Abstract: An imaging unit of an embodiment of the present technology includes: a detector that detects temperature or remaining battery capacity; an imaging device that obtains a captured image; and a first correction section that changes, on a basis of a detection result of the detector, electronic hand shake correction accuracy with respect to the captured image obtained by the imaging device when an electronic hand shake correction function is enabled.

Abstract: A camera module includes: a housing; a reflecting module; and a lens module disposed behind the reflecting module, wherein the moving holder is disposed to be movable in one axial direction, approximately perpendicular to the optical axial direction and the one axial direction with respect to the housing, the lens module includes a carrier supported by the housing to be linearly movable in approximately the optical axial direction, the lens module includes two or more lens barrels of which some are fixed, and the others are supported by the housing to be linearly movable in approximately the optical axial direction, and lenses are distributed and provided into the at least two lens barrels.

Abstract: Various display control methods and apparatuses and various display devices are provided. A method comprises: acquiring movement information of a display device; adjusting a display image distance of at least one display object according to the movement information; and controlling the display device to display the at least one display object at least according to the adjusted display image distance. A visual effect and user experience can thereby be improved.

Abstract: A gyro sensor includes a first register that stores angular velocity information; a second register that stores sensitivity deviation information of the angular velocity information stored in the first register; a serial communication circuit; and a control circuit that selects the first register or the second register in accordance with designation information supplied through the serial communication circuit. When the first register is selected by the control circuit, the angular velocity information stored in the first register is output through the serial communication circuit, and when the second register is selected by the control circuit, the sensitivity deviation information stored in the second register is output through the serial communication circuit.

Abstract: A calibration scheme measures roll, pitch, and yaw and other speeds and accelerations during a series of vehicle maneuvers. Based on the measurements, the calibration scheme calculates inertial sensor misalignments. The calibration scheme also calculates offsets of the inertial sensors and GPS antennas from a vehicle control point. The calibration scheme can also estimate other calibration parameters, such as minimum vehicle radii and nearest orthogonal orientation. Automated sensor calibration reduces the amount of operator input used when calibrating sensor parameters. Automatic sensor calibration also allows the operator to install an electronic control unit (ECU) in any convenient orientation (roll, pitch and yaw), removing the need for the ECU to be installed in a restrictive orthogonal configuration. The calibration scheme may remove dependencies on a heading filter and steering interfaces by calculating sensor parameters based on raw sensor measurements taken during the vehicle maneuvers.

Abstract: A driving device that is capable of suppressing enlargement of diameter when a movable amount of a moving part increases. The driving device drives a moving part that is movably supported by a fixing part in a predetermined direction. A drive unit has first and second actuators each of which includes a coil arranged in one of the fixing part and moving part and a magnet arranged in the other part so as to face the coil, and gives a thrust to drive the moving part. A control unit controls the drive unit by controlling electric currents supplied to the coils of the first and second actuators in response to results obtained by multiplying first and second coefficients that vary in response to the position of the moving part to first and second control values obtained from first and second functions based on the position of the moving part, respectively.

Abstract: A method and an apparatus for video content stabilization are presented. The method includes causing capture of a series of image frames of a video by a camera. The video is captured by detecting a movement of the camera during capture of each image frame and effecting optical image stabilization to compensate for the detected movement. At least one of a lens assembly and an image sensor is reset to a pre-capture position subsequent to the capture of the each image frame. The method further includes performing digital image stabilization (DIS) for an image frame based on the movement of the camera detected for the image frame and the movement of the camera detected for at least one other image frame. The DIS is performed for one or more image frames to substantially remove an effect of the movement of the camera from the one or more image frames.

Abstract: [Object] To reproduce an image to which an effect desired by a user is added. [Solution] There is provided an image processing device including: an image reverse stabilization processing unit configured to add an effect of expressing shaking to an image on the basis of shaking information on shaking of the image. In addition, there is provided an image processing device including: an image reverse stabilization processing unit configured to decide a degree of an effect of expressing shaking to be added to an image, on the basis of an expectation value of an immersed feeling of an observer with respect to the image.

Abstract: An image stabilization apparatus includes a fixed barrel, a movable barrel, a support member configured to movably support the movable barrel with respect to the fixed barrel, a drive unit configured to include a magnet and a coil, and drive the movable barrel, a control section configured to drive and control the drive unit, a position detection section configured to detect a position of the movable barrel, and a judgment section configured to detect, when the drive unit drives via the movable barrel so as to move to a predetermined target position, a deviation between the position of the movable barrel and the predetermined target position and judge whether or not the apparatus operates normally based on whether or not the deviation falls within a first allowable range.

Abstract: An image processing apparatus comprises a controller configured to select either of a first tracking system that tracks a subject by the optical processing of an optical image shake correction unit, or a second tracking system that tracks the subject by electronic processing of cutting out an area of the subject from an imaged image, as a tracking system used for tracking the subject in the captured image.

Abstract: A lens driving apparatus includes: a lens holder including an auto-focusing first coil; a lens holder moving section; driving magnets disposed at four corners of the lens holder moving section; a camera-shake correction second coil; a plurality of suspension wires; an elastic member; and at least one damper compound, wherein the elastic member comprises first and second leaf springs mounted to first and second ends of the lens holder moving section, respectively, the second leaf spring is arranged apart from the fixed member compared to the first leaf spring, the fixed member is disposed at a position in the vicinity of the first leaf spring, the plurality of suspension wires extend along the first direction, are fixed to the fixed member and the second leaf spring, and the damper compound is disposed at a position in the vicinity of the second leaf spring.

Abstract: Provided is an image capturing method and an image capturing terminal. The terminal includes a first camera module, a second camera module, and a processing module. The first camera module and the second camera module are used for framing concurrently a same scene. The resolution of an image outputted by the first camera module is greater than the resolution of an image outputted by the second camera module. The processing module detects and analyzes on the basis of the contrast ratios of different frames of images, and controls the second camera to automatically focus on a determined focus. The processing module also is used for determining a focus for the first camera module on the basis of focus information of the second camera module, controlling the first camera module to focus directly on the basis of the determined focus and to capture an image while focused on the focus.

Abstract: In general, the subject matter can be embodied in methods, systems, and program products for identifying, by a computing system and using first and second frames of a video, a transformation that indicates movement of a camera with respect to the frames. The computing system generates a modified transformation so that the transformation is less representative of recent movement. The computing system uses the transformation and the modified transformation to generate a second transformation. The computing system identifies an anticipated distortion that would be present in a stabilized version of the second frame. The computing system determines an amount by which to reduce a stabilizing effect. The computing system applies the second transformation to the second frame to stabilize the second frame, where the stabilizing effect has been reduced based on the determined amount by which to reduce the stabilizing effect.

Abstract: This disclosure provides a voice coil motor, including a magnet holder, a magnet set, a lens holder, a lens set, an upper and lower elastic piece and a circuit board. The magnet set has four magnets mounted on four sides of the magnet holder, each of the magnets having opposing N/S and S/N magnetic poles. The lens set is disposed in the lens holder. The upper and lower elastic pieces are mounted above and below the lens holder, respectively. Four focusing coil loops are disposed between the lens holder and magnet set, and correspond to the four magnets of the magnet set. Four optical image stabilization coil loops are disposed on the circuit board and correspond to the four magnets of the magnet set, respectively. The focusing coil loops and optical image stabilization coil loops share the magnet set. Therefore, the voice coil motor has a size reduced.

Abstract: Apparatus and method for controlling auto focus of a camera module. A controller is configured to provide a signal comprising first frequency signal and second frequency signal to a moving coil, a fixed coil receiving the variable current or the variable voltage through the second frequency signal, calculate a focus position value based on the received variable current or the variable voltage and an image signal, and control a lens unit to move according to the calculated focus position value. The controller is further configured to receive the second frequency signal only during a specific time slot in order for the second frequency signal to not include noise due to OIS signal and apply the OIS signal to an OIS coil during the rest of a time slot of the second frequency signal.

Abstract: An imaging apparatus includes: a driving unit that moves a focus lens; a focusing unit that determines a focus state and outputs a focusing signal indicating a focus position of the focus lens; a control unit that controls the driving unit based on the focusing signal; an acceleration detection unit that detects acceleration in directions of three orthogonal axes; a distance calculation unit that calculates an acceleration component in an optical axis direction based on the acceleration in the directions of the three orthogonal axes detected by the acceleration detection unit and calculates an object distance corresponding to the focus position indicated by the focusing signal based on the acceleration component in the optical axis direction; and a shake correction unit that corrects an image blur caused by a translational shake in directions of two orthogonal axes perpendicular to at least an optical axis as defined herein.

Abstract: Provided are an image stabilizing apparatus and method thereof. The image stabilizing apparatus performs image stabilization by using both an image sensor and a motion sensor. Image distortion and movement are stably corrected by using both the position of a feature point, which is extracted by the image sensor and image processing, and the movement position of the feature point, which is predicted by the motion sensor.

Abstract: According to aspects of the disclosure, a method is provided for use in an electronic device, comprising: capturing one or more image frames by using at least one image sensor of the electronic device; displaying, on a display, a first image that is generated by performing a first-type Digital Image Stabilization (DIS1) based on at least some of the image frames; and storing, in a memory, a second image generated by performing a second-type Digital Image Stabilization (DIS2) based on at least some of the image frames.

Abstract: A positioning device for a picture stabilizer for the controlled movement of a carrier with respect to a base includes a first coupling element, a second coupling element, a first transmission unit, and a second transmission unit. The first coupling element, by way of a first suspension, is assembled in a movable manner with respect to the base and is movable by a first linear drive. The second coupling element, by way of a second suspension, is assembled in a movable manner with respect to the base and is movable by a second linear drive. The first transmission unit transmits movement of the first coupling element onto the carrier and the second transmission unit transmits movement of the second coupling element onto the carrier. The first coupling element and the second coupling element in each case have a movability with essentially exactly one translatory degree of freedom.

Abstract: A system for and method of determining angular position (e.g. pitch) of a vehicle. In accordance with an embodiment, a first angular rate of rotation of the vehicle about a first axis of rotation is detected using a first angular rate sensor mounted to the vehicle. A second angular rate of rotation of the vehicle about a second axis of rotation is detected using a second angular rate sensor mounted to the vehicle. The second axis of rotation is substantially orthogonal to the first axis of rotation. The angular position of the vehicle is determined based on a ratio of the first angular rate of rotation of the vehicle and the second angular rate of rotation of the vehicle.

Abstract: Disclosed are a system and a method for determining enabling or disabling electronic image stabilization (EIS) for a video frame. An image sensor of a camera system captures a video stream that comprises a plurality of video frames. An image processor determines availability of a computational resource that may process application of EIS on each video frame. Simultaneously, the image processor receives motion data of the camera system from a gyroscope. Based on the computational resource availability, a motion frequency threshold is determined. Based on the gyroscope motion data, a motion frequency of each video frame is estimated. The estimated motion frequency is compared to the determined motion frequency threshold. If the estimated motion frequency is greater than the determined motion frequency threshold, application of EIS is disabled. If the estimated motion frequency is less than or equal to the determined motion frequency threshold, application of EIS is enabled.

Abstract: A camera shake correction apparatus includes a target position setting unit, a current setting unit, a driving unit, a magnetic flux detector, and an arithmetic unit. The target position setting unit sets a target position of a movable member. The current setting unit sets a current value to move the movable member to the target position. The driving unit drives the movable member with respect to a fixed member based on the set current set value. The magnetic flux detector detects a magnetic flux value changed with movement of the movable member. The arithmetic unit calculates a third magnetic flux value by subtracting a second magnetic flux value estimated to be generated from the driving unit based on the current set value from a first magnetic flux value actually detected by the magnetic flux detector.

Abstract: Embodiments of the disclosure compensate for global movement and in-scene movement during image capture by a computing device. A sequence of images is accessed by the computing device. Accelerometer readings and/or gyroscope readings corresponding to each of the accessed images are used by the computing device for calculating global movement among each of the accessed images. Each of the accessed images is re-aligned based on the calculated global movement. The re-aligned images are combined into a single output image. The intensity values of each of the pixels in the re-aligned images are compared with the intensity values of each of the corresponding pixels in a reference image. Based on the comparison, the intensity values associated with the pixels in the re-aligned images are selectively accumulated to generate an output image that is blur-free, low-light enhanced, and high dynamic range.

Abstract: An embodiment of the present invention provides a display device, a display method and a display apparatus that may control a user to play electronic products at a suitable distance and avoid myopia of the user. The display device comprises: a distance sensor, a display screen, a controller, and a fuzzy processing device, wherein the distance sensor is configured to determine the distance between a user of the display device and the display screen, and wherein the controller is configured to control the fuzzy processing device when the distance between the user of the display device and the display screen is not greater than a predetermined value such that the fuzzy processing device carries out a fuzzy process on the image picture displayed on the display screen and the processed image picture is demonstrated to the user of the display device.

Abstract: An electronic apparatus comprises a touch detection unit which detects a touch operation on a display unit, a display control unit which controls to display a specific display item on the display unit, and a control unit which controls to execute a specific function in response to a touch operation as a touch at a position in a first area, at least a portion of which is included in a display area of the specific display item, and controls not to execute the specific function in response to a touch operation as a touch at a position in a second area, at least a portion of which is included in a display area of the specific display item.

Abstract: Provided are an image stabilizing apparatus and method thereof. The image stabilizing apparatus performs image stabilization by using both an image sensor and a motion sensor. Image distortion and movement are stably corrected by using both the position of a feature point, which is extracted by the image sensor and image processing, and the movement position of the feature point, which is predicted by the motion sensor.

Abstract: A shake amount detection device includes an acceleration sensor. A vibration period detector detects a vibration period during which vibration that becomes a predetermined acceleration is applied to a body. A velocity variation estimation unit estimates a first movement velocity which is a component velocity due to an attitude movement of the body during the vibration period. A velocity calculator calculates a second movement velocity that is a velocity of the body and corrects the second movement velocity in a case of the vibration period as a detection result of the vibration period detector. A shake amount calculator calculates an image blur correction amount relative to the vibration applied to the body, based on the second movement velocity corrected by the velocity calculator.

Abstract: The present invention provides a lens driving device with image stabilizer function with high driving efficiency of second coils for swinging the lens, and the swing part is light. A lens support accommodating the first coil wound around the Z axis, and a base are respectively connected with first spring components extending along the direction perpendicular to the Z direction. The second coils are wound around the X direction and the Y direction and configured on the outer side of the first coil. A lens carrier and a carrier bracket provided with the second coils are connected with the second spring component extending along the Z direction. The second spring component is supported by the lens carrier and can swing in the X direction and the Y direction.

Abstract: An image blur correction apparatus includes an shooting state detecting portion that determines a shooting state of a first shooting state or a second shooting state based on an angular velocity signal, and a controller that performs an image blur correction using characteristics depending on a determination result of the shooting state determining portion, and the shooting state determining portion determines that the first shooting state has started when the angular velocity signal exceeds a first threshold value and exceeds a second threshold value having an opposite sign of the first threshold value within a predetermined time after exceeding the first threshold value, and determines that the first shooting state is continuously maintained when the angular velocity signal exceeds a third threshold value and exceeds a fourth threshold value that has an opposite sign of the third threshold value within the predetermined time after exceeding the third threshold value.

Abstract: A video eyewear device in which parallel side-by-side video signals are driven as analog signals to the left and right displays, with timing controlled by a common sampling clock. A left display sampling clock burst occurs during an active video period and the right display burst occurs during the same portion of the active video period.

Abstract: An image pickup apparatus includes a shake detecting unit configured to detect a shake of the image pickup apparatus; and a first optical correcting unit and a second optical correcting unit configured to correct optically an image shake by using a shake signal output from the shake detecting unit, wherein the first optical correcting unit is used to correct optically the image shake based on frequency components lower than predetermined frequency components extracted from the shake signal, and wherein the second optical correcting unit is used to correct optically the image shake based on frequency components higher than the predetermined frequency components extracted from the shake signal.

Abstract: A contact terminal is provided with a charging port to which a charging voltage is applied and a CON.DET port which detects a voltage change. In a case where a plug of a charging cable is connected to the contact terminal, the charging port and the CON.DET port are electrically connected to each other via the charging cable so that a signal level in the CON.DET port reaches an “H” level. In a case where the plug of the charging cable is removed from the contact terminal, the charging voltage is not applied to the CON.DET port so that a signal level in the CON.DET port changes from an “H” level to an “L” level, and thus recording of image information output from an imaging unit of the camera is started.

Abstract: Methods and systems for communicating sensor data on a mobile device are described. An example method involves receiving, by a processor and from an inertial measurement unit (IMU), sensor data corresponding to a first timeframe, and storing the sensor data using a data buffer. The processor may also receive image data and sensor data corresponding to a second timeframe. The processor may then generate a digital image that includes at least the image data corresponding to the second timeframe and the sensor data corresponding to the first timeframe and the second timeframe. The processor may embed the stored sensor data corresponding to the first timeframe and the second timeframe in pixels of the digital image. And the processor may provide the digital image to an application processor of the mobile device.

Abstract: An image stabilization control apparatus including a mechanism which causes a vibration when the mechanism moves is disclosed. The apparatus comprises a vibration correction unit configured to correct image shake occurring due to vibration applied to the image stabilization control apparatus. A correction value of an angular velocity of the vibration is calculated based on signals based on the angular velocity and an acceleration of the vibration, frequency bands of the signals are narrowed. During the mechanism is moving, the image shake is corrected by driving the vibration correction unit based on the angular velocity of the vibration which is corrected by the corrected value calculated before the mechanism moves.

Abstract: An inertial force sensor of the present invention includes a detection element, a detection circuit for detecting the amount of inertia corresponding to the inertial force applied to the detection element; a first low-pass filter connected to the output side of the detection circuit; and a correction circuit for correcting the output of the first low-pass filter. The correction circuit includes a correction amount generation unit connected to the output side of the first low-pass filter; a correction amount storage unit connected to the output side of the correction amount generation unit; and a correction unit connected to the output side of the first low-pass filter and to the output side of the correction amount storage unit. The correction unit corrects an output value of the first low-pass filter based on a correction amount stored in the correction amount storage unit.

Abstract: An image capture apparatus includes an image pickup device, a first image stabilization unit which optically corrects an image blur by driving part of the optical system, a second image stabilization unit which electronically corrects the image blur by controlling the image readout position of the image pickup device, a shake detection unit which detects a shake of the image capture apparatus, a correction amount calculation unit which calculates an image stabilization amount based on the detected shake signal, and a division unit which divides a first image stabilization amount of a predetermined frequency band into a second image stabilization amount for correcting the image blur by the first image stabilization unit and a third image stabilization amount for correcting the image blur by the second image stabilization unit.

Abstract: An image capture device according to the present disclosure includes: an image capturing section configured to generate an image by shooting; an acceleration detector configured to detect acceleration and output a first signal; an angular velocity detector configured to detect angular velocity and output a second signal; and a controller configured to determine an angle of rotation of the image based on at least a result of comparison between the first and second signals' DC components and a result of comparison between the first and second signals' AC components.

Abstract: An image-stabilization apparatus is provided that includes an image stabilizer and a status-determining processor. The image stabilizer counterbalances a camera shake in accordance with sensor signals from a shake-detecting sensor. The status-determining processor determines whether a status of the camera is in a fixed state or in a unstable state on the basis of the signals. The status determination process is carried out at the time of exposure and the characteristics of an image-stabilizing operation are altered according to the results of the status determination process.

Abstract: A camera of a computing device can capture two or more images of a region including an object of interest, in order to allow for separation of the object from a background of the images through a process such as image subtraction. In order to compensate for rotations of the device between image captures, an element such as an electronic gyroscope can be used to monitor changes in orientation and predict an amount of shift of objects between images. The predicted shift can be used to attempt to align images captured around the time of the rotation, in order to enable subtraction or similar processes by effectively removing the shifting effect of the rotation.

Abstract: An image capture device includes: an image capturing section which captures a subject image and generates an image; an acceleration sensor which detects acceleration; an angular velocity sensor which detects angular velocity; a controller which determines, according to a result of detection obtained by the angular velocity sensor, a first correction angle that is based on a result of detection obtained by the acceleration sensor and a second correction angle that is based on a result of detection obtained by the angular velocity sensor; and an image processing section which rotates the generated image based on an angle obtained by adding together the first and second correction angles.

Abstract: Techniques for displaying content on a display to reduce screenshot quality are described herein comprising generating a set of degradation frames based on a source frame, with each degradation frame in the set of degradation frames based on applying one or more alterations to the data in the source frame based on a set of degradation parameters. A frame display order is determined and at least a subset of the degradation frames is displayed, corresponding to the frame display order.

Abstract: An image capturing apparatus detects the angular rotational shake and translational shake generated in the apparatus using an angular velocity sensor and an accelerometer. An angular rotational shake correction coefficient calculation unit calculates a first correction coefficient using a zoom lens position and a focus lens position. A translational shake correction coefficient calculation unit calculates a second correction coefficient using the imaging magnification of an imaging optical system.

Abstract: The purpose of the present invention is to provide an optical unit with a shake correction function such that even when a photo reflector is provided by using a gap between a side surface of a movable body and a side surface of a fixed body, an appropriate relationship between an output from the photo reflector and the rock angle of the movable body can be obtained. In an optical unit (100) with a shake correction function, a movable body (3) is rocked about a rock fulcrum (180) by a driving mechanism (500) for shake correction, and thereby shaking is corrected. At that point, the movement of the movable body (3) is monitored by providing a first photo reflector (580a) and a second photo reflector (580b) on side surfaces of a fixed body (200).

Abstract: Various embodiments provide methods, apparatus, and electronic devices for image capturing. An exemplary image capturing method can include first acquiring image information via a camera contained in an electronic device and then detecting whether a shake amplitude of the electronic device is within a pre-set range. When the shake amplitude of the electronic device is detected within the pre-set range, the image information acquired by the camera can be captured. An exemplary image capturing apparatus can include an acquisition module for acquiring image information; a first detection module for detecting whether a shake amplitude of an electronic device is within a pre-set range; and a capturing module for capturing the image information, when the first detection module detects that the shake amplitude of the electronic device is within the pre-set range.

Abstract: An exemplary embodiment of the present invention may include a first board mounted with an image sensor, a first holder coupled to an upper surface of the first board, a second holder arranged at an upper surface of the first holder and mounted at a periphery with a plurality of magnets, a first elastic member supporting the second holder, and a ball guide unit interposed between the first holder and the second holder.

Abstract: Embodiments of the invention provide an image correcting apparatus for an imaging device including a camera module having a first motion sensor. The image correct apparatus includes a second motion sensor sensing a movement, and a controller determining whether the movement gets out of an operation range of the first motion sensor, and correcting an image obtained from the camera module based on movement data sensed by the second motion sensor, when the movement gets out of the operation range of the first motion sensor. Generation of blur in an image when a displacement of handshaking is at an angle equal to or greater than a correction angle of an optical image stabilizer (OIS) module is prevented, and thus, a clear image is obtained.

Abstract: An image capturing apparatus comprises: an image sensor configured to capture an image; a vibration detection unit configured to detect a vibration; a vector detection unit configured to detect a motion vector from images; a first correction unit configured to optically correct an image blur; a second correction unit configured to electrically correct the image blur; a first calculation unit configured to calculate, on the basis of the vibration, a first vibration correction amount for controlling the first correction unit; a second calculation unit configured to calculate, on the basis of the motion vector, a second vibration correction amount for controlling the second correction unit; and a control unit configured to control the first and second calculation units so that the first and second vibration correction amounts are suppressed when a vibration amount is greater than a first threshold.

Abstract: A head bracket for providing multiple horizontal panoramic pictures simultaneously comprises a video camera, a longitudinally rotating motor, a transversally rotating motor, sliding rings, a connection interface, and a support. A supporting pipe is arranged at center of head bracket and provided with multiple coaxial heads. Sliding rings are arranged at center of coaxial heads and fixed on supporting pipe. The video camera is mounted on fixing bracket of outer case of sliding rings. A longitudinally rotating belt pulley on video camera is connected to longitudinally rotating motor through a belt, and a transversely rotating belt pulley on sliding ring is connected to the transversely rotating motor through a belt; wherein the transversely rotating motor is fixed on a bottom plate fixed on the supporting pipe. The supporting pipe is internally provided with cables and cable connectors. The connection interface is arranged at the tail end where cables gather.

Abstract: An exemplary embodiment of the present disclosure includes a position detection unit detecting a position of the camera apparatus, a controller outputting a control signal, in a case the position of the camera apparatus detected by the detection unit is a condition for dropping the camera apparatus, and an OIS (Optical Image Stabilization) driving unit receiving the control signal outputted by the controller and being driven to cushion an inner structure of the camera apparatus.

Abstract: The present invention prevents unnecessary imaging operations when imaging is not required to be performed. In the present invention, a display panel includes a touch panel provided on the top surface thereof. An image sensor of an imaging section captures an image. A gyro sensor detects the movement of an imaging device. When the movement of the imaging device is detected by the gyro sensor, a control section prohibits an imaging operation by the imaging section in response to a touch operation performed on the touch panel. Conversely, when the movement of the imaging device is not detected by the gyro sensor, the control section performs an imaging operation by the imaging section in response to a touch operation on the touch panel.