JP2875918B2 - Image blur prevention device applied to camera and device applied to the device - Google Patents

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to an apparatus for preventing image blur caused by camera shake and the like, and relates to an image blur prevention apparatus applied to a camera and an apparatus applied to the apparatus.

Here, the above-mentioned electrical holding means is means for keeping the optical correction means in a predetermined position while the power is supplied to the means, and the mechanical holding means is The optical correction means is kept at a predetermined position even when the power is not supplied to the optical correction means. In addition, as the mechanical holding means, other than those which do not involve any electrical control, those which change the state to hold the optical correction means in a predetermined position, and those which require the electrical control when releasing the holding are also used. Shall be included.

[0003]

2. Description of the Related Art In recent years, photographing apparatuses such as still cameras and video cameras have been automated, and various functions such as automatic exposure adjusting means and automatic focus adjusting means have been put to practical use.

Particularly, in a photographing apparatus such as a video camera, a zoom lens is generally used as a photographing lens to be used, and the zoom ratio tends to increase year by year.

On the other hand, the downsizing of the photographing apparatus is remarkable, and with the background of the downsizing of the imaging screen, the development of high-density mounting technology, the development of a small recorder mechanical chassis, etc., a small model capable of photographing with one hand. It is appearing.

However, when a small-sized video camera provided with such a zoom lens is used, harmful shake of the screen due to camera shake of the photographer is likely to occur. Therefore,
In order to remove the shake and obtain a stable screen, various shake preventing devices have been proposed. With this type of shake prevention device, not only harmful shake of the screen due to such shake, but also in situations where it is not possible to remove harmful shake even with a tripod when shooting from a ship or car etc. However, it goes without saying that it has a great effect.

The shake preventing apparatus includes at least a shake detecting means for detecting a shake, and a shake correcting means for performing some kind of correction so that the screen does not generate a shake in accordance with the detected shake information. ing.

As the shake detecting means, for example, an angular accelerometer, an angular velocity meter, an angular displacement meter and the like are known. The shake correcting means uses a variable apex angle prism (details will be described later) by the present applicant, or a video camera configured to cut out an area actually used as a screen from obtained imaging screen information. A method of sequentially changing (tracking) the cutout position to a position where the shake is corrected is known.

As a shake correcting means, a method of removing the shake at the stage of the image formed on the image pickup device by using a variable apex angle prism or some other optical means as in the former method is used here. A method for electronically processing image information including shake as in the latter case and removing the shake is referred to as electronic correction means.

Generally, the optical correction means can correct for a shake within an angle defined as a shake angle of a camera, regardless of the focal length of the lens. Even when the focal length on the side is long, it is possible to have a shake removal performance that has no practical problem. However, there is a disadvantage that the size of the camera is increased.

On the other hand, the electronic correction means has a constant correction rate for a vertical dimension of the screen on the screen, for example. Therefore, as the focal length on the telephoto side becomes longer, the performance of shake removal deteriorates. In the case of an electronic type, it is often advantageous for miniaturization.

FIG. 1 is a diagram for explaining the relationship between the focal length and the camera shake angle based on the position of a subject on a screen.

In FIG. 1, when the camera is at the position indicated by 12, the optical axis of the lens is 13, which means that the face of the person 11 which is the subject is almost centered. From this state, it is assumed that the camera is rotated by a degree of camera shake.
At this time, the camera position is indicated by 14, and the optical axis is indicated by 15.

FIGS. 1B and 1C show these 12 and 14 respectively.
(B) shows the screen position at the camera position of FIG.
(C) shows the state at the telephoto end of the lens, and (C) shows the state at the wide end. Reference numeral 16 denotes a subject in the screen. Reference numerals 17 and 19 denote screens when the camera position is 12, and reference numerals 18 and 20 denote screens when the camera position is 14.

As is apparent from FIG. 1, even if the camera shakes at the same a degree, the longer the focal length of the lens, the more harmful the shake on the screen becomes. Accordingly, optical means such as a variable apex angle prism is effective as a shake correcting means particularly combined with a lens having a long focal length at the telephoto end.

FIG. 2 shows the configuration of the variable apex angle prism.

In FIG. 2, 21 and 23 are glass plates, and 27 is a bellows portion made of a material such as polyethylene. A transparent liquid 22 made of, for example, silicon oil or the like is sealed in the interior surrounded by the glass plates 21 and 23 and the bellows 27.

In FIG. 2B, two glass plates 21 and 2
Reference numeral 3 denotes a parallel state. In this case, the incident angle and the exit angle of the light beam of the variable apex angle prism are equal. On the other hand, (A),
In the case of having an angle as shown in FIG.
The rays are bent at an angle as shown at 4,26.

Therefore, when the camera is tilted due to camera shake or the like, the shake is removed by controlling the angle of the variable apex prism provided in front of the lens so that the spectral line corresponding to the angle is bent. You can do it.

FIG. 3 shows this state. In FIG. 3A, the variable apex angle prism is in a parallel state, and
If the head of the subject 16 is captured by driving the variable apex angle prism to bend the light beam as shown in FIG. Has been caught.

FIG. 4 is a view showing an example of the actual configuration of a variable apex angle prism unit including the variable apex angle prism, an actuator for driving the prism, and an apex angle sensor for detecting an angular state.

Since the actual shake appears in all directions, the front glass surface and the rear glass surface of the variable apex angle prism are configured so as to be rotatable about a direction shifted by 90 degrees as a rotation axis. Here, the subscripts a and b indicate the respective components in the two rotational directions, but those having the same numbers have exactly the same functions.
Also, a part on the b side is not shown in part.

Reference numeral 41 denotes a variable apex angle prism,
1 and 23, bellows 27, liquid and the like. Glass plate 2
Reference numerals 1 and 23 are integrally attached to the holding frames 28a and 28b using an adhesive or the like. The holding frames 28a and 28b form rotating shafts 33a and 33b with fixed components (not shown), and are rotatable around these axes. The axis 33a and the axis 33b are different in the direction by 90 degrees. A coil 35a is integrally provided on the holding frame 28a. On the other hand, a magnet 36a, a yoke 37
a, 38a are provided. Therefore, the coil 35
By passing a current through a, the variable apex angle prism 41 rotates around its axis 33a. There is a slit 29a at the tip of the arm portion 30a integrally extending from the holding frame 28a,
Light emitting element 31a such as iRED provided on the fixed part and PSD
A vertex angle sensor is formed with the light receiving element 42a.

FIG. 5 is a block diagram showing a shake preventing device provided with the variable apex angle prism 41 as shake correcting means in combination with a lens.

In FIG. 5, reference numeral 41 denotes a variable apex angle prism;
43 and 44 are apex angle sensors, 53 and 54 are apex angle sensors 4
Amplifying circuits for amplifying the outputs of 3, 44; 45, a microcomputer; 46, 47, vibration detecting means comprising angular accelerometers; 48, 49, actuators comprising the coils 35 to yoke 38; And 52, a lens.

In the microcomputer 45, the angular state detected by the apex angle sensors 43 and 44 and the shake detecting means 4
In order to control the variable apex angle prism 41 to an optimal angle state for removing the shake according to the detection results of 6, 47,
The current supplied to the actuators 48 and 49 is determined.

The reason why the main element is composed of two blocks is that it is assumed that control in two directions shifted by 90 degrees is performed independently.

The conventional example of the shake preventing apparatus using the variable apex angle prism as the shake correcting means has been described above. As another example provided with an optical correcting means, Japanese Patent Application No. 1-189721 filed by the present applicant has been described. In Japanese Patent Application Laid-Open No. H11-157, an image stabilizing apparatus is disclosed in which a lens group that swings due to inertia is provided at a front portion of a photographing lens.

When such an optical correction means is used,
Chromatic aberration tends to increase as the correction angle of the optical axis increases. Therefore, in order to prevent the image quality from deteriorating when the shake preventing device is inactive, it is necessary to keep the optical correction means at a position where chromatic aberration does not appear (the least). This position is, of course, a position where the optical axis correction angle is 0 degrees.

Considering again the case where the variable apex angle prism is used as a shake correcting means, as shown in FIG.
The state where the two glass plates 21 and 23 are parallel and perpendicular to the optical axis 25 is the state that the variable apex angle prism should take when the shake preventing device is not operated.

The following two methods can be considered as a method for maintaining such a state.

1) Energize the actuator and keep the parallel position.

2) Maintain a parallel position mechanically.

In the method 1), in the block diagram shown in FIG. 5, the shake detecting means 46 and 47 taken in the microcomputer 45 are turned off, and a position corresponding to the parallel position is set as a target position instead. -It is only necessary to take in the buckle loop.

FIG. 6 is a block diagram for realizing this, and only one direction is shown for simplicity.

When the photographer selects the operation or non-operation of the shake preventing device with the external switch 55, the result is taken into the microcomputer 45. The target position selecting means 56 outputs the output A ₁ from the shake detecting means 46 in the operating state, and outputs the output (vertical angle setting) of the parallel position output circuit 57 corresponding to the parallel state of the variable apex angle prism 41 in the non-operating state.
An output equivalent) A ₀ of capacitors 43, respectively selected as the target position A. The angle state of the variable apex angle prism 41 is detected by the apex angle sensor 43, amplified by the amplifier circuit 53, and taken out as the displacement output A ′.
By applying a predetermined gain to the difference between the displacement output A 'and the displacement output A', feedback is applied to the actuator 48 and the apex angle state is maintained at the target position A.

Next, FIG. 7 shows a configuration example of a method for mechanically holding the variable apex angle prism in a parallel state.

Reference numerals 28a and 28b denote holding frames shown in FIG. 59 is a lever for holding parallel, holding frame 28a,
Holding portions 60a, 60 for holding the convex portions provided on 28b
b, and a gear 61 at the rear end. The gear 61 meshes with the output gear 62 of the motor 63,
Therefore, the lever 59 rotates with the rotation of the motor 63.

FIG. 7B is a view as viewed from the optical axis direction of FIG. 7A, in which the position of the holding portion 60a is in a parallel holding state, and the position of the two-dot chain line is in a free state. Is shown.
Whether the lever 59 is in a state of holding the variable apex angle prism in parallel or in a free state is determined by combining a sensor such as a photo interrupter and a leaf switch (not shown) by combining the sensors.
It is easily detectable.

[0040]

Considering a method of maintaining the optimum state of the shake correcting means when the shake preventing device is not operating, the following problems are conceivable.

1. When the method 1) is employed, the same amount of power as in the operating state is consumed even though the shake preventing apparatus is in the inactive state.

2. When the above method 1) is adopted,
Depending on the characteristics of the feedback system, it may not be possible to maintain the optimum state when a sudden vibration is applied to the video camera.

[0043] 3. When the method 2) is adopted, a harmful motor sound or a collision sound between the lever 59 and the holding frame 28 is generated at the time of switching between the holding state and the free state. In the case of a video camera, if these noises occur during recording, there is a disadvantage that the sound is recorded. 4. In the method using the above method 2), in order to fix and release the variable apex angle prism, a mechanical member is engaged with the variable apex angle prism and the engagement is released. Due to mechanical backlash etc., the variable apex prism is instantaneously displaced at the time of the above engagement state change,
The image may change unnaturally over time. Therefore, in such an apparatus, if the image blur prevention operation is stopped or started during recording, an instantaneous image change caused by the change in the engagement state as described above is recorded.

The present invention has been made in view of the above-described circumstances, and is applied to a camera capable of disabling a movable unit that moves to prevent image blurring in an appropriate manner according to a situation. It is an object of the present invention to provide an image blur prevention apparatus and an apparatus applied to the apparatus.

[0045]

Means for Solving the Problems To achieve the above object, the present invention according to claim 1 is an image blur prevention apparatus applied to a camera, comprising: a movable means that moves to prevent image blur; At least a first operating unit that contacts the movable unit to deactivate the movable unit; a second operating unit that contacts the movable unit and deactivates the movable unit without contacting the movable unit; During the image recording operation of the camera,
The second action means is allowed to operate, and the first
Is an image blur prevention device applied to a camera having a control means for preventing operation. Further, in order to achieve the above object, the present invention according to claim 2 is used in a camera, a movable means which moves to prevent image blur, and a movable means which comes into contact with the movable means and which is in contact with the movable means. A first operating means for bringing the movable means into contact with the movable means;
In the apparatus applied to the image blur prevention device having the action means, the second action means is allowed to operate at least during the image recording operation of the camera, and the first action means is not operated. This is an apparatus applied to an image blur prevention apparatus having a control means to be configured as described above. Further, in order to achieve the above object, the present invention according to claim 3 includes a movable unit that moves to prevent image blur,
First operating means for contacting the movable means to deactivate the movable means, second operating means for non-contacting the movable means to deactivate the movable means, and An image blur prevention apparatus applied to a camera, comprising: an operation means for selecting whether or not to perform an image blur prevention operation by means, wherein when the power is turned off, the first
Linking means for disabling the movable means by the action of the action means, and during the image recording operation of the camera,
When the operating means is in a setting state for selecting not to perform the image blur prevention operation, the first operating means is in an inactive state, and the movable means is operated by the action of the second operating means. An image blur prevention device applied to a camera having control means for making it inactive. Further, in order to achieve the above object, the present invention according to claim 4 is used in a camera, a movable means which moves to prevent image blur, and a state in which the movable means comes into contact with the movable means and is in a non-operating state. A first operating means, a second operating means for bringing the movable means into a non-operating state without contacting the movable means, and selecting whether or not to perform an image blur prevention operation by the movable means. And an operation means for operating the movable means in a non-operating state by the action of the first action means when the power is turned off. And, during the image recording operation of the camera, when the operation means is in a setting state of selecting not to perform the image blur prevention operation, the first operation means is in a non-operation state, The movable hand is operated by the action of the second action means. There it is an apparatus applied to an image blur prevention apparatus and a control means for so has become inoperative. In order to achieve the above object, according to a fifth aspect of the present invention, there is provided an image blur prevention apparatus applied to a camera, wherein the movable means moves to prevent the image blur, and the movable means moves in contact with the movable means. First operating means for bringing the movable means into a non-operating state, second operating means for bringing the movable means into a non-operating state without contacting the movable means, and activating / deactivating the movable means Operating means for switching the state of the first operating means, and during the image recording operation of the camera, the operating state of the second operating means without changing the operating state of the first operating means in accordance with the switching of the operating means And an image blur prevention device applied to a camera having control means for changing the image blur. Further, in order to achieve the above object, the present invention according to claim 6 is used in a camera, a movable means which moves to prevent image blur, and a movable means which comes into contact with the movable means to prevent the image from moving. First operating means for bringing the movable means into contact with the movable means, and second operating means for bringing the movable means into a non-operating state without contacting the movable means;
In an apparatus applied to an image blur prevention device having an operation unit for switching between an operation state and an inoperative state of the movable unit, during the image recording operation of the camera, the first unit is operated according to the switching of the operation unit. And a control means for changing the operation state of the second operation means without changing the operation state of the operation means.

[0046]

[0047]

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, the present invention will be described in detail with reference to the illustrated embodiments.

FIG. 8 is a flowchart showing the operation of the apparatus according to the first embodiment of the present invention. The circuit configuration of the shake preventing apparatus in this embodiment is different from the block diagram shown in FIG. 6 only in that the state of the recording switch (trigger switch) of the video camera is taken into the microcomputer 45. It is omitted because it is different.

Before starting the description of the operation in FIG. 8, in this description, the shake preventing device is referred to as AS. As a method of holding the optimum position when the AS of the variable apex angle prism or the like is OFF, the above-described method 1) is referred to as an electric lock, and the method 2) is referred to as a mechanical lock. . In addition, the fact that the video camera is in the recording state is indicated by R
ecON was set. Therefore, the difference between the AS-ON and the electric lock ON is due to the difference in the selection status of the target position selecting means 56 in FIG. 6, and the state of the AS-ON and the electric lock ON does not exist in principle (mechanical lock, which will be described later). May be switched to an electric lock, in which case it is temporarily present).

When the main power of the video camera is turned on in step 101, the operation from step 102 is started.

In step 102, it is detected whether the AS is ON (operating) or OFF (non-operating). When the main power supply is turned off separately from this routine, the power supply is turned off after the mechanical lock is turned on.

If AS-OFF is determined in step 102, it is checked in step 103 whether the mechanical lock is correctly performed. This is because the main lock should be turned on when the main power is turned off.
Mechanical lock is turned off when the C code is suddenly disconnected.
It is based on the assumption that there is a possibility. If the mechanical lock has not been correctly performed, steps 104 to 104
At 105, the correct mechanical lock state is obtained, and the next step 10
At 6, the flag 1 indicating the state of the mechanical lock is set to "H".

In step 102, AS-ON
When it is determined that the above condition is satisfied, the mechanical lock is released in steps 107 to 108, the flag 1 is set to "L" in step 109, and then, in step 110, the anti-shake (shake prevention) operation is started.

Thereafter, the status of RecON is checked in step 111, and steps 102 to 111 are repeated during RecPause (recording standby).

Therefore, the switching of the AS ON and OFF during RecPause is performed only when the mechanical lock is turned ON and OFF.
In conjunction with F, the power consumption during AS-OFF is small, and since it is RecPause, the driving sound at the time of mechanical lock switching is not recorded.

Next, in step 111, RecON
Is determined, the state of the flag 1 is determined in step 112. As a result, if the flag 1 is “L”, the process proceeds to step 117 to start recording. Thereafter, if the AS state does not change (that is, if it is ON), since the electric lock has already been released and the AS-ON state has already been performed in Steps 120 and 121, the flow passes as it is and returns to Step 111.

If the AS is turned off from a certain point in time during recording with the AS-ON, the determination result of step 118 becomes N0, and the routine proceeds to step 119, where the electric lock is turned on. When the electric lock is ON, the AS is naturally OFF. In this state, recording is in progress but the mechanical lock does not work, so no harmful noise is recorded.

Thereafter, when RecOFF is reached, the result of the determination in step 111 is NO, and the result in step 102 is also NO, so that the mechanical lock is performed in steps 103 to 105.

That is, the first feature of the first embodiment is that when the AS changes from ON to OFF during recording, the AS is held by an electric lock that does not generate harmful noise (because chromatic aberration does not occur). After RecPause, the mechanical lock with low power consumption is turned on. When the mechanical lock is ON, the electric lock is OFF.
Shall be performed.

If the flag 1 is "H" in step 112, that is, if a RecON command is received while the mechanical lock is ON at the time of RecPause, the process proceeds to step 113.

When recording is started with the mechanical lock ON and the AS is turned on during the recording, the mechanical lock must be released at that point, and noise is generated.

Therefore, in step 113, the electric lock is first turned on, and then, in steps 114 to 116, the mechanical lock is released. As described above, when a recording command is received even with the same AS-OFF, if the holding method is changed from the mechanical lock to the electric lock, there is no problem even if the AS is turned on during recording (steps 120 and 121).

That is, the second feature of the first embodiment is that, even when AS-OFF, RecON and RecPause are used.
By changing the holding method, it is possible to obtain a configuration that does not cause any problem, that is, can prevent noise from being recorded.

(Second Embodiment) As another configuration, Rec
When the holding method is changed from Pause to RecON as in the first embodiment, if it is considered that a time loss occurs and it is rather troublesome, the AS-O during recording may be used.
N may not be accepted.

FIG. 9 is a diagram in which steps after step 111 in FIG. 8 are considered in accordance with the second embodiment.
The change from "ON" to "ON" is not accepted in step 122, and instead, in this embodiment, in step 123, a warning is issued in the viewfinder of the video camera. Thereafter, when RecPause is reached, the lock is released in steps 107 to 109 at that time.

(Third Embodiment) It is advantageous from the viewpoint of image quality to hold the image at the optimum position where the chromatic aberration is minimal as described above at the moment when AS changes from OFF to ON during recording. An unpleasant image due to discontinuity as a moving image may be recorded. This will be described with reference to FIG.

In FIG. 10, the horizontal axis represents time, and time t
AS switches from ON to OFF. At this time, the apex angle of the variable apex angle prism instantaneously shifts from the state of the waveform 64 at the time of AS-ON to the holding position (0 degree), but a discontinuous image is recorded as a moving image at a portion of 65. .

This embodiment is to eliminate this point.
The following configuration is conceivable.

When the electric lock is switched from AS-ON to OFF during recording, a steep movement such as 64 → 65 → 66 is not performed, and the apex angle state at the time of switching from AS-ON to OFF is maintained (64 → 67) or gradually return (64 → 68 →
66) Alternatively, the AS-ON is continued until the apex angle becomes 0 degrees, and then the AS-ON is taken over (64 → 69 → 66).
In the case of 64 → 67, image quality deterioration due to chromatic aberration is observed. However, since the mechanical lock is turned on in the next RecPause, a general one-scene shooting time is assumed to be 10 seconds.
The idea that this is not a big problem also holds.

According to each of the embodiments described above, in a video camera provided with a shake prevention device having an optical correction means, an electric lock is used as a means for holding the optical correction means at an optimum position when the shake prevention is not activated. And two mechanisms of mechanical lock, by using the respective holding means depending on when the video camera is recording and when not recording,
This has the effect of efficiently removing two problems, such as "necessary power consumption is required" and "noise is recorded". Furthermore, when the shake prevention is not activated, the optical lock is held by the mechanical lock. Therefore, even if a sudden vibration is applied to the video camera, the optical correction means can be kept in the optimum state. (Correspondence between Invention and Embodiment) In this embodiment, the variable apex angle prism 41 and the holding frame 28 are used.
a and 28b correspond to the movable means (claims 1 to 6) of the present invention, and the holding portions 60a and 60b correspond to the first action means (claims 1 to 6) of the present invention. 56, the parallel position output circuit 57 is provided in the second operation means (claims 1 to 6) of the present invention,
The function part of the microcomputer 45 for executing the operation of the ninth embodiment is the control means of the present invention (claims 1 and 2), and the external switch 55 (the AS switch of step 102 in FIG. 6 to 6), the functional part of the microcomputer 45 that executes the operation described in the second to third lines of the paragraph number 0051 is a linking means of the present invention.
4), the function of the microcomputer 45 for executing the operations of steps 113 to 119 of FIG. 8 is added to the control means (claims 3 and 4) of the present invention, and steps 111 and 11 of FIG.
Microcomputer 45 for executing operations of 8, 119
Function parts correspond to the control means (claims 5 and 6) of the present invention, respectively.

[0071]

As described above, according to the present invention, it is possible to prevent a state change of a unit for disabling a movable unit that moves for preventing image blurring from adversely affecting recorded information, In addition, the power consumed for preventing the movable means from operating can be minimized.

[0072]

[Brief description of the drawings]

FIG. 1 is a diagram illustrating a general relationship between a focal length and a camera shake angle by a subject position on a screen.

FIG. 2 is a diagram illustrating a schematic configuration of a general variable apex angle prism and the like.

FIG. 3 is a diagram illustrating a function of a variable apex angle prism of FIG. 4;

FIG. 4 is a perspective view showing a schematic configuration of a shake preventing apparatus having the variable apex angle prism of FIG. 2 as shake correcting means.

FIG. 5 is an electric block diagram of the shake prevention device of FIG. 4;

FIG. 6 is an electric block diagram for electric locking of the variable apex angle prism according to the present invention.

FIG. 7 is a diagram for performing mechanical locking of the variable apex angle prism according to the present invention.

FIG. 8 is a flowchart showing an operation in the first embodiment of the present invention.

FIG. 9 is a flowchart showing the operation of the small oil portion according to the second embodiment of the present invention.

FIG. 10 is a diagram related to a third example of the present invention.

[Description of sign]

 41 Variable vertex angle prism 43,44 Vertex angle sensor 45 Microcomputer 46,47 Shake detecting means 48,49 Actuator 59 Lever 60a, 60b Holder 61 Gear 63 Motor

Claims (6)

(57) [Claims] 1. A image blur prevention apparatus applied to a camera, and a movable unit which moves in order to prevent image blur, the first action of the movable unit in contact with the movable means inoperative Means, a second operating means for bringing the movable means into a non-operating state without contacting the movable means , and allowing the second operating means to operate at least during an image recording operation of the camera. An image blur prevention apparatus applied to a camera, further comprising control means for preventing the first operation means from operating. 2. Used in a camera to prevent image blur
A movable means for moving to a first working unit for the movable means in a non-operating state by contact with the movable means, the movable means inoperative in non-contact with said movable means In an apparatus applied to an image blur prevention apparatus having a second operation means, at least an image recording operation of the camera
The apparatus applied to the image blur prevention device, further comprising a control unit that allows the second operation unit to operate while the first operation unit does not operate. 3. A movable means which moves to prevent image blur , a first operating means which comes into contact with the movable means to deactivate the movable means, and Contactlessly
Second action means for deactivating the movable means,
Select whether to perform image blur prevention operation by moving means
Operating means for operating a camera,
Device when the power is turned off.
The movable means is deactivated by the action of the first action means
And the linking means during the image recording operation of the camera.
Operating means does not perform the image blur prevention operation
In the setting state of selecting the first operation,
The operating means is in a non-operating state, and the operation of the second operating means is
Control means for causing the movable means to be in an inoperative state . An image blur prevention apparatus applied to a camera . 4. Used in a camera to prevent image blur
A movable unit that moves for, movable hand in contact with the movable means
First actuating means for deactivating the stage and said movable means
The movable means is deactivated in a non-contact state with respect to
An image blur prevention operation by the action means and the movable means.
Image blur having operating means for selecting whether or not to
This is a device that is applied to the protection device and the power is turned off.
The movable hand is actuated by the action of the first action means.
Interlocking means for deactivating the step and image recording of the camera
During the recording operation, wherein the operation means is configured to prevent the image blur
If the setting state is to select not to perform the operation
Means that the first operating means is in the non-operating state and the second
The movable means is inactive due to the action of the
Characterized by having control means for controlling
Apparatus applied to shake prevention device. In the image blur prevention apparatus applied to 5. camera, and a movable unit which moves in order to prevent image blur, the first action of the movable unit in contact with the movable means inoperative means, and the second working means for the movable means inoperative in non-contact with said movable means, said Allowed
Operation of moving means, an operation means for switching the unactuated, during the image recording operation of the camera, of said operating means
Changing the operation state of the first operation means in accordance with the switching;
Control means for changing an operation state of the second operation means without changing the operation state of the second operation means.
Anti- shake device. 6. Used in a camera to prevent image blur
A movable means for moving to a first working unit for the movable means in a non-operating state by contact with the movable means, the movable means inoperative in non-contact with said movable means The second operating means and the operating and non-operating states of the movable means
In the apparatus applied to an image blur prevention apparatus and an operation means for switching the image recording movement of the camera
Sakuchu an image blur prevention characterized by having a control means for changing the action state of the second working unit without changing the action state of said first working unit according to the switching of the operation means Equipment applied to the equipment.