Abstract: An imaging apparatus comprises: an image pickup element including a two-dimensional array of a plurality of photoelectric conversion elements, for outputting an electric signal of an optical image; a focus adjustment unit for adjusting a focus state of a photographing optical system; an image pickup control unit for obtaining electric signals from the image pickup element in a plurality of different focus states while changing the focus state by the focus adjustment unit; and a light ray determination unit for obtaining incident position information and incident angle information, which are light field information of the optical image of an object, by using the electric signals obtained in the a plurality of different focus states by the image pickup control unit.

Abstract: An optical device capable of selecting a focus detection point from a plurality of focus detection points for focus detection, such that the selection is performed while causing a user's intention to be reflected thereon. The optical device performs focus detection at a focus detection point selected from focus detection points in a predetermined photographing range. A face area is detected from an object image in the photographing range. The line of sight of a user is detected in the photographing range. A photographing mode is selected from a plurality of photographing modes. The priorities of face detection and sight line detection are determined according to the selected photographing mode. A focus detection point at which the focus detection is performed is determined according to the priorities.

Abstract: An image generation method is provided for generating an output image from an input image acquired by an image sensor that has an array of multiple pixels, each of which has arranged therein multiple sub-pixels that each receive a light beam that passes through a different pupil sub-area of an imaging optical system. The method includes a step of generating multiple parallax images that respectively correspond to the different pupil sub-areas; a step of generating multiple pixel shifted images by performing different shifting for each of the parallax images according to a virtual image forming plane of the imaging optical system; and a step of generating an output image that has a higher resolution than the resolution of the parallax images from the pixel shifted images through composition processing.

Abstract: Provided is an imaging apparatus having a plurality of light receiving parts for each one microlens in order for capturing a three-dimensional image, while being capable of obtaining a more natural image when creating a two-dimensional image. The imaging apparatus includes: a microlens array (2) having a plurality of microlenses (20) regularly aligned two-dimensionally; an imaging lens for imaging light from a subject onto the microlens array (2); and a plurality of light receiving parts (22L, 22R) disposed for each of the plurality of microlenses (20). The plurality of light receiving parts (22L, 22R) associated with each microlens (20) receive the light from the subject that has been imaged onto the microlens and subject the light to photoelectric conversion. The imaging lens has a pupil which is disposed as being out of conjugation with a light receiving plane of the light receiving parts (22L, 22R).

Abstract: A projector illuminates an object, within the field of view of a camera, with a sequence of code patterns. The camera captures the illuminated object and provides object images to a decoder to convert the code patterns into code. A transition locator locates discontinuities in the code pattern images. A dequantizer reconstructs a range image from those discontinuities and said code.

Abstract: To generate a warning that a stereoscopic image sequence has been synthesized from a 2D image sequence, a video processor correlates left-eye image data and right-eye image data to identify any sustained temporal offset between the left-eye and right-eye image data. A measure of sustained correlation between a measured spatial distribution of horizontal disparity and a spatial model can also be used to generate the warning.

Abstract: It is inconvenient for a user that a UI for inputting a virtual focus position at the time of refocus and a UI for inputting a focus position at the time of image capturing exist separately from and independently of each other. An image processing device comprising a generation unit configured to generate combined image data obtained in a case of capturing an image with a second set value different from a first set value used in capturing an image with an image capturing device by using a plurality of pieces of captured image data obtained by the image capturing device, wherein the image capturing device is capable of capturing image data from a plurality of viewpoint positions and includes an operation unit for setting a set value of an image capturing parameter, and wherein the first and second set values are set via the operation unit.

Abstract: A method and a system for measuring a distance from a reference point to an object are provided. The method comprises the following steps. At least one image of an object is captured through a lens comprising a phase mask composed of a parallel plate and a wedge prism. At least two corresponding regions of interest (ROI) are obtained from the images. The regions of interest correspond to identical portions of the object. The relative coordinates between corresponding locations within the corresponding regions of interest is measured. The distance is calculated according to the relative coordinates.

Abstract: A video surveillance system comprises two or more video cameras each providing a video signal, the cameras each being positioned at a respective known location; a motion detector to detect image motion of an image feature within the field of view of one of the video cameras and for deriving a corresponding physical motion of an object represented by the image feature; and a motion predictor to predict the physical motion of the object with respect to the known locations of the cameras so as to derive an expected time when the object may be observed in the field of view of another one of the video cameras, in which the motion predictor is responsive to routing data defining possible routes from the observed location of the object to the field of view of another of the cameras.

Abstract: A dental camera system for creating an image of an object has a dental camera, which comprises a housing and optics arranged therein together with an image sensor. The dental camera system further comprises an evaluation unit which cooperates with the image sensor to capture the object. To achieve a dental camera system whereof the dental camera performs using optics without movable or controllable optical elements, it is provided for the optics to be plenoptic optics which are designed to determine a 4D light field when capturing the object and for the evaluation unit to be designed to calculate at least one representation of the captured object from the 4D light field.

Abstract: Multiple images are acquired by continuously capturing images at high speed while panning an image capturing device (10). An optical flow between a reference image (previously captured image) and a currently captured image in a time sequence of imaging is calculated, and, based on this calculated optical flow, an image of an overlap area (i.e. area with disparity) between the images is cut out. Subsequently, the pair of cut images is stored in a memory (48) as a left image and a right image. After that, a left panoramic image is synthesized from multiple left images stored in the memory (48) and, similarly, a right panoramic image is synthesized from multiple right images.

Abstract: Spatio-temporal light field cameras that can be used to capture the light field within its spatio temporally extended angular extent. Such cameras can be used to record 3D images, 2D images that can be computationally focused, or wide angle panoramic 2D images with relatively high spatial and directional resolutions. The light field cameras can be also be used as 2D/3D switchable cameras with extended angular extent. The spatio-temporal aspects of the novel light field cameras allow them to capture and digitally record the intensity and color from multiple directional views within a wide angle. The inherent volumetric compactness of the light field cameras make it possible to embed in small mobile devices to capture either 3D images or computationally focusable 2D images. The inherent versatility of these light field cameras makes them suitable for multiple perspective light field capture for 3D movies and video recording applications.

Abstract: The present invention includes an image acquisition device configured to acquiring multiple viewpoint images that are generated by pupil-division imaging and that are different in viewpoint, a parallax calculation device 40a for calculating a first parallax amount between viewpoint images for the multiple viewpoint images, a memory 48 in which parallax correction information indicating the relationship between the first parallax amount and the deviation amount in the parallax direction for the corresponding object images, which is a deviation amount between viewpoint images for the multiple viewpoint images and is caused by the pupil-division imaging, is stored, and a parallax correction device 40b for calculating a second parallax amount, which is an amount resulting from correcting the first parallax amount to the deviation amount in the parallax direction for the object images, based on the first parallax amount and the parallax correction information stored in the memory 48.

Abstract: A method and apparatus for providing a three-dimensional (3D) image are provided. The method includes receiving a left-eye image and a right-eye image, estimating an overlap region of the left-eye image and right-eye image; generating an overlap image based on the estimated overlap region; and controlling the left-eye image, the right-eye image and the overlap image to be output.

Abstract: A stereoscopic image display system includes a three-dimensional (3D) image signal generator, a display panel, a timing controller, a data driver, and a gate driver. The 3D image signal generator generates left-eye data and right-eye data on the basis of an image signal outputs the left-eye data and the right-eye data to the timing controller. The timing controller outputs the left-eye data and the right-eye data having a first frequency to the data driver in a first mode and outputs left-eye frame data and right-eye frame data having a second frequency to the data driver in a second mode. Two pixels, which are respectively connected to an i-th gate line and an (i+1)th gate line among the gate lines and to a same data line among the data lines, are operated with the same driving time in the first and second modes.

Abstract: A method for outputting a 3D image and a display apparatus using the same are provided. The method for outputting a 3D image includes generating a left eye image and a right eye image using an input image, decreasing resolution of the left eye image and the right eye image by a predetermined positive number of times and outputting the left eye image and the right eye image by increasing an output frequency by the positive number of times. Accordingly, a 60 Hz timing controller used for a general display apparatus may be used and thus, a flickering effect and a cross-talk effect may be prevented.

Abstract: Disclosed herein are apparatuses and methods for reclaiming the full field of view (FOV) of the original camera lens in a stereoscopic image capture system using an anamorphic attachment. Also disclosed are apparatuses and methods of projecting stereoscopic images on a fixed size screen from a single projector that was initially designed primarily for 2D operation. An exemplary apparatus may comprise an anamorphic afocal converter configured to halve a FOV of a camera or projector into two optical paths, and convert the halved FOVs into two full FOVs of the camera or projector. Such an apparatus may further comprise reflecting elements cooperatively arranged to direct two rectified images at a camera sensor or projection screen, where one or more reflecting elements receive the first of the two full FOVs and one or more reflecting elements receive the second of the two full FOVs.

Abstract: There is provided an image processing apparatus including a first polarizing unit that has a first polarization region and a second polarization region to transmit different polarized light corresponding to different viewing point images, a second polarizing unit that includes a third polarization region to transmit only transmission light of the first polarization region, a fourth polarization region to transmit only transmission light of the second polarization region, and a total transmission region to transmit the total transmission light of the first polarization region and the second polarization region, an imaging element, and an image processing unit that executes signal processing with respect to an output signal of the imaging element. The image processing unit executes correction processing to generate a two-dimensional image and executes image conversion of the two-dimensional image to generate a left eye image and a right eye image for three-dimensional image display.

Abstract: An automatic tracking camera system includes: a rotating unit for panning and tilting an image pickup unit including a lens apparatus and an image pickup apparatus; a tracking object detector; a motion vector detector for detecting a motion vector of the object to be tracked; a capture position setting unit for setting a capture position of the object to be tracked in the picked up image; and a controller for controlling drive of the rotating unit. The controller controls the rotating unit in a capture mode to capture the object to be tracked at the capture position based on the motion vector detected by the motion vector detector after the tracking object detector has detected the object to be tracked in the picked up image, and a maintenance mode to continuously capture the object to be tracked at the capture position after the capture mode.

Abstract: Disclosed is a camera integrated with a light source, and a method of operating the same. The camera includes: the light source configured to emit light; a scanning mirror configured to scan the light emitted from the light source toward an object; an optical detector configured to detect the light reflected from the object; and a controller configured to transmit a control signal for selectively adjusting a scanning angle of the scanning mirror, and to generate a depth image of the object using the reflected light detected by the optical detector.

Abstract: A method for multiplexing a stream of stereoscopic image source data into a series of left images and a series of right images combinable to form a series of stereoscopic images, both the stereoscopic image source data and series of left images and series of right images conceptually defined to be within frames. The method includes compressing stereoscopic image source data at varying levels across the frame, thereby forming left images and right images, and providing a series of single frames divided into portions, each single frame containing one right image in a first portion and one left image in a second portion. Alternately, single frames may contain two right images in a first two portions of each single frame and two left images in a second two portions of each single frame, wherein each set of right and left images may be processed differently.

Abstract: This invention is to provide an image processing apparatus, an image processing method, a program, and a display in which both of a secret image and a public image can be efficiently displayed with high picture quality without reducing contrast of the public image. One of output images is a secret image which displays an input secret image as one of input images in a partial area of a screen, all the output images including the secret image have a relationship to become, when a luminance value of each pixel thereof is totaled, an input public image as one of the input images; and during a period in which at least the secret image is being outputted, shutter glasses disposed between a display to which the image signals are inputted and user's eyes are set to a light transmission state.

Abstract: A light amount adjusting apparatus includes: a two-dimensional (2D) aperture assembly that adjusts an opening area of a via hole through which light is transmitted; a three-dimensional (3D) aperture plate that forms a first opening and a second opening by blocking a part of the via hole, or moving to outside of the via hole to open the via hole; a first shielding plate that is movable to open or close the first opening; and a second shielding plate that is movable so as to close the second opening when the first shielding plate opens the first opening and to open the second opening when the first shielding plate closes the first opening.

Abstract: A first image nonalignment amount, between a first type image and a second type image captured when the focusing lens is located at an in-focus position, of any subject, that is positioned a predetermined distance from the image capturing apparatus, is obtained. A second image nonalignment amount, between the first type image and the second type image obtained when the focusing lens is located at a predetermined reference position, of the subject is obtained. Then an image shift amount, for at least one of the first type image and the second type image captured when the focusing lens is located at the in-focus position, is determined, so that the difference between the first image nonalignment amount and the second image nonalignment amount falls within a predetermined range.

Abstract: An image processing apparatus includes: an acquisition unit configured to acquire captured image data and depth map data representing a distribution of depth information of an object acquired from the captured image data; a reduction unit configured to reduce the captured image data acquired by the acquisition unit in accordance with a data amount of the depth map data; and a correction unit configured to correct the depth map data by using the reduced captured image data.

Abstract: A two-parallel-channel reflector (TPCR) with focal length and disparity control is used after being combined with an imaging device. A left parallel channel and a right parallel channel are formed in the TPCR, so that the imaging device can synchronously perform an imaging operation on a left side view and a right side view of a scene, so as to obtain a stereoscopic image. Each parallel channel is bounded by two curved reflecting mirrors, so that captured light rays may be parallelly reflected in the channel, and an operator may adjust a convergence angle and an interocular distance between the left side view and the right side view, so as to control the focal length and disparity during imaging as require.

Abstract: A three-dimensional image processing apparatus includes: a distance image generating part capable of generating a distance image based on a plurality of images captured in an image capturing part; a pattern generating part for generating a first projection pattern and a second projection pattern whose fringe direction is different from that of the first projection pattern as a plurality of projection patterns obtained by changing a fringe direction of a projection pattern; and an incorrect-height determining part for making comparison in height information of a corresponding portion of an inspection target between a first distance image, generated in the distance image generating part based on a first pattern projected image, and a second distance image, generated based on a second pattern projected image, to determine height information of a portion where a difference not smaller than a predetermined value has occurred as incorrect.

Abstract: The stereo display apparatus displays parallax images to present a stereo image. The apparatus acquires the parallax images and information on a maximum pixel shift amount and a minimum pixel shift amount of the parallax images, calculates maximum and minimum relative parallax amounts corresponding to the maximum and minimum relative parallax amounts, by using the information on the maximum and minimum pixel shift amounts and a display condition, and determines whether or not at least one of the maximum and minimum relative parallax amounts exceeds a fusional limit criterion value. The apparatus determines whether or not a difference between the maximum and minimum relative parallax amounts exceeds a fusional limit range amount if the at least one of the maximum and minimum relative parallax amounts exceeds the fusional limit criterion value.

Abstract: A driving assist apparatus acquires vehicle information which includes a gear state and speed of a vehicle; judges a state of preparing for movement, a state of starting movement, and a state during movement; generates a wide-angle image that is an image that can see a wide range although having distortion when the vehicle state is the state of preparing for movement or the state of starting movement; and generates a no-distortion image that is an image in which the distortion due to the lens shape and the distortion by the projection system are eliminated from the camera image when the vehicle state is the state during movement.

Abstract: A prediction system for predicting solar irradiance based on cloud characteristics includes a sky imager that includes a customized lens configured to capture one or more substantially planar images of the sky. The prediction system further includes an image processor coupled to the sky imager and configured to process the one or more substantially planar images. Moreover, the prediction system includes a computing system coupled to the image processor and configured to detect cloud characteristics based on the one or more substantially planar images, and predict the solar irradiance based on the cloud characteristics.

Abstract: A camera objective for a camera includes a mask having a plurality of masking sections which are permeable for radiation of a first spectral range and are impermeable for radiation of a second spectral range different from the first spectral range. A camera system includes a digital camera for taking images. The camera system includes such a camera objective and an optoelectronic sensor arrangement having a plurality of sensor elements for generating exposure-dependent received signals which form a respective image. The plurality of sensor elements includes a first group of sensor elements for generating received signals in dependence only on radiation of the first spectral range and a second group of sensor elements for generating received signals in dependence on radiation of the second spectral range.

Abstract: A method for generating a translation image includes first and second lenses capturing first and second images toward an object respectively, an image processing device calculating a depth of field of a pixel in the first image relative to the first lens according to a first vertical viewing angle between the pixel in the first image and the first lens, a second vertical viewing angle between a corresponding pixel in the second image and the second lens, and a distance between the first and second lenses, the image processing device calculating a horizontal viewing angle between the pixel in the first image and the first lens according to the depth of field, coordinates of the pixel in the first image, and the distance, and the image processing device generating a translation image according to the coordinates of the pixel, the depth of field, the distance, and the horizontal viewing angle.

Abstract: An image pickup apparatus having not less than three optical systems, and an image pickup element which picks up an object image by the optical system, includes an object-information acquiring section which acquires information of an object, a parallax-amount computing section which computes an amount of parallax corresponding to the information of the object, and an optical-system selecting section which selects optical systems for photographing from among not less than three optical systems, based on the amount of parallax corresponding to the information of the object, that has been computed by the parallax-amount computing section.

Abstract: An imaging apparatus includes a first light-shielding member formed in a predetermined optical member included in a photographing optical system, the first light-shielding member dividing a pupil region of the photographing optical system into a first region and a second region and a second light-shielding member letting only a light beam passing through the first region enter a first light-receiving element and letting only a light beam passing through the second region enter a second light-receiving element other than the first light-receiving element.

Abstract: A digital camera includes a first optical system including a first optical axis; a second optical system including a second optical axis which is different from the first optical axis; a first image sensor and a second image sensor for detecting subject images; and a controller for performing focus control on each optical system and for instructing each image sensor to execute shooting operation. The controller instructs the first image sensor and the second image sensor to execute shooting operation at a first timing when the focus operation for the first optical system is finished or a second timing when the focus operation for the second optical system is finished, which is later.

Abstract: An image-capturing system with a dual lens camera provided in the present invention includes a first lens, a second lens, an actuating module, a control unit, and an image processing unit. The actuating module is utilized to rotate the first lens and the second lens. The control unit controls the actuating module to rotate the first lens and the second lens such that a first visibility region overlaps a second visibility region to define an overlapping range which has a first mode and a second mode according to a size of the overlapping region. The image processing unit stitches the first image of the first lens and the second image of the second lens for forming an ultra wide-angle image in the first mode; the image processes unit processing the first image and the second image into a stereoscopic image in the second mode.

Abstract: A method and camera for generating a high dynamic range (HDR) image comprising the following steps: receiving a first optical signal from a lens and generating a first output signal at a first image acquisition chip, wherein the first image acquisition chip is coated with a first partial reflection coating; reflecting the first optical signal off the first partial reflection coating to create a second optical signal such that the second optical signal has a lower intensity than the first optical signal; receiving the second optical signal and generating a second output signal at a second image acquisition chip; and combining the first and second output signals to create the HDR image.

Abstract: In a conventional imaging device, a light-blocking member for blocking incident luminous fluxes is provided for each pixel, for generating a parallax image. However, the light-blocking member is provided apart from the photoelectric converter element, and so unnecessary light such as diffracted light generated at the boundary between the light-blocking member and the aperture portion sometimes reaches the photoelectric converter element. In view of this, provided is an imaging sensor including: photoelectric converter elements aligned two dimensionally, and photoelectric converting incident light into an electric signal; and reflection rate adjusted films, each of which is formed on a light receiving surface of a photoelectric converter element of at least a part of the photoelectric converter elements and at least includes a first portion having a first reflection rate and a second portion having a second reflection rate different from the first reflection rate.

Abstract: A stereo imaging apparatus includes: an imaging unit which generates an image; a stereo adapter which is mounted on the front of the imaging unit, and splits light from a subject into a first light flux and a second light flux along a parallax direction and guides the first and second light fluxes so that the first and second light fluxes are incident side by side on the imaging unit in a direction perpendicular to the parallax direction; and a stereo image generating unit which, based on the image, generates stereo images. The stereo image generating unit includes: a dividing unit which divides the image into two sub-images along the direction perpendicular to the parallax direction; a horizontal direction correcting unit which corrects any rotation of the subject in the two sub-images; and a trapezoidal distortion correcting unit which corrects any trapezoidal distortion of the subject in the two sub-images.

Abstract: There is provided an imaging element that photographs multiple viewing point images corresponding to images observed from different viewing points and an image processing unit separates an output signal of the imaging element, acquires the plurality of viewing point images corresponding to the images observed from the different viewing points, and generates a left eye image and a right eye image for three-dimensional image display, on the basis of the plurality of acquired viewing point images. The image processing unit generates parallax information on the basis of the plurality of viewing point images obtained from the imaging element and generates a left eye image and a right eye image for three-dimensional image display by 2D3D conversion processing using the generated parallax information. By this configuration, a plurality of viewing point images are acquired on the basis of one photographed image and images for three-dimensional image display are generated.

Abstract: The invention provides a complete system for three-dimensional (3D) (stereo) still photography in a digital format. This includes capturing the image or photo, viewing, printing and projecting it. Intermediate steps would include downloading images to a computer, editing, enhancing or modifying, saving, recording photo images to other storage medium, and the printing of still photos. This invention is a significant advancement of the traditional analog film stereo slides, in that the digital format will allow viewing of the image in the camera in 3D, prior to, during, immediately after exposure and at any other time after exposure. With significant computer processing capability after exposure in editing, enhancing, color correcting, adding text and art, the images are further improved. The system includes the ability to view images, in 3D (stereo), in the camera, in a hand held viewer, on a computer screen on a standard television set as well as printed pairs or in anaglyph formats.

Abstract: This invention discloses using one or more color-encoded fringe patterns for optically, three-dimensionally measuring an object's shape. In one embodiment, a color-encoded fringe pattern comprising a plurality of fringes that are modulated in intensity is configured as follows. An individual fringe selected from the fringes comprises a colored line at a location on the fringe width. The colored line has a line width that is substantially narrower than the fringe width in order that the colored line has a substantially similar intensity over the line width. The individual fringe excluding the colored line has a fringe color that is substantially uniform over the individual fringe. The fringe color is substantially different from the line color. Fringe colors of all the fringes are substantially similar, thereby enabling a major portion of the color-encoded fringe pattern to provide a substantially-uniform illumination color for projection onto the object.

Abstract: A dual-mode light field camera or plenoptic camera is enabled to perform both 3D light field imaging and conventional high-resolution 2D imaging, depending on the selected mode. In particular, an active system is provided that enables the microlenses to be optically or effectively turned on or turned off, allowing the camera to selectively operate as a 2D imaging camera or a 3D light field camera.

Abstract: A device for measuring three dimensional shape includes a first irradiation unit, a first grating control unit, a second irradiation unit, a second grating control unit, an imaging unit, and an image processing unit. After performance of a first imaging operation as imaging processing of a single operation among a multiplicity of imaging operations performed by irradiation of said first light pattern of multiply varied phases, a second imaging operation is performed as imaging processing of a single operation among a multiplicity of imaging operations performed by irradiation of said second light pattern of multiply varied phases. After completion of the first imaging operation and the second imaging operation, shifting or switching operation of the first grating and the second grating is performed simultaneously.

Abstract: A distance determining section increases a convergence point distance by a distance proportionate to an operation of an up key. The distance determining section reduces the convergence point distance by a distance proportionate to an operation of a down key. A target convergence point distance is incremented by 1 m per pressing operation of the up key. The target convergence point distance is decremented by 1 m per pressing operation of the down key. A shift amount setting section converts the target convergence point distance into a shift amount that corresponds to the target convergence point distance. The shift amount is set to an image shifting section. The image shifting section shifts each cut out region by the shift amount from a reference position and cuts out viewpoint images with the cut out regions from original left and right viewpoint images. Thus, the parallax-adjusted viewpoint images are produced.

Abstract: An image processing apparatus includes a receiving unit configured to receive at least two parallax images that are obtained from a subject image captured via a single optical system, where the at least two parallax images include an image in a first viewpoint direction and an image in a second viewpoint direction, an average calculating unit configured to calculate, for each pixel, an arithmetic average and a geometric average between the image in the first viewpoint direction and the image in the second viewpoint direction, a ratio calculating unit configured to calculate, for each pixel, a ratio of the arithmetic average to the geometric average, and a disparity calculating unit configured to calculate, on a pixel-by-pixel basis, a disparity between the image in the first viewpoint direction and the image in the second viewpoint direction based on the ratio.

Abstract: A technique is disclosed to obtain first image data including a first pixel value of a first pixel having a no-parallax opening corresponding to a reference direction, a second pixel value of a second pixel having a parallax opening that causes parallax in one direction and a third pixel value of a third pixel having a parallax opening that causes parallax in the opposite direction, to calculate, for a pixel position of the second pixel, a fourth pixel value by averaging the second pixel value at the pixel position and a hypothetical third pixel value and to calculate, for a pixel position of the third pixel, a fifth pixel value by averaging the third pixel value at the pixel position and a hypothetical second pixel value, and to use the first pixel value, the fourth pixel value and the fifth pixel value to produce 2D second image data.

Abstract: Systems and methods for providing depth imaging using a CCD image sensor. In a method for visual imaging and depth imaging, steps include providing a CCD image sensor device arranged to receive light from an optical lens and having an array of pixels and corresponding pixel charge storage elements; providing a light source for transmitting light pulses responsive to a pulse control signal; providing timing signals to configure the CCD image sensor to collect and store charge from the pixel storage elements; and performing a depth calculation using a background charge, a reflected charge, and a depth charge collected in three frame periods for each pixel in the CCD image sensor. A system including a CCD image sensor for use with the embodiments is disclosed. Additional embodiments are disclosed.

Abstract: The invention relates to a high resolution microscope for three-dimensionally determining the position of objects, in particular individual fluorophores, and preferably for the high spatial resolution luminescence microscopy of a sample, which is marked with marker molecules that can be activated or switched using a signal such that they can be induced to emit certain luminescent radiation only in the activated state. The object is represented by means of an imaging system, preferably the microscope lens, on a surface detector consisting of individual detector elements.

Abstract: An item tracking system includes a plurality of items for storage and removal from a compartment. The system includes tags affixed to the items and configured to store identifiers for the items. A tag reader receives data from the tags in response to the items being removed from and returned to the compartment. A sensor in the compartment identifies a state change associated with the compartment. A processor identifies removal of an item with data received by the tag reader, identifies the state change with the sensor after the item is removed and before it is returned, and generates an output with an output device including the identifier corresponding to the item in response to the state change in the compartment.