off, the process proceeds to S113,
The state of the half-push switch SW1 is determined. In S113, if the half-press switch SW1 is held on, the process proceeds to S114, and if it is off, the process proceeds to S10.
Return to 8.

In S114, it is determined whether or not the camera shake amount detected by the camera shake sensor 83 is less than or equal to a predetermined value A. If the camera shake amount is less than or equal to the predetermined value A, the process proceeds to S115, the shake display lamp is turned on, and the predetermined amount is set. If greater than the value, S
Proceed to 116, blink the shake indicator lamp, and
Return to 112.

At S107, the main switch SW5
If is off, the process proceeds to S117, and the shake correction lens L
In order to lock 3
The centering drive of 3 is performed. When the shake correction lens moves to the center position, resetting drive of the taking lens barrel is performed (S118), and the focussing lens L4 engages and locks the shake correction lens L3 by driving the lens barrel to retract (see FIG. 1). . When the reset drive of the taking lens barrel is completed, the centering drive operation of the shake correction lens is stopped (S119), and the operation is completed (S12).
7).

In S112, the full-press switch SW2
When is turned on, the shake display lamp is turned off (S120), and then the shake correction means is centered (S121). Then, the shake correction drive is started (S12
2) Further, exposure is started (S123), and the blur correction lens L3 is driven based on the detection signal from the camera shake sensor 83 only while the shutter is open. S12
In 4, the shutter is closed based on the exposure calculation result, and the exposure operation ends. Further, the shake correction drive is stopped (S125), and the film is wound up one frame (S12).
6) and returns to S107.

As described above, according to this embodiment, the focusing lens L that moves in the optical axis direction during focusing is used.
4 is moved forward in the optical axis direction, and its lock portion L4a is brought into contact with the end portion 6a of the lens holder 6 of the blur correction lens L3, whereby the operation of the blur correction lens L3 is locked. The blur correction lens L3 can be locked without using a new actuator. Further, when the focusing lens L4 is in contact with the end portion 6a of the lens holder 6, it is possible to press it with an appropriate force by the action of the compression spring 59.
Further, since the shake correction lens L3 is locked in conjunction with the movement of the taking lens barrel, it is possible to prevent the shake correction lens L3 from moving due to an external force or the like when the camera is not used and damaging the anti-vibration mechanism or the like. .

(Second Embodiment) FIG. 8 is a side sectional view showing a locked state at the time of focusing return of a lens barrel-integrated type camera (zoom camera) to which the second embodiment of the image stabilizing camera according to the present invention is applied. Is. 9 and 10 are flow charts for explaining the operation of the second embodiment of the image stabilizing camera according to the present invention. In each of the following embodiments, the same reference numerals are given to the parts having the same functions as those in the first embodiment, and the overlapping drawings and the description thereof will be appropriately omitted. In the second embodiment, the blur correction lens L3 is unlocked (see the state of FIG. 2) during the focusing operation, and the blur correction lens L3 is locked (see the state of FIG. 1) at the time of focusing return. That is, after centering the blurring correction lens L3 in S1101, focusing is performed in S111 to unlock the blurring correction lens L3.

On the other hand, if the half-push switch SW1 is turned off in S113, in S1131.
After the focusing return is performed to lock the shake correction lens L3, the drive of the shake correction lens L3 is turned off in S1132.

When the exposure is completed in S124, the focusing return is performed in S1241 to center the shake correction lens L3, and the shake correction lens L3 is locked, and then in S125.
The drive of the shake correction lens L3 is turned off.

(Third Embodiment) FIG. 11 is a sectional view showing the essential parts of a third embodiment of the image stabilizing camera according to the present invention. Third
In the embodiment, the coil 9a-is provided on the outer circumference of the guide shafts 7a and 7b.
1, 9b-1 are attached, and magnets 8a-1, 8b-1 are fixed to the X stage 60 so as to surround the outer circumference thereof. The lens frame 6 is offset from the center of the optical axis by δ, and the guide shaft 7b is biased downward by a spring 7a-1.

The lens holder 54 has a magnet 8a-
1, 8b-1 at the position corresponding to the magnet 8a-
1, 8b-1 is provided with an iron piece 54-1 that can be attracted, and the iron piece 54-1 is biased by a spring 54-2 in a direction away from the magnets 8a-1, 8b-1.

In the third embodiment, when the vibration isolation drive is stopped and the coils 9a-1 and 9b-1 are de-energized, the magnet 8a-1 is moved when the lens holder 54 approaches within a predetermined distance. , 8b-1 attract and hold the iron piece 54-1, so that the lens frame 6 of the blur correction lens L3 is locked.

(Other Embodiments) The present invention is not limited to the embodiments described above, and various modifications and changes are possible, and these are also included in the present invention. For example, the focusing lens has been described as an example of the moving lens that locks the shake correction lens, but a zoom lens may be used. Further, the shake correction lens may be locked and unlocked in conjunction with the power switch SW5 and the lens barrier switch SW6.

[0055]

As described above in detail, according to the present invention, the moving lens such as the focus lens is moved and brought into contact with the shake correcting lens so that the shake correcting lens is locked so as not to move. Since it was configured to
It can be reliably locked according to the shooting condition, and there is no need to install a new actuator.

[Brief description of drawings]

FIG. 1 is a side sectional view showing a locked state of a camera integrated with a lens barrel (zoom camera) to which a first embodiment of an anti-vibration camera according to the present invention is applied, in a non-photographing state (when a lens is retracted).

FIG. 2 is a side sectional view showing an unlocked state of a camera integrated with a lens barrel (zoom camera) to which the first embodiment of the image stabilizing camera according to the present invention is applied.

FIG. 3 is a diagram showing details of a camera shake correction device of the image stabilization camera according to the first embodiment.

FIG. 4 is a diagram showing details of a camera shake correction device for the image stabilizing camera according to the first embodiment.

FIG. 5 is a block diagram showing a configuration of a control system of the image stabilization camera according to the first embodiment.

FIG. 6 is a flowchart illustrating the operation of the image stabilization camera according to the first embodiment.

FIG. 7 is a flowchart illustrating an operation of the image stabilization camera according to the first embodiment.

FIG. 8 is a side sectional view showing a locked state at the time of focusing locking of a lens barrel-integrated camera (zoom camera) to which the second embodiment of the image stabilizing camera according to the present invention is applied.

FIG. 9 is a flowchart illustrating the operation of the image stabilization camera according to the second embodiment.

FIG. 10 is a flowchart illustrating the operation of the image stabilization camera according to the second embodiment.

FIG. 11 is a diagram showing details of a camera shake correction device for an image stabilization camera according to a third embodiment.

[Explanation of symbols]

 L3 image stabilization lens L4 focusing lens L4a Lock part 6 Lens holder 6a End part

Claims (16)

[Claims] 1. A shake correction lens unit that changes the optical axis of a photographing optical system to correct shake, and a movable lens unit that is arranged close to the shake correction lens unit and is movable in the optical axis direction. An anti-vibration camera having a shake correction lens lock device for locking the shake correction lens unit by bringing the moving lens unit into contact with the shake correction lens unit. 2. The anti-vibration camera according to claim 1, further comprising a shake correction drive unit that has a permanent magnet and moves one of an iron core and a coil to electromagnetically drive the shake correction lens unit, The shake correction lens lock device locks the moving lens unit and the shake correction lens unit by suction and holding the moving lens unit and the shake correction lens unit by a permanent magnet included in the shake correction drive unit. 3. The anti-vibration camera according to claim 1, wherein the movable lens unit is a zoom lens or a focus lens. 4. The anti-vibration camera according to claim 1, wherein the shake correction lens locking device locks in synchronization with turning off of a power switch. Anti-vibration camera. 5. The anti-vibration camera according to claim 1, wherein the shake correction lens locking device locks in conjunction with a closing operation of the taking lens barrier. Anti-vibration camera. 6. The anti-vibration camera according to claim 1, wherein the shake correction lens lock device locks in conjunction with the end of the shutter release operation. Anti-vibration camera. 7. The anti-vibration camera according to claim 1, wherein the shake correction lens lock device locks in conjunction with a return operation of the focus lens. Anti-vibration camera. 8. The image stabilization camera according to claim 1, wherein the shake correction lens lock device returns the shake correction lens unit to the shake prevention reference position before locking. A characteristic anti-vibration camera. 9. The anti-vibration camera according to claim 1, wherein in the shake correction lens lock device, the movable lens unit and the shake correction lens unit are in contact with each other, An anti-vibration camera that returns to the lens retracted position. 10. The anti-vibration camera according to claim 1, wherein the shake correction lens lock device is configured such that the moving lens unit and the shake correction lens unit are in contact with each other. An anti-vibration camera that returns to the retracted position. 11. The anti-vibration camera according to claim 1, wherein in the shake correction lens lock device, the moving lens unit and the shake correction lens unit return to a lens retracted position. The anti-vibration camera is characterized in that it comes into contact with the camera after it is touched. 12. The anti-vibration camera according to claim 1, wherein the shake correction lens lock device is unlocked in conjunction with turning on a power switch. Anti-vibration camera. 13. The anti-vibration camera according to claim 1, wherein the shake correction lens lock device is unlocked in conjunction with an opening operation of a taking lens barrier. A characteristic anti-vibration camera. 14. The anti-vibration camera according to claim 1, wherein the shake correction lens lock device unlocks in synchronization with a shooting preparation start operation. Anti-vibration camera. 15. The anti-vibration camera according to claim 1, wherein the shake correction lens lock device is unlocked in conjunction with a shutter release operation. Anti-vibration camera. 16. The anti-vibration camera according to claim 1, wherein the shake correction lens lock device unlocks while holding the lock position. Shake camera.