Abstract: The camera system is constituted by the camera main body and the interchangeable lens which is removably attachable to the camera main body. The camera main body has an imaging unit, a main body shake detector, a main body image blur corrector, and a body microcomputer configured to control the imaging unit, the shake detector, and the image blur corrector. The interchangeable lens has a shake detector, an image blur corrector, and a lens microcomputer configured to control the shake detector and the image blur corrector. The body microcomputer selects either the main body or lens shake detector, activates the selected shake detector, and stops the other shake detector.

Abstract: A projector system includes a first projection section projecting inputted image information onto a projection target, a laser pointer pointing a predetermined part of an image projected onto a screen 1, an image pick-up section picking up the image in a state pointed by the laser pointer, and a pointed position detecting section detecting the position of the part pointed by the laser pointer on the basis of the image information picked up by the image pick-up section. And a projection lens projects an image on the basis of the position of the part pointed by the laser pointer and detected by the pointed position detecting section and/or in correspondence to the image of the pointed part.

Abstract: There are provided a camera system which operates the proper image blur corrector when image blur correction devices are incorporated in a camera body and in an interchangeable lens, and a method for controlling this camera system. The camera system (1) includes the camera body (3) and the interchangeable lens (2), which is removably attachable to the camera body (3). The camera body (3) has an imaging unit (71), the body image blur corrector (75), and a body microprocessor (12) configured to control the operation of the imaging unit (71) and the body image blur corrector (75). The interchangeable lens (2) has the lens image blur corrector (82) and a lens microprocessor (20) configured to control the operation of the lens image blur corrector (82). The body microcomputer (12) selects either the body or lens image blur corrector (75 or 82), sets the selected image blur corrector to a correction enabled state, and sets the other image blur corrector to a correction disabled state.

Abstract: In the case of printing while a digital camera is directly connected to a printer, it has been impossible to determine to what extent image blurring affects a print image. In an imaging device, a detection section (17A) detects blurring. An image blurring compensation section (15A) compensates image blurring. A compensation amount detection section (16) detects an image blurring compensation amount. A calculation section (19A) calculates a residual blurring amount by subtracting the image blurring compensation amount from an image blurring amount. An image recording section (12) records an image signal, as a shot image, together with the residual blurring amount. A print size specification section (91) specifies a print size of the shot image and stores a tolerance (?) of the residual blurring amount with respect to the print size.

Abstract: Provided is an imaging device capable of reducing image degradation due to a shake of a hand or an object and easily capturing an image of preferable image quality. The imaging device (1) includes: an imaging optical system (L) for forming an optical image of an object; an imaging sensor (4) for receiving the formed optical image and converting it into an electric image signal for output; a motion detecting unit (100) for detecting a motion of an object to be imaged according to the outputted image signal; and a microcomputer (3) for controlling an exposure time in accordance with the motion of the detected optical image of the object.

Abstract: In an imaging device, a display control device, and a display device which are operable to conveniently display reduced images in accordance with a motion and an attitude at the time of shooting, a motion detection section detects the motion of the imaging device during continuous shooting. A recording section records reduced images of the shot images obtained by the imaging device, and motion information on the motion of the imaging device corresponding to the reduced images. An image extraction section extracts a plurality of the reduced images of the consecutively shooting from among the recorded reduced images. An image display control section causes a display section to display the extracted reduced images. An image display control section arranges the extracted reduced images in accordance with the motion information and causes the display section to display the extracted reduced images.

Abstract: A camera system (1) includes a camera body (1), and an interchangeable lens (2) that is detachably mounted to the camera body (1). The camera system (1) includes an imaging sensor (11), an imaging optical system (L), a viewfinder optical system (19), a liquid crystal monitor (16), a quick return mirror (4), a shaking detection unit (21), an image blur correction unit (47), a sequence microcomputer (12), and a lens microcomputer (20). The image blur correction unit (47) corrects the blurring of an image that occurs due to the movement of the camera system (1), depending on the movement that is detected by the shaking detection unit (21). The lens microcomputer (20) makes the image blur correction unit (47) perform a correction operation in the case of a monitor photographing mode.

Abstract: An interchangeable lens barrel and a program rewriting system, in which a program included in the interchangeable lens barrel is easily changeable, are provided. An interchangeable lens barrel 2 is detachable from a camera body 1, and includes a storage section 36 for storing a first program concerning a function of the interchangeable lens barrel 2, a connection section 38 for connecting to an external input/output device 60, a reception section 32 for receiving a second program concerning the function of the interchangeable lens barrel from the input/output device 60 through the connection section 38, and a rewriting section 37 for replacing the stored first program with the received second program.

Abstract: A cam pin (16) and a demating prevention pin (35) that are provided in a driving frame (15) and have an identical shape are allowed to mate with a cam groove (18) and a demating prevention groove (36) that are provided in a cam frame (17), respectively. A first protrusion (37) is provided on at least one side in an optical axis direction of a portion of the demating prevention groove (36) with which the demating prevention pin (35) mates when the driving frame (15) is advanced. When an external force is applied to the driving frame (15), a cylindrical portion (35f) of the demating prevention pin (35) and the first protrusion (37) come into contact with each other. This prevents the cam pin (16) from demating from the cam groove (18). The cam pin (16) and the demating prevention pin (35) are made of common components, making it possible to reduce the number of components.

Abstract: Whether a digital camera body (1) is in a horizontal shooting attitude (a) or in either of vertical shooting attitudes (b), (c) is detected by using drive means of an image blurring compensation device. In the case where a focus drive means detects that the digital camera body (1) is either in an upward attitude (d) or in a downward attitude (e), a shooting attitude thereof can be inputted. The inputted shooting attitude is recorded together with an image, whereby the image can be displayed in the same orientation as the image at the time of shooting thereof, even if the image is shot either in the upward attitude (e) or in the downward attitude (e).

Abstract: An imaging optical system is configured with a first lens group disposed on a first optical axis and capturing a luminous flux from a subject along the first optical axis, a prism that folds the luminous flux passed through the first lens group toward a direction along a second optical axis that is substantially perpendicular to the first optical axis and second to fifth lens groups disposed on the second optical axis. At the end of the operation, while the first lens group is driven in a direction of the prism along the first optical axis, the second to the fourth lens groups are driven to an initial angle of view position where these lens groups are to be present at the start of the operation. Thereby, an imaging apparatus whose chassis is very thin and that can realize a high pixel counter and a large magnification, while enabling the speeding-up of the starting operation and the ending operation, can be provided.

Abstract: A digital camera 1 has an image recorder 12, a microprocessor 3, and an image display controller 13. The image recorder 12 records a plurality of sequentially captured images along with a panning mode signal 60 related to the panning operation of the digital camera 1. The microprocessor 3 determines the layout of the plurality of images on the basis of the panning mode signal 60 recorded to the image recorder 12. The image display controller 13 displays a plurality of images side by side on a liquid crystal monitor 55 on the basis of the determination result of the microprocessor 3.

Abstract: An image display control component 15 displays part of an image 82A as a reference image 82A? on a liquid crystal monitor 16. Further, the image display control component 15 displays part of an image 82B acquired at a different aperture value from that of the image 82A as a comparative image 82B? side by side the reference image 82A? on the liquid crystal monitor 16. The comparative image 82B? is a part whose position in the image 82B is the same as the position of the reference image 82A? in the image 82A.

Abstract: A cam pin (16) and a demating prevention pin (35) that are provided in a driving frame (15) and have an identical shape are allowed to mate with a cam groove (18) and a demating prevention groove (36) that are provided in a cam frame (17), respectively. A first protrusion (37) is provided on at least one side in an optical axis direction of a portion of the demating prevention groove (36) with which the demating prevention pin (35) mates when the driving frame (15) is advanced. When an external force is applied to the driving frame (15), a cylindrical portion (35f) of the demating prevention pin (35) and the first protrusion (37) come into contact with each other. This prevents the cam pin (16) from demating from the cam groove (18). The cam pin (16) and the demating prevention pin (35) are made of common components, making it possible to reduce the number of components.

Abstract: A camera system 100 has an imaging optical system L, an imaging component 45, a liquid crystal monitor 16, a body microprocessor 12, an aperture setting component 29, and an image display controller 15. The body microprocessor 12 allows a target aperture value and a reference aperture value to be set as set conditions and determines the reference aperture value on the basis of the target aperture value. The aperture setting component 29 adjusts a photography condition on the basis of the set conditions. The image display controller 15 displays part of a reference image a1 acquired by the imaging component 45 at the reference aperture value as a reference display image A1 in a first display region R131 and displays part of a target image b1 acquired by the imaging component 45 at the target aperture value a1 as a target display image B1 in a second display region R132.

Abstract: A camera system 100 has an imaging optical system L, an imaging component 45, a liquid crystal monitor 16, and an image display controller 15. The liquid crystal monitor 16 allows a plurality of images acquired by the imaging component 45 to be displayed. The image display controller 15 controls the display component to display an image A1, which is part of the image acquired by the imaging component 45, as a reference image A on the liquid crystal monitor 16, and to display part of the image acquired by the imaging component 45 at a different timing from that of the image A1 as a comparative image B on the liquid crystal monitor 16. The image display controller 15 controls the display component to display the image A1 as a reference image A in a state of being inverted around a symmetry axis 51a.

Abstract: A camera system 100 has an imaging optical system L, an imaging component 45, a liquid crystal monitor 16, an aperture setting component 29, and an image display controller 15. The liquid crystal monitor 16 has a first display region R131 and a second display region R132. The aperture setting component 29 adjusts the aperture in a specific period so that the actual aperture value will be a preset value. The image display controller 15 displays in the first display region R131 a reference image A1 acquired by the imaging component 45 under conditions in which the aperture value is the preset value, and displays in the second display region R132 a comparative image B1 acquired by the imaging component 45 at a different timing from that of the reference image A1.

Abstract: An imaging apparatus and an imaging method capable of reducing image quality degradation due to camera shake or object shake and photographing images in good image quality in a simple manner. Digital camera 1 is provided with face detection section 120 that detects faces of a plurality of photographing objects, microcomputer 3 performs continuous shooting in optimum photographing conditions in accordance with the number of faces of the photographing objects for each face of the plurality of photographing objects by a single shutter operation and performs control by assigning serial photographing object numbers to the images of the plurality of photographing objects taken by continuous shooting and recording the images in a single continuous-shooting image folder.

Abstract: An imaging apparatus capable of preventing photographing sensitivity from being increased more than necessary, reducing image quality degradation caused by camera shake or object shake and easily photographing images in good image quality.

Abstract: An imaging apparatus capable of preventing photographing sensitivity from being increased more than necessary, reducing image quality degradation caused by camera shake or object shake and easily photographing images in good image quality.