Abstract: The illumination apparatus includes a reflector unit to reflect a light flux from a light source. The reflector unit includes a first reflector and a second reflector whose relative positions are changeable to change an illumination angle. At a first illumination angle, the second reflector is disposed inside the first reflector, and the light flux from the light source is reflected by the second reflector to exit from the reflector unit. At a second illumination angle smaller than the first illumination angle, the first reflector is disposed further on a light exit side than the second reflector, and the light flux from the light source is reflected by at least one of the first and second reflectors to exit from the reflector unit. A distance between the light source and the second reflector at the second illumination angle is shorter than that at the first illumination angle.

Abstract: The invention discloses a CMOS image sensor, a timing control method and an exposure method thereof. The image sensor includes a pixel array composed of multiple pixel rows and a control chip controlling the array. The control chip controls each pixel row to expose in the exposure time during one exposure period of the pixel row, and then wait predetermined time after the exposure time to output data. In the invention, the exposure time of the image sensor is separated from the time of outputting data. Therefore, the working mode of the image sensor can be controlled more flexibly. By the manner of controlling the pixel rows in the sub-array of the image sensor to expose synchronously, the flash time of the light source is the same as the exposure time of each single sub-array, thereby improving the utilization efficiency of the source energy and ensuring real-time image sampling.

Abstract: The invention provides a flash light device, which includes a light source, a light diffuser and a light diffuser's driving unit. The light diffuser's driving unit provides the light diffuser with a required driving voltage according to a voltage information, in which the voltage information is determined according to an original image without light-complementing of the light source and a pre-flash image with light-complementing of the light source.

Abstract: A method for capturing an image with an image capture device, such as a camera or mobile electronic device. The method includes initiating a master-slave relationship between the image capture device and at least one secondary device. Once the master-slave relationship is initiated, remotely activating one of an at least one light source of the at least one secondary device. As the light source is activated, capturing a test image of a scene illuminated by the at least one light source by the image capture device. Then, analyzing the test image to determine if an illumination of the scene should be adjusted and if the illumination of the scene is to be adjusted, providing a control signal to the at least one secondary device including at least one of a position instruction, an intensity level, or timing data.

Abstract: A method for adjusting the illumination direction angle of a strobe device includes the steps of: transmitting to a specific strobe device, a first signal related to the present illumination direction angle of the strobe device being adjusted; based on the first signal, causing the illumination direction angle of the specific strobe device to correspond to the illumination direction angle of the strobe device being adjusted; changing the illumination direction angle of the specific strobe device to a state desirable for the strobe device being adjusted; transmitting, to the strobe device being adjusted, the amount of further change in the illumination direction angle of the specific strobe device, as a second signal; and changing the illumination direction angle of the strobe device being adjusted, based on the second signal. With this method, the illumination direction angle of the strobe device can be remotely adjusted.

Abstract: A flash detection unit calculates a line average luminance of each line of the current screen of image data and a screen average luminance of a past screen at least one screen before the current screen and compares the calculated line average luminance with the calculated screen average luminance to detect whether the current screen includes a line of high luminance due to a flash. A holding unit holds the past screen of the image data. A flash correction unit, if it is detected that some lines of the current screen have high luminance, replaces the lines having high luminance in the current screen with corresponding lines of the past screen held in the holding unit to correct the image data.

Abstract: A portable electronic device includes a shell and an image capturing assembly configured to capture images. The shell includes a front surface, a rear surface facing away from the front surface, and a top surface. The top surface is connected substantially perpendicularly between the front surface and the rear surface. The top surface defines a cutout. The cutout runs through both the front surface and the rear surface. The image capturing assembly is pivotably received in the cutout and is configured to capture images.

Abstract: An apparatus including: a processor configured to control a flash unit in an exposure time period of an image sensor array, to provide a first non-zero light intensity in a first portion of the exposure time period and to provide a second non-zero light intensity, different to the first light intensity, in a second portion of the exposure time period.

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: A system and method for synchronizing a photographic lighting device to image acquisition by a camera such that initiation of light emission of the photographic lighting device occurs after the first shutter blade of the camera begins to expose an image acquisition sensor of the camera to light and before X-sync associated with the first shutter blade stopping movement.

Abstract: An imaging apparatus includes an operation unit and a control unit to perform photographing using an illumination apparatus capable of automatically driving a movable unit, including a light emitting unit, for changing an irradiation direction of the light emitting unit. The operation unit receives an instruction to start a photographing operation. The control unit performs control, in a case where the operation unit receives an instruction to start a photographing operation while the movable unit is being automatically driven to change the irradiation direction of the light emitting unit, not to perform flash photography in which the light emitting unit is caused to emit light.

Abstract: An imaging module for electro-optically imaging a target, includes an energizable illuminating light source for illuminating the target with illumination light for return from the target, an energizable solid-state imager for capturing return light from the target, and a controller for energizing the imager during an exposure time period to capture the return light at a frame rate, for deenergizing the imager during a non-exposed time period, and for energizing the illuminating light source not only during the exposure time period, but also during the non-exposed time period, to produce a plurality of illumination light pulses at an illumination rate that enables the human eye to perceive the illumination light pulses as substantially continuous. The illumination rate of one or more of the illumination light pulses produced during the non-exposed time period is substantially independent and decoupled from the frame rate.

Abstract: A small light-emitting device is provided. A light-emitting device which is less likely to produce a shadow is provided. A structure including a switching circuit for supplying a pulsed constant current and a light-emitting panel supplied with the pulsed constant current has been conceived.

Abstract: A camera-mounted cellular phone (1) comprises a camera sensor (3) which picks up an image, a switch (2) which is configured to switch and set at least equal to or more than two operation modes each corresponding to an image-pickup distance from the camera sensor (3) to an object, and an LED (4) which emits light together with an image-pickup. At the time of image-pickup, an image-pickup operation is performed by controlling a focal point of the camera sensor (3) in accordance with an operation mode switched and set by the switch (2), and the luminous brightness of the LED (4) is controlled in accordance with the operation mode switched and set.

Abstract: The present disclosure provides a mobile device case comprising a flash detector and one or more light sources. The mobile device case can mount a mobile device. The flash detector can detect the illumination of a mobile device's flash, while at least a portion of the illumination from the mobile device's flash is blocked by other opaque components of the mobile device case. When the flash detector detects illumination of the mobile device's flash, the mobile device case can activate at least some of the light sources to replace the blocked illumination of the mobile device's flash with stronger illumination, diffused illumination, and/or illumination with a different color or color temperature than the light output by the mobile device's flash.

Abstract: An imaging apparatus includes a hot shoe to which one of a plurality of peripheral devices including an external strobe is selectively attachable. The imaging apparatus further includes a USB controller, a flash controller configured to output a flash control signal for controlling the external strobe, and a video signal controller configured to output a video signal. An apparatus-side connector to be electrically connected to a peripheral-side connector provided in a corresponding one of the peripheral devices upon attachment of the corresponding one of the peripheral devices to the hot shoe is provided in an inner region of the hot shoe or an adjacent region outside the hot shoe. The apparatus-side connector includes a USB terminal, a flash terminal, and a video terminal.

Abstract: A camera module having a flash that is provided therein. The flash may be an LED light source. The LED may come in a package that is generally rectangular, with the exception that one corner is flattened. The camera module includes a housing that receives the light source, an image sensor, and a lens. The housing includes mating features that receive the LED package, those features including a flattened corner so that the LED package can only be received within the housing when it is properly oriented. The housing also includes electrical terminals for connection to the LED that include springs. When the LED package is properly oriented and received within the housing, contact pads on the LED package and the electrical terminals on the housing are pressed together against the resilient force of the spring.

Abstract: A photographing apparatus according to the present invention comprises: an accumulation control section controlling an accumulation operation in an imaging section; an accumulation start timing setting section setting a timing of accumulation start in the imaging section; and a flash light emission control section controlling the start and stop of light emission in the flash light emission section, wherein the accumulation control section instructs the flash light emission control section to start the flash light emission and causes the imaging section to start the accumulation based on an output of the accumulation start timing setting section, and the flash light emission control section causes the flash light emission to be started in response to the flash light emission start instruction of the accumulation control section and causes the flash light emission section to stop the light emission based on an appropriate light emission amount output by an exposure calculation section.

Abstract: A flash module including a main body, a fixing base, a rotating structure, a switch and a linking structure is disclosed. The rotating structure is movably connected between the main body and the fixing base. The switch has a moving part. The linking structure is connected between the rotating structure and the moving part. The linking structure moves the moving part to an open position from a close position and rotates the rotating structure, so that the main body is moved relative to the fixing base.

Abstract: An image pickup apparatus arranged so that an optical image of an object obtained by emitting a flash is converted into an electric signal to obtain a first image regarding photographing of the object, the same optical image of the object is converted into an electric signal to obtain a second image, a distance from the object is measured for each image area of the first image on the basis of the second image, and the first image is corrected on the basis of the distance from the object measured for each image area and light distribution characteristic data of a flash stored beforehand corresponding to the distance of the object.

Abstract: A zoom illuminating system and an imaging apparatus including the same are provided. The imaging apparatus includes: the zoom illuminating system; a zoom lens system including a plurality of lens groups and zooming an image of an object as a distance between the plurality of lens groups varies.

Abstract: Embodiments of this invention provide a flash module and an image-capturing apparatus having the flash module. The flash module includes a flash, a base, a solenoid, a linkage bar, a hook, a first elastic member, and a second elastic member. When necessary, the elements of the flash module perform a process to automatically move the flash to an open position.

Abstract: The disclosure relates to a method for reconstruction of a three-dimensional image of an object. A first image is acquired of the object lit by a luminous flux having, in a region including the object, a luminous intensity dependant on the distance, with a light source emitting the luminous flux. A second image is acquired of the object lit by a luminous flux having, in a region including the object, a constant luminous intensity. For each pixel of a three-dimensional image, a relative distance of a point of the object is determined as a function of the intensity of a pixel corresponding to the point of the object in each of the acquired images.

Abstract: This document describes various apparatuses and techniques for rapid synchronized lighting and shuttering. These apparatuses and techniques are capable of capturing two images, where one of the images integrates multiple exposures during which an image area is illuminated by a light source and another of the images integrates multiple exposures during which the image is not illuminated by the light source. The image area can be illuminated by rapidly flashing the image area with the light source and synchronizing a shutter to permit one image sensor to capture an image when the image area is illuminated and another image sensor to capture the image area when the image area is not illuminated. These two images can be captured concurrently or nearly concurrently, thereby reducing or eliminating motion artifacts. Further, these apparatuses and techniques may do so with slow and relatively low-cost cameras and relatively low computational costs.

Abstract: There is set forth herein a terminal having an image sensor array and a plurality of operator selectable operating modes. The image sensor array can have an associated light source bank. The operator selectable operating modes can include at least one camera operating mode and at least one flashlight operating mode. In the at least one camera operating mode the image sensor array and light source bank can be controlled for optimization of frame capture. In the at least one flashlight operating mode the image sensor array and the light source bank can be controlled for optimizing illumination of an operators viewing area with reduced average power consumption.

Abstract: An imaging apparatus capable of performing shooting with flash light emitted by a flash device includes an imaging unit configured to capture an image of an object to output image data, and a charging control unit configured to perform charging control of a capacitor configured to accumulate energy for performing flash emission by the flash device. The charging control unit, in a case where shooting with flash light emitted by the flash device is performed, among a plurality of shooting operations for acquiring a plurality of pieces of image data to be used for image combining processing, performs the charging control so that charging of the capacitor is not performed until the last shooting of the plurality of shooting operations for acquiring a plurality of pieces of image data to be used for the image combining processing is finished.

Abstract: The present invention discloses a short-range light source device for use with an image pick-up apparatus and the image pick-up apparatus provided with the same. The short-range light source device comprises a fixing base, multiple protective cap units, multiple light source units and multiple driving units. The fixing base constitutes a light receiving pathway corresponding to the lens of the image pick-up apparatus. Upon being driven by the driving units, the protective cap units are pivotally rotated in relation to the fixing base between a protective shielding position and an open position in a synchronous manner. Each of the light source units has a light exit face which is shielded and protected when the protective cap units are located at the shielding position and exposed when the protective cap units are located at the open position.

Abstract: An apparatus includes a display control section configured to control display of image data for an image, the image data including flash reach information identifying at least one portion of the image corresponding to at least one region reached by light from a flash. Also described are a method and computer-readable storage medium for controlling display of image data for the image.

Abstract: A light-emitting apparatus and a camera system including the same are disclosed. According to an aspect of the invention, a camera system is provided that includes a light source color detector for detecting a color temperature of a light source; an auxiliary light apparatus for changing a color temperature of auxiliary light according to the detected color temperature of the light source; and a white balance controller for adjusting white balance while the auxiliary light is being radiated. Accordingly, a photograph having a natural color sense can be reproduced by reducing a sense of color incongruity in a captured image.

Abstract: Disclosed herein are an infrared (IR) sensor and a sensing method using the same, in which disturbance by an external luminous object is removed using the IR sensor that irradiates IR light into a sensing area to sense an object, so that the position or distance of the object can be precisely and accurately sensed. An IR sensor includes an illumination unit that irradiates IR light into a sensing area; an image pickup device that obtains an IR image in the sensing area by sensing the IR light incident from the sensing area; and a control unit that controls the emission time at which the illumination unit irradiates the IR light and the pickup time of the image pickup device.

Abstract: The external device, for example, an electronic flash device, is wirelessly connectable to an information communication device, for example, a camera. The external device includes: a synchronization data creation unit that outputs synchronization data for synchronization of timing of processing related to photography; a packet creation unit that creates a communication packet including control information; and a packet output unit that outputs the communication packet to the exterior by wireless communication. The packet creation unit includes a packet reception unit that receives the communication packet; a detection unit that detects the synchronization data before all of the received communication packets received by the packet reception unit has been read in; and a signal output unit that outputs a synchronization signal used for establishing synchronization of the timing of the processing related to photography on the basis of detection by the detection unit of the synchronization data.

Abstract: A focusing operation is started before desired exposure according to a second program diagram is obtained when a program diagram is switched from a first program diagram to be used in a first mode to the second program diagram to be used in a second mode based on a light metering value.

Abstract: Systems, methods, and devices for obtaining a properly exposed strobe-illuminated image are provided. One method for doing so may include, for example, gathering image capture statistics during a first period when a strobe is not emitting light and during a second period when the strobe emits a preflash. These image capture statistics may include distinct image capture control statistics and luma values associated with the periods. Final image capture control statistics then may be determined based at least in part on the first luma value normalized to the first image capture control statistics and the second luma value normalized to the second image capture control statistics. Thereafter, the final image capture control statistics may be used to capture a properly exposed strobe-illuminated image when the strobe emits a main flash.

Abstract: An image display apparatus and a channel information display method thereof are discussed. According to an embodiment, the method includes displaying an image from a selected channel on at least one region of a screen; sequentially receiving, by a tuner, images from a plurality of channels; storing the received images in a storage unit; and displaying the stored images from the plurality of channels simultaneously on at least multiple regions of the screen in response to a channel information function.

Abstract: An imaging device preferably for use in a 2-D CCD or CMOS sensor is disclosed. The illumination means uses a plurality of illumination sources, some of which are coupled to lenses in an offset manner to promote far field illumination, and some of which are not so coupled and are arranged to provide near field illumination.

Abstract: A camera of the present invention comprises a contrast detection section for detecting a contrast value, an assist light section for irradiating a subject by emitting light at a first luminance amount or a second luminance amount that is dimmer than the first luminance amount, and a control section for moving the photographing lens and detecting a focus position of the photographing lens based on contrast values detected by the contrast detection section, wherein the control section causes the assist light section to emit assist light in a first luminance amount or a second luminance amount, and detects a focus position of the photographing lens based on one of a first contrast value detected in a state where the assist light section emits light in the first luminance amount, or a second contrast value detected in a state where the assist light section emits light in the second luminance amount.

Abstract: Certain aspects of this disclosure relate to an image signal processing system that includes a flash controller that is configured to activate a flash device prior to the start of a target image frame by using a sensor timing signal. In one embodiment, the flash controller receives a delayed sensor timing signal and determines a flash activation start time by using the delayed sensor timing signal to identify a time corresponding to the end of the previous frame, increasing that time by a vertical blanking time, and then subtracting a first offset to compensate for delay between the sensor timing signal and the delayed sensor timing signal. Then, the flash controller subtracts a second offset to determine the flash activation time, thus ensuring that the flash is activated prior to receiving the first pixel of the target frame.

Abstract: A photographing apparatus according to the present invention comprises: an accumulation control section controlling an accumulation operation in an imaging section; an accumulation start timing setting section setting a timing of accumulation start in the imaging section; and a flash light emission control section controlling the start and stop of light emission in the flash light emission section, wherein the accumulation control section instructs the flash light emission control section to start the flash light emission and causes the imaging section to start the accumulation based on an output of the accumulation start timing setting section, and the flash light emission control section causes the flash light emission to be started in response to the flash light emission start instruction of the accumulation control section and causes the flash light emission section to stop the light emission based on an appropriate light emission amount output by an exposure calculation section.

Abstract: There is provided an improved solution for illuminating an object by means of an optical component. In use, the optical component is integrated with a hand-held camera unit. The optical component comprises a light-diffusing element. In addition, the optical component may also comprise at least one light source and an end element that directs the light to the object.

Abstract: In an imaging apparatus having LED 1j for emitting light toward an object, an imaging unit 1 having CCD 1d generates a first object image with LED 1j emitting light and a second object image with LED 1j emitting no light. Average brightness of the first object image and average brightness of the second object image are calculated. Brightness difference between the average brightness of the first object image and the average brightness of the second object image is calculated. Brightness difference of the object is obtained using the calculated brightness difference between the first and second object images, and under control of CPU 9, a process is executed for adjusting exposure conditions based on the brightness difference of the object.

Abstract: Provided is an imaging system, including: a light source; an imaging device; a first optical system for irradiating an imaging object with light from the light source; a second optical system for causing one of light reflected from the imaging object and light transmitted through the imaging object to enter the imaging device; a control device for controlling the light source to irradiate the light with a predetermined period; and a processing device for acquiring time-series image data over a plurality of frames by controlling the light source to irradiate the light with the predetermined period, and allocating a maximum pixel intensity among the time-series pixel data of each pixel as pixel data of the each pixel to thereby obtain first image data when the light source irradiates the light.

Abstract: The camera body includes an imaging element, a hot shoe, an internal light source, and a camera controller. The camera controller is configured to calculate an evaluation value on the basis of the image data produced by the imaging element, and perform video autofocusing on the basis of the evaluation value. When the camera controller decides that the auxiliary light is needed, and that the flash device mounted to the hot shoe has an external auxiliary light source arranged to emit near infrared light, the internal light source emits light during the video autofocusing.

Abstract: An imaging apparatus capable of performing photographing in which a light emitting unit executes main light emission includes a photometric unit that executes photometry, a selection unit that selects a certain area in a photographing screen, and a control unit that determines a main light emission amount of the light emitting unit based on a photometric value acquired by photometry executed by the photometric unit when the light emitting unit executes pre-flash emission and controls, based on a position of the area selected by the selection unit, a light receiving amount of the photometric unit during a photometry period for acquiring the photometric value used for determining the main light emission amount.

Abstract: A camera assembly including a camera that has an image-capturing device. The camera assembly also includes an illumination device that is coupled to the camera and that is adapted to illuminate a subject when the camera is capturing an image, and a control unit. The illumination device is capable of illuminating in at least two different peak wavelengths. The control unit automatically configures the camera assembly to use one or more of the at least two different wavelengths.

Abstract: Example apparatus and methods concern controlling a variable flash to improve image detection. One example apparatus includes a digital camera and a variable flash configured to be controllable to operate at different selected illumination levels. The apparatus may be configured to identify a current imaging condition associated with the digital camera and to then determine a lux setting for the variable flash as a function of the current imaging condition. The flash may then be controlled as a function of the lux setting for subsequent image acquisition. The acquisition, analysis, and flash control may be exercised until a desired illumination is achieved. In one embodiment, determining the current imaging condition may include analyzing a frame acquired from the digital camera for attributes including image brightness, and edge detectability. In one embodiment, input from a light sensor may also be considered.

Abstract: An approach is provided to adjust illumination color temperature at a flash unit of a camera. Data that corresponds to the ambient light of a physical environment is collected, such as at a color temperature meter included in the camera. The ambient light has a distribution of color temperatures that cycle over a fixed time period. When a flash request is received, a time is calculated at which the flash unit will flash. One of the color temperatures is identified from the distribution of color temperatures with the identified color temperature being the predicted color of the ambient light that will be present in the physical environment when the flash unit flashes. The color temperature of the flash unit is set to the identified color temperature.

Abstract: This document describes various apparatuses and techniques for rapid synchronized lighting and shuttering. These apparatuses and techniques are capable of capturing two images, where one of the images integrates multiple exposures during which an image area is illuminated by a light source and another of the images integrates multiple exposures during which the image is not illuminated by the light source. The image area can be illuminated by rapidly flashing the image area with the light source and synchronizing a shutter to permit one image sensor to capture an image when the image area is illuminated and another image sensor to capture the image area when the image area is not illuminated. These two images can be captured concurrently or nearly concurrently, thereby reducing or eliminating motion artifacts. Further, these apparatuses and techniques may do so with slow and relatively low-cost cameras and relatively low computational costs.

Abstract: A light-supporting structure and methods of using same that includes a central hub including a suspension point, a plurality of arms extending from the central hub, a separate support rod extending from each of the plurality of arms distal to the central hub, a separate lighting element mounted to each support rod, and a control system configured to orient each lighting element using motors with respect to a photographic zone. In a preferred embodiment, the lighting elements can be oriented with respect to a photographic zone in response to a user input selection based on a desired photographic result selected at a user interface.

Abstract: A solid-state imaging apparatus 10 includes a solid-state imaging device 40, and a color filter 16 constituted of a first color filter 16a (first filter) and a second color filter 16b (second filter). The solid-state imaging device 40 photoelectrically converts light incident to a face S1 (first face) thereof to thereby capture an image of an object to be imaged. Arranged on the face S1 of the solid-state imaging device 40 is the first color filter 16a and second color filter 16b. The first color filter 16a is a filter that allows first wavelength band light to be selectively transmitted therethrough; the second color filter 16b is a filter that allows second wavelength band light in the longer wavelength side relative to the first wavelength band to be selectively transmitted therethrough.

Abstract: An electronic camera includes: an image-capturing unit with variable image-capturing sensitivity, which captures an image of a subject through a photographic lens; a brightness detection unit that detects subject brightness; an exposure calculation unit that executes an exposure calculation by using the image-capturing sensitivity set at the image-capturing unit and the detected subject brightness; a flash quantity calculation unit that calculates a main flash quantity for a flash unit that illuminates the subject when capturing an image thereof; and a sensitivity adjusting unit that adjusts the image-capturing sensitivity so as to achieve optimal exposure with a main flash quantity within a flash quantity control range of the flash unit when the main flash quantity calculated by the flash quantity calculation unit is outside the flash quantity control range.