Abstract:
An imaging device including a first filter that passes a first light and a second light; a second filter that blocks the second light; photoelectric converters that have sensitivity to the first light and the second light; and a processor, in which one of the photoelectric converters detects a light passing through the first filter to generate a first signal, one of the photoelectric converters detects a light passing through the first filter and the second filter to generate a second signal, and the processor performs the second light sensing based on the first signal and the second signal.
Abstract:
There is provided a control device, a control method, and a program through which it is possible to implement a more suitable imaging environment even under a situation in which auxiliary light is emitted from a plurality of light sources, the control device including: an acquisition unit configured to acquire a light emission state of a first light source; and a control unit configured to control an operation of light emission of a second light source that is different from the first light source according to the acquired light emission state of the first light source.
Abstract:
A fill light providing method includes obtaining an automatic exposure parameter of an image sensor and controlling a fill light lamp to provide a fill light based upon the automatic exposure parameter.
Abstract:
A method for automatic image capture control and digital imaging is described. An image buffer is initialized to store a digital image produced by an image sensor, through allocation of a region in memory for the buffer that is large enough to store a full resolution frame from the image sensor. While non-binning streaming frames, from the sensor and in the buffer, are being displayed in preview, the sensor is reconfigured into binning mode, and then binned streaming frames are processed in the buffer, but without allocating a smaller region in memory for the buffer. Other embodiments are also described and claimed.
Abstract:
There is provided a control device, a control method, and a program through which it is possible to implement a more suitable imaging environment even under a situation in which auxiliary light is emitted from a plurality of light sources, the control device including: an acquisition unit configured to acquire a light emission state of a first light source; and a control unit configured to control an operation of light emission of a second light source that is different from the first light source according to the acquired light emission state of the first light source.
Abstract:
A light emitting device (10) includes a lighting section (120) and a control section (140). An imaging device (20) includes an imaging section (220). The lighting section (120) is able to adjust a spectrum distribution of light and the intensity thereof, and emits light to a photographic subject (S) to be imaged by the imaging section (220). The control section (140) controls the lighting section (120). The control section (140) emits light to the photographic subject (S) before the imaging section (220) performs imaging. Further, the control section (140) increases the intensity of light emitted from the lighting section (120) when the imaging section (220) images the photographic subject (S).
Abstract:
A camera system includes a lighting device and an imaging apparatus. The lighting device includes a movable unit including a flash unit, a detection unit to detect information indicating the position of the movable unit, and a transmission unit to transmit position information based on information detected by the detection unit to the imaging apparatus. The imaging apparatus includes a calculation unit to calculate amount of light emission of the flash unit, a correction unit to perform correction of the amount of the light emission calculated by the calculation unit, and a reception unit to receive the position information from the lighting device. According to the position information received by the reception unit, the correction unit switches whether to perform correction of the amount of the light emission calculated by the calculation unit.
Abstract:
An illumination apparatus includes a light emitting unit, a movable unit, including the light emitting unit, that is rotatable relative to a main body unit, an obtaining unit that obtains first distance information about a distance to a target in a shooting direction of the imaging apparatus to which the illumination apparatus is attached, and second distance information about a distance to a target in a direction different from the shooting direction, a determination unit that determines, based on the first distance information and the second distance information obtained by the obtaining unit, a lighting direction of the light emitting unit, wherein the obtaining unit obtains, in a case where a self-timer mode is set in the imaging apparatus, the first distance information after a lapse of a predetermined time following obtainment of the second distance information.
Abstract:
A stroboscopic device includes a flash discharge tube having an anode and a cathode, and an auxiliary light emitter for emitting light toward cathode. The auxiliary light emitter includes a light-receiving element for measuring a light intensity of external light near the flash discharge tube, a comparator for comparing the light intensity of light received by the light-receiving element with a predetermined threshold immediately before or substantially simultaneously with the light-emission timing of the flash discharge tube, and a lighting section that is lit when the light intensity is lower than the predetermined threshold based on a result of comparison by the comparator. This achieves a stroboscopic device and image pickup device that can stably emit light from the flash discharge tube irrespective of the surrounding environment.
Abstract:
Light emission control makes it possible to determine an appropriate main light emission amount even when an optical accessory that changes color characteristics of transmitted light is attached forward of a light emission section of an illumination device. A strobe capable of having a color filter attached thereto, which changes color characteristics of transmitted light. The strobe includes a strobe microcomputer that acquires information on characteristics of the color filter attached forward of the light emission section, and transmits the acquired information on the characteristics to an image pickup apparatus on which the strobe is mounted.