Abstract: A linear actuator includes a multipolar magnet configured such that an S pole and an N pole are linearly aligned in an alternating manner. The linear actuator also includes a coil body having a plurality of separate coil units integrally arranged in a lengthwise direction of the coil body, and being movable relative to the multipolar magnet. The linear actuator further includes a magnetic sensor that detects a position of the coil body along the lengthwise direction of the coil body with respect to the multipolar magnet, and an electrifying control circuit that individually controls currents to be supplied to the plurality of coil units based on the position of the coil body detected by the magnet sensor.

Abstract: An image blur correction apparatus includes first and second lens units, a supporting unit aligning the first and second lens units in an optical axis direction, so that the first and second lens units can independently move in a direction perpendicular to the optical axis, a driving unit driving the first and second lens units in the direction perpendicular to the optical axis, a relative position detection unit detecting a relative position between the first and second lens units, a shake detection unit detecting a shake amount added to the image blur correction apparatus, and a control unit controlling the driving unit based on an output of the shake detection unit. The control unit performs closed-loop control based on an output of the relative position detection unit so that the second lens unit moves in a direction opposite to that of the first lens unit.

Abstract: A position controller for an optical element of an optical system includes a first movable member supported by a support member to be movable relative thereto in a first direction orthogonal to an optical axis, a second movable member which holds the optical element and is supported by the first movable member to be movable relative thereto in a second direction which is nonparallel to the first direction, an electromagnetic actuator that produces a driving force for moving at least the second movable member in the second direction, and an insertion/removal drive mechanism for moving the second movable member between an anti-shake driving position, at which a position control for the second movable member can be performed using the electromagnetic actuator, and a removed position at which the second movable member is positioned outside a range of the position control that uses the electromagnetic actuator.

Abstract: An image pickup apparatus which decreases the number of components to reduce man-hours for assembly. A base plate, which supports a lens holder in such a manner that the lens holder is movable in a direction perpendicular to an optical axis, has an engagement portion having an opening disposed in one direction around the optical axis. Movement of the lens holder in the direction of the optical axis is inhibited by engagement between part of the lens holder and the engagement portion. A rotation inhibition plate, which is provided on a subject side of the lens holder, is movable in a first direction perpendicular to the optical axis integrally with the lens holder and is inhibited from moving in a second direction perpendicular to both the optical axis and the first direction.

Abstract: This invention provides a photographing optical lens assembly comprising, in order from an object side to an image side: a first lens element with positive refractive power having a convex object-side surface and a convex image-side surface; a second lens element with positive refractive power having a concave object-side surface and a convex image-side surface, both of the two surfaces being aspheric; a third lens element with negative refractive power having a concave image-side surface on which at least one inflection point is formed, both of the two surfaces being aspheric; and a stop disposed between an imaged object and the second lens element; wherein there are only three lens elements with refractive power. Such an arrangement of optical elements can effectively reduce the size of the lens assembly, mitigate the sensitivity of the optical system and enable the lens assembly to obtain a higher resolution.

Abstract: In a lens apparatus, light entering a lens barrel from an external source is incident to an optoelectric converting element for image recording. The light passing through an optical path of the lens apparatus is filtered by a filter that absorbs a specific range of optical wavelengths and is provided in a filter frame. The filter frame is moved to position the filter at a first position that is on the optical path or at a second position that is away from the optical path. A filter housing structure is provided establishing a frame moving region in which the filter frame is arranged and moves, and blocking the incidence of light from a source other than the optical path to the filter frame moving region.

Abstract: A position controller for an optical element includes a movable member and is supported by a support member to be movable from an anti-shake driving range to a removed position, an image-shake correction driver, and an insertion/removal operational member. The insertion/removal operational member includes a first press portion which presses the movable member from the anti-shake driving range to the removed position by the insertion/removal operational member moving from an insertion position to the removed holding position, a second press portion which presses the movable member to the anti-shake driving range by the insertion/removal operational member moving from the removed holding position to the insertion position, and a displacement prevention portion which allows the movable member to move within the anti-shake driving range and prevents the movable member from moving beyond the anti-shake driving range when the insertion/removal operational member is in the insertion position.

Abstract: A system and method for automatically and optically capturing an image in a handheld image capture device. The system includes an imager and an actuated mounting mechanism attached to the imager. The imager has one or more degrees of freedom (DOF) and includes at least one of a pan DOF, a tilt DOF, and a rotate DOF. In certain embodiments, the device can auto-center a selected object of interest in the image frame, auto-zoom in on the selected object of interest, and/or auto-rotate the captured image. The method includes providing an imager having a pan degree of freedom (DOF) and a tilt DOF, capturing an image by the imager to produce an image frame, selecting an object of interest from the captured image, and auto-centering the selected object in the image frame using one or both of the pan DOF and the tilt DOF.

Abstract: To provide a compact vibration reduction unit, a lens barrel, and a camera, which can perform positional detection with a high degree of accuracy during operations for vibration reduction. A vibration reduction unit of the present invention is comprising: a shooting optical system; a movable optical member that is part of the shooting optical system or which is another member, and which is provided movably relative to the shooting optical system; a magnetic sensor used to detect a position of the movable optical member; and a coil having a winding center line of a winding wire situated substantially in parallel with and on substantially the same plane as a given plane in which the magnetic sensor is disposed.

Abstract: To provide an anti-vibration actuator with which a high drive force can be obtained without increasing size. The present invention is an anti-vibration actuator, including a fixed portion, a movable portion, movable portion support means, first drive means having a first drive magnet and coil; second drive means having a second drive magnet and coil; third drive means having a third drive magnet and coil; first, second, and third position detection elements for detecting the positions of each drive magnet; and a control portion for moving the movable portion to a specified position; wherein the first and second position detection elements are disposed within a region diagonally opposed to the region in which the third drive means is positioned, from among four regions partitioned by the lines of action of the drive forces of the first and second drive means.

Abstract: An image capture apparatus comprises a shake detection unit which detects a shake of the image capture apparatus; a motion vector detection unit which detects a motion vector indicating a movement of an image; a first calculation unit which calculates a first shake correction amount; a second calculation unit which calculates a second shake correction amount; a shake correction unit which optically corrects a blur of a captured image; a panning determination unit which determines that the image capture apparatus performs a panning operation; a determination unit which determines whether or not the image capture apparatus is in a constant point capturing state; and a control change unit which changes the first threshold to a second threshold and amplifies the second shake correction amount when the determination unit determines the constant point capturing state.

Abstract: An imaging apparatus includes: an imaging device for subjecting an optical subject image to photoelectric conversion to generate an image signal; an angular velocity sensor for detecting angular velocity with the imaging apparatus; a first shaking amount calculation unit for integrating detection values from the angular velocity sensor to calculate first shaking amount of the imaging apparatus; a second shaking amount calculation unit for calculating second shaking amount of the imaging apparatus based on image data from the imaging device; a third shaking amount calculation unit for correcting the first shaking amount to calculate third shaking amount of the imaging apparatus based on first amplitude which is a fluctuation range relating to the first shaking amount, and second amplitude which is a fluctuation range relating to the second shaking amount; and a correction control unit for correcting the shaking of the imaging apparatus based on the third shaking amount.

Abstract: A third group barrel 3 holding a third lens group L3 is controlled to be driven by drivers in yaw and pitch directions orthogonal to an optical axis, respectively. The Y magnet and the Y yoke of the driver in the yaw direction are fixed on the third group barrel 3, and a Y electromagnetic coil is disposed at a Y guide base 24 surrounding the third group barrel 3. As a driver in the pitch direction, a P magnet and P yoke 29 are fixed to the Y guide base 24, and a P electromagnetic coil is fixed to a P guide base at an opposed position. A Y guide bar 25 and a P guide bar 30 are overlapped with projection regions onto planes orthogonal to the optical axis of the Y electromagnetic coil and the Y magnet, and the P electromagnetic coil and the P magnet, respectively.

Abstract: A shake correction unit comprises a first lens unit that holds a first lens and is movable in a direction perpendicular to an optical axis of the first lens during a shake correction operation and a second lens unit that holds a second lens and is attached to the first lens unit and moves in a direction perpendicular to the optical axis together with the first lens unit during the shake correction operation, at least one of a shutter and an iris diaphragm having a changeable opening diameter is disposed between the first lens unit and the second lens unit.

Abstract: Goal: Providing a vibration-proof lens that can restrict an increase in thickness in the direction of the optical axis. Means: A vibration-proof lens unit comprising a lens holder that holds a vibration-proof lens; a support that supports the lens holder in a manner to be movable within a plane orthogonal to an optical axis of the vibration-proof lens; an engaging section that engages the lens holder with the support such that the lens holder can move (i) in a rotational direction around an axis line parallel to the optical axis of the vibration-proof lens and (ii) in a direction of a rotational radius orthogonal to the axis line; a rotational driving unit that moves the lens holder in the rotational direction; and a linear driving unit that moves the lens holder in the direction of the rotational radius.

Abstract: A positioning device comprising a moving portion provided with a pair of magnets arranged respectively along with a first axis and a second axis, a fixed portion provided to face to the moving portion, and a voice coil motor (VCM) for relatively driving the moving portion and the fixed portion by an electromagnetic action between a coil and a drive magnet provided to each of the moving portion and the fixed portion: wherein one of the magnets is arranged so as to reduce a rotation moment generated by an electromagnetic connection between the other magnet and the voice coil motor.

Abstract: Provided is an imaging device capable of appropriately displaying or printing a combined image including a print image and a captured image. The device includes: an imaging sensor for receiving an optical image of a photographing object and converting the optical image into an electric image signal; a focus position detection unit for detecting a focus position for the object; and a control unit for recording the image signal while correlating it with focus position information.

Abstract: An imaging device ICD, which realizes an image blurring compensation function which achieves image blurring compensation during a framing period and image blurring compensation during releasing, is provided. In the imaging device (ICD), an OIS unit control section (104) compensates image blurring occurring in an optical image by moving an optical axis of an imaging optical system (100), and compensates the image blurring by changing a position of cutout of image data outputted from an image sensor (106). An image shift amount calculation section (39x, 39y) detects image blurring information. A system controller (120) causes the OIS unit control section (104) to mainly move the optical axis during an exposure period based on the detected image blurring information, and to mainly change the position of the cutout of the image data during a period other than the exposure period, thereby compensating image blurring which occurs in a taken image.

Abstract: Image stabilization systems and methods are disclosed. One embodiment of the image stabilization method, among others, includes detecting motion of a camera, and responsive to the detected motion, changing an optical filter orientation to displace an image provided on a sensor.

Abstract: Provides an image blur correction device capable of accurately moving an imaging element, and an imaging device equipped therewith. The image blur correction device of the present invention includes a fixed plate (12); a moving base (14) to which an imaging element (16) is attached; support means (18) supporting a movable member; at least three drive coils (20) disposed on the movable member; a position sensor (24) disposed on the fixed member; at least three drive magnets (22) respectively attached to the fixed member in positions opposing each of the drive coils; detection means (34) for detecting blurring of an optical axis; and control means (36) for sourcing current to each of the drive coils so as to drive the movable member based on the blur of the optical axis and the position of the movable member, thereby controlling blurring of the image formed on the imaging device.

Abstract: An anti-shake apparatus for image stabilizing of a photographing apparatus comprises a movable unit and a controller. The controller controls the movement of the movable unit for anti-shake operation. The controller controls the movement of the movable unit such as to hold the movable unit at a position without performing the anti-shake operation, for a specified time period that is a part of the time period from the point when the exposure time of the photographing apparatus is finished to the point when the photographing apparatus is set to a state where the next imaging operation can be performed. The position is the initial position where the movable unit is located when the specified time period commences.

Abstract: An image pickup apparatus which is capable of optimizing the responsiveness of linear changes in focus to operations of a ring member without sacrificing the operability of the ring member, while using a small-sized, low-cost ring member for manual operations. The rotating operation state of a focus ring 600 is detected by ring rotation sensors 603, 604. A camera microcomputer 116 causes a focus lens 105 to be moved and stopped in an optical axis direction thereof based on results of the detection by the ring rotation sensors 603, 604. The camera microcomputer 116 controls the responsiveness of linear changes in focus to the rotating operation state of the ring member detected by the ring rotation sensors 603, 604 in accordance with at least the depth of focus.

Abstract: A driving device includes a fixed section, a holding member, a driving section disposed at the fixed section and having a driving shaft, a first movable body having a bearing section friction-coupled with the driving shaft, a second movable body formed as a body separate from the first movable body and capable of moving in conjunction with the first movable body although not secured to the first moving body, and support means for supporting the second movable body with the fixed section and the holding member so as to allow the movable body to move in a predetermined plane.

Abstract: An optical apparatus is disclosed which can prevent displacement of subject images due to an initializing operation of the image stabilizing unit from being seen by a photographer through a finder. The apparatus comprises an image-stabilizing unit which includes a movable unit movable for image stabilization and balls movable in conjunction with the movement of the movable unit, and a controller which controls operations of the movable unit. The controller causes the movable unit to perform a specific operation for moving the balls to a specific position in response to mounting of the optical apparatus on another optical apparatus, the specific operation being a different operation from an image stabilization operation of the image-stabilizing unit.

Abstract: An optical apparatus includes a shake detection unit to detect shaking applied to a camera; an image blur correction driving unit for driving a lens and correcting image blur caused by the shaking; and a selection unit configured to select whether correction of image blur is to be permitted or inhibited. If image blur correction is permitted, the image blur correction driving unit operates in accordance with a first driving characteristic. If image blur correction is inhibited, the image blur correction driving unit holds the lens near an optical axis in accordance with a second driving characteristic.

Abstract: An image capturing module is provided. The image capturing module includes: a lens assembly supporting at least one lens, moving along an optical axis of light indicating an image of a subject, and comprising guiding protrusions for guiding the moving the optical axis; a module supporting unit comprising guiding holes to which the guiding protrusions are inserted to guide the lens assembly; a lens driving unit comprising a winding vibration type piezoelectric motor and a piezoelectric motor supporting member, wherein the winding vibration type piezoelectric motor is disposed on the module supporting unit and moves the lens assembly along the optical axis and the piezoelectric motor supporting member supports the winding vibration type piezoelectric motor; a pressurizing member interposed between the piezoelectric motor supporting member and the module supporting unit; and a plurality of ball assemblies interposed between the module supporting unit and the lens assembly.

Abstract: A first equalizer generates a vibration-component signal indicating the amount of movement of an image pickup apparatus according to an output signal of a vibration detecting element for detecting the vibration of the image pickup apparatus. The second equalizer generates a drive signal used to control a driver element to correct the position of lens and image pickup devices, based on the output signal of a position detecting element for detecting the position of the lens to be driven or the image pickup devices to be driven and the vibration-component signal. A verifying-signal input circuit inputs a signal used for verification, to the first equalizer. A control unit verifies the operations of the driver element, the position detecting element and the first equalizer.

Abstract: A position controller includes a movable member which holds the optical element and supported by a support member to be linearly movable from an anti-shake driving range in which the optical element is positioned on an optical axis to a removed position outside of the anti-shake driving range, an electromagnetic actuator including first and second coils supported by the support member and first and second magnets supported by the movable member, and an insertion/removal operational member. When the movable member is in the anti-shake driving range, the first and second magnets face the first and second coils, respectively. The first and second magnets are arranged on opposite sides of a removing-direction center line passing through a center of the optical element in a moving direction of the movable member so that a distance between magnetic-pole boundary lines of the first and second magnets increases toward the anti-shake driving position.

Abstract: There is provided an image stabilizing unit 1 small in size in one direction perpendicular to an optical axis, including, on a base member 2, a movable compensation member 5 which can displace an image forming position by moving in a plane perpendicular to an optical axis Z, and two drive units 6, 7 for displacing the movable compensation member 5 in the directions of R and S which are different from each other for 90 degrees, wherein the directions in which the drive units 6, 7 respectively move the movable compensation member 5 are inclined 45 degrees to a direction X which connects the drive units 6, 7 and the optical axis center Z of the movable compensation member 5.

Abstract: An optical axis correction apparatus of an imaging device, the imaging device including an imaging optical system having a plurality of optical elements, and an optical element position changing device which changes a relative position among the optical elements to vary a state of an object image formed thereby, the optical axis correction apparatus including an optical element moving device which moves at least one of the optical elements in a plane orthogonal to an optical axis; a memory which stores data relating to a deviation of the object image position in directions orthogonal to the optical axis, the deviation occurring when the optical element position changing device changes the relative position among the optical elements; and an object image position correction controller which drives the optical element moving device based on the data stored in the memory to correct said deviation of the object image position.

Abstract: A photographing apparatus includes a third optical group arranged between a second optical group and an iris, and to stabilize hand tremor, and the third optical group is moved along a sphere that has a center based on a predetermined point on an optical axis. As a result, a photographing apparatus has an efficient hand tremor stabilization.

Abstract: A digital camera 100 is provided with an optical unit 1, CCD 3, a CCD holder 27 for holding CCD 3, actuator 10 for connecting the CCD holder 27 with the optical unit 1, wherein the actuator changes in shape when a voltage is applied across a front surface and rear surface thereof, and flexible printed circuits 8, 9 for applying voltages to driving members 10a, 10b, 10c and 10d in response to detection of camera shake to move the CCD holder 27 such that an optical axis Z of the optical unit 1 passes through the center of the image capturing plane 300 of CCD 3.

Abstract: The present invention relates to a camera module equipped with a vibration compensation mechanism. The camera module includes a lens unit for changing an image of a subject at a specific magnification, a housing for accommodating the lens unit so that the lens unit can move in the direction of an optical axis, an auto-focus actuator unit installed so that the lens unit can move in the direction of the optical axis, suspension members for supporting the housing so that the housing can float in a direction perpendicular to the direction of the optical axis, a box-type case configured such that the suspension members are fastened thereto and the housing is accommodated therein, a circuit board disposed beneath the case and configured such that an image sensor is installed thereon, and a compensation actuator configured to compensate for a displacement caused by the vibration of the housing.

Abstract: An imaging apparatus and imaging lens device comprises a light path folding optical system having a reflector that folds the optical axis incident perpendicular to the gravitational direction toward the gravitational direction. An imaging element converts an image formed by the light path folding optical system into an electrical signal. A drive unit moves a shake correction lens group including at least one lens in the direction perpendicular to a vertical optical axis, the vertical optical axis being folded toward the gravitational direction by the reflector, wherein the shake correction lens group is moved in the direction perpendicular to the vertical optical axis to move the image in the direction perpendicular to the vertical optical axis.

Abstract: An image taking apparatus includes: a CCD plate in which a CCD image sensor is disposed; a base member that supports the CCD plate so that the CCD image sensor is movable within a plane perpendicular to an optical axis in which the CCD image sensor receives subject light; a drive system that drives an imaging section so that image blurring corrected; and a CCD flexible circuit board that transmits image signals generated by the CCD image sensor to a main-unit circuit board. A middle part between the both ends of the CCD flexible circuit board has a shape of being bent in a direction of preventing the CCD plate from falling to thereby support the CCD plate elastically.

Abstract: A blur correction mechanism includes: a first guide shaft extending in a first direction, the direction being a predetermined direction orthogonal to the optical axis of the lens groups; a base frame supporting the first guide shaft; a first correcting moving frame supported by the base frame so as to be movable in the first direction via the first guide shaft; a second guide shaft extending in a second direction orthogonal to both the optical axis and the first direction, and being supported by the first correcting moving frame; and a second correcting moving frame supported by the first correcting moving frame so as to be movable in the second direction via the second guide shaft, and holding the lens groups therein. The first guide shaft and the second guide shaft are positioned so as to be substantially coplanar in a plane orthogonal to the optical axis.

Abstract: An exemplary image stabilizing camera system includes a fixed body having a first receiving cavity therein, a movable unit received in the first receiving cavity, a pivot member located between the fixed body and the movable unit, a motion sensor, and a driving module. The pivot member is engagingly received in and between the fixed body and the movable unit. The motion sensor is disposed on the fixed body and configured for detecting a movement of the image stabilizing camera system. The driving module is configured for driving the movable unit to rotate around the pivot member to compensate a movement of the image stabilizing camera system based on the motion detection result of the motion sensor.

Abstract: A camera module includes a circuit board, an image sensor mounted on the circuit board, a lens module including a lens, a position sensor, a plurality of electrical wire groups mounted on the lens, and a plurality of magnetic field generators. The lens held a distance from the circuit board by holding wires fixed on the circuit board. The position sensor is mounted on the circuit board and configured for detecting displacements of the lens module and the image sensor relative to the object. The magnetic field generators are arranged adjacent to the respective electrical wire groups, and each configured for generating a magnetic field for allowing the electrical wire groups together with the lens to move to give a correction of the displacements of the lens, such that an image of an object is projected at a predetermined region of the image sensor.

Abstract: A camera module includes a voice coil motor comprising a fixing assembly, a movable assembly, an elastic member connecting the movable assembly to the fixing assembly, and a pivoting member located between the fixing assembly and the movable assembly; a lens assembly and an image sensor received in the movable assembly; a plurality of Hall sensors capable of detecting movement distances of the movable assembly; and a control module comprising a current distributor, and a processor electrically connected to the Hall sensors. Wherein when shaking occurs, the housing is driven to move along the central axis and at the same time is rotated a desired angles pivoting on the pivoting member, the processor configured for calculating rotated angles of the movable assembly base on movement distances of the movable assembly relative to the respective Hall sensors.

Abstract: The invention relates to an imaging apparatus that makes effective use of an image restoration processing method, thereby working favorably for size reductions while making sure zoom ratios and brightness, and ensuring good images. The imaging apparatus includes a zoom lens 1 comprising a plurality of lens groups G1 to G4 and adapted to implement zooming from a wide-angle end to a telephoto end with a change in a space between the plurality of lens groups, an imaging device 2 adapted to take an image formed through the zoom lens 1, and an image restoration processor 11 adapted to implement signal processing by which image restoration is implemented on the basis of a signal for the image taken by the imaging device 2 to generate an image signal for a restored image.

Abstract: An imaging device having a housed state in which a plurality of optical members of an imaging optical system is housed and a shooting standby state in which at least a part of the optical members is moved on a subject side includes a stage configured to be movable along a plane orthogonal to an optical axis so as to move an imaging element which obtains a subject image by the shooting optical system in the plane, a plurality of optical member holding frames each of which is configured to hold each of the optical members and a lens holding frame driver configured to drive each of the optical member holding frames, the stage includes an engagement hole facing to the shooting optical system, and one of the optical member holding frames includes an engagement projection which is engageable with the engagement hole.

Abstract: An optical unit with shake correcting function may include a movable module on which at least an optical element is mounted, a fixed body which supports the movable module, a shake detection sensor which detects a shake of the movable module, a drive mechanism for shake correction for swinging the movable module on the fixed body on the basis of a detection result of the shake detection sensor to correct the shake of the movable module, and a control section which controls the drive mechanism for shake correction on the basis of the detection result of the shake detection sensor. The shake detection sensor is a gyroscope mounted on the movable module and the control section controls the drive mechanism for shake correction so as to cancel the shake detected by the gyroscope.

Abstract: Provided is a method of correcting handshake in a digital image processing apparatus. The digital image processing apparatus includes a lens location detector for detecting a location of the focusing lens when a lens driving unit drives a photographing lens group; a handshake detector for detecting an amount of handshake from a signal representing a movement of the digital image processing apparatus; and a handshake correction unit for adjusting the lens driving unit according to a difference between the amount of handshake detected by the handshake detector and the location of the focusing lens detected by the lens location detector.

Abstract: An image blur correction unit includes the following elements. A holder member, holding either an imager or a lens that constitutes a part of a lens system, moves in a straight line on a plane orthogonal to the optical axis of the lens system. A movable member, attached to a frame that serves as an outermost component, supports the holder member. A guide member guides movement of the holder member relative to the frame. A driving section drives the holder member. The guide member includes a guide shaft fixed to the movable member and support portions provided for the frame, the support portions supporting the guide shaft. The movable member moves relative to the frame while being integrated with the guide shaft.

Abstract: A shake correction unit includes: a base member; a first movable member that moves relative to the base member in a first direction; a second movable member to which an imaging device is fixed, the second movable member moving relative to the first movable member in a second direction; a first drive unit provided between the base member and the first movable member, the first drive unit moving the base member and the first movable member relative to each other in the first direction; and a second drive unit provided between the first movable member and the second movable member, the second drive unit moving the first movable member and the second movable member relative to each other in the second direction.

Abstract: An optical apparatus includes a rectangular optical member provided on an optical axis, a supporting member configured to support the optical member, and a rectangular vibrating device stuck to the optical member close to and in parallel with one of four sides of the optical member and configured to vibrate the optical member in a wave fashion having a predetermined wavelength to have a plurality of nodes parallel with the one side. A support position at which the optical member is supported by the supporting member at a side opposite the one side of the optical member is located inward from the opposite side by ¼ the predetermined wavelength.

Abstract: An exemplary image stabilizing camera system includes a camera module. The camera module includes a movable AF unit, a frame having a receiving cavity defined therein, an electromagnetic driving unit, and an elastic member. The receiving cavity is configured for receiving the movable AF unit therein. The electromagnetic driving unit is configured for driving the movable AF unit to move relative to the frame so as to counteract movement of the object relative to the system such that the system can, after a shake of the system, capture a stabilized image of the object which is substantially identical with an image thereof captured without the shake of the system. The elastic member is disposed on a top end of the movable AF unit. The elastic member is configured for connecting the movable AF unit to the frame, thereby suspending the movable AF unit in the receiving cavity.

Abstract: A system and method of correcting a light pathway is provided. A system for correcting a light pathway, the system including: a light pathway change amount measurement unit to measure a light pathway change amount using a movement amount of an image when a light pathway of incident light is changed due to shaking of a camera; and a curved prism driving unit to drive a curved prism, composed of a refraction surface, based on a light pathway correction amount determined by the light pathway change amount.

Abstract: An actuator includes a first barrel, a second barrel, a first magnetic portion, a second magnetic portion and a plurality of springs. The second barrel is received in the first barrel. The first magnetic portion and the second magnetic portion are arranged between the first barrel and the second barrel. The first magnetic portion is fixed to the first barrel. The second magnetic portion is fixed to the second barrel. The first magnetic portion is opposite to the second magnetic portion. The first and second magnetic portions cooperatively drive the second barrel to move in the first barrel on the plane perpendicular to a central axis of the first barrel. The springs are elastically connected to the first barrel and to the second barrel, to provide a restoring force between the first barrel and the second barrel when the first barrel is not coaxial with the second barrel.

Abstract: An image stabilizer includes a rotor including a lens assembly, and configured to move perpendicular to an optical axis of light passing through the lens assembly, and a suspension unit configured to support movement of the rotor and to prevent the rotor from moving non-perpendicular to the optical axis of the light passing through the lens assembly. Accordingly, the image stabilizer prevents variance of characteristics of a rotor in a low frequency band according to the position and distortion of phase characteristics in a high frequency band. Therefore, the image stabilizer has consistent operation characteristics regardless of the position, posture, and movement of a person using an image capture device containing the image stabilizer.