Abstract: Systems, devices, and methods related to a Deep Learning Accelerator and memory are described. For example, a digital camera may be configured to execute instructions with matrix operands and configured with: a housing; a lens; an image sensor positioned behind the lens to generate image data of a field of view of the digital camera; random access memory to store instructions executable by the Deep Learning Accelerator and store matrices of an Artificial Neural Network; a transceiver; and a controller configured to generate, and communicate using the transceiver to a separate computer, a description of an item or event in the field of view captured in the image data, based on an output of the Artificial Neural Network receiving the image data as an input. The separate computer may selectively request a portion of image data from the digital camera based on the processing of the description.

Abstract: A camera module according to one embodiment comprises: a housing including a through hole and a lens assembly disposed in the through hole toward a first surface on which light is incident; an infrared filter attached to a second surface of the housing, positioned on the opposite side of the first surface to shield inflow of infrared rays from the incident light; and an image sensor for recognizing the light passing through the infrared filter, wherein the infrared filter comprises: an effective filtering region for transmitting visible light; an attachment region attached by an adhesive applied to the second surface of the housing, for forming the exterior of the infrared filter; and a masking region formed between the attachment region and the effective filtering region, wherein the effective filtering region is formed to protrude from a vertex region and overlaps with a region in which the image sensor is positioned and the attachment region is formed as an area capable of securing adhesion with the second

Abstract: Provided is an imaging apparatus including at least one or more imaging units, and more particularly, to an imaging apparatus including at least one or more imaging units which includes at least one or more modules to perform modularization so that a time-slice imaging device may be installed, performs a light weight of the imaging units to solve difficulty in a process of connecting multiple heavy digital single lens reflex (DSLR) cameras to each other in order to realize a time-sliced image at a certain moment, achieves assembly simplicity and storage convenience through a structure that may be stored by separating the modules and a support, and achieves popularization of an imaging apparatus capable of capturing a time slice image.

Abstract: An interchangeable lens apparatus attachable to an imaging apparatus configured to move an image sensor in an image stabilization includes an imaging optical system, a storage unit configured to store image circle information including a relationship between an imaging condition and position information of an image circle of the imaging optical system, and a transmission unit configured to transmit at least part of the image circle information to the imaging apparatus.

Abstract: A device includes a multi-aperture imaging device having an image sensor; an array of adjacently arranged optical channels, and a beam deflector for deflecting a beam path of the optical channels, wherein a relative position of the beam deflector is switchable between first and second positions so that in the first and second positions, the beam path is deflected towards first and second total fields of view, respectively. The device further includes controller adapted to control the beam deflector to move to the first and second positions to obtain imaging information of the first and second total fields of view, respectively, from the image sensor; and to insert a portion of the first imaging information into the second imaging information so as to obtain accumulated image information that in parts represents the first total field of view and in parts represents the second total field of view.

Abstract: First and second readout circuits, each having a respective floating diffusion node, are coupled to a photodetection element within a pixel of an integrated-circuit image sensor. Following an exposure interval in which photocharge is accumulated within the photodetection element, a first portion of the accumulated photocharge is transferred from the photodetection element to the first floating diffusion node to enable generation of a first output signal within the first readout circuit, and a second portion of the accumulated photocharge is transferred from the photodetection element to the second floating diffusion node to enable generation of a second output signal within the second readout circuit. A digital pixel value is generated based on the first and second output signals.

Abstract: An image sensor, a camera module, and an electronic device are provided. The image sensor includes a pixel array and a control circuit. The pixel array includes a light sensing area and an imaging area. The light sensing area is configured to detect an illumination intensity, and the imaging area is configured to acquire an image. The control circuit is configured to receive a first instruction to control the light sensing area to detect an illumination intensity, and to receive a second instruction to control the imaging area to acquire an image.

Abstract: Multi-cameras and in particular dual-cameras comprising a Wide camera comprising a Wide lens and a Wide image sensor, the Wide lens having a Wide effective focal length EFLW and a folded or non-folded Tele camera comprising a Tele lens with a first optical axis, a Tele image sensor and an OPFE, wherein the Tele lens includes, from an object side to an image side, a first lens element group G1, a second lens element group G2 and a third lens element group G3, wherein at least two of the lens element groups are movable relative to the image sensor along the first optical axis to bring the Tele lens to a Macro state or to two zoom states, wherein an effective focal length (EFL) of the Tele lens is changed from EFLT,min in one zoom state to EFLT,max in the other zoom state, wherein EFLTmin>1.5×EFLW and wherein EFLTmax>1.5×EFLTmin. In the Macro state, the lens with EFLT,min allows for focusing on objects with short object-camera distances such as 5 cm. Actuators for enabling the movements are also disclosed.

Abstract: An imaging device, an imaging control method, an electronic apparatus, and a readable medium. The imaging device comprises: an image sensing assembly; a liquid crystal lens assembly provided with light control components corresponding to an image sensing component, wherein each of the light control components comprises a first liquid crystal component and a second liquid crystal component, which are arranged opposite each other, and the orientation of liquid crystal molecules in the first liquid crystal component is perpendicular to the orientation of liquid crystal molecules in the second liquid crystal component; and a processing assembly, wherein the processing assembly is respectively electrically connected to the image sensing assembly and the liquid crystal lens assembly, and is configured to adjust, according to a light receiving amount measured by the image sensing assembly, the voltage applied to the light control component.

Abstract: An image capture system provides automated prompts for aiding a user in capturing images for use in 3D model creation. While a user is preparing to capture an image, the system provides visual indications that indicate whether a quality-based condition is satisfied. Based on the visual indications, a user can determine whether an image, if captured, would likely be suitable for use in creating a 3D model. Determining if the quality-based condition is satisfied may include monitoring output generated by one or more sensors and comparing the output against a threshold value. Additionally, the system may analyze the visual content or metadata associated with an image to determine if the quality-based condition is satisfied and request user input to further identify certain image features that were identified by the system.

Abstract: An imaging device includes: a pixel array including pixels including a first pixel and a second pixel, each of the pixels including a photoelectric converter that converts light into charge, the photoelectric converter including a first electrode, a second electrode facing the first electrode, and a photoelectric conversion layer between the first electrode and the second electrode; and an addition circuit that adds together a signal generated in the first pixel and a signal generated in the second pixel.

Abstract: Disclosed are techniques that provide a “best” picture taken within a few seconds of the moment when a capture command is received (e.g., when the “shutter” button is pressed). In some situations, several still images are automatically (that is, without the user's input) captured. These images are compared to find a “best” image that is presented to the photographer for consideration. Video is also captured automatically and analyzed to see if there is an action scene or other motion content around the time of the capture command. If the analysis reveals anything interesting, then the video clip is presented to the photographer. The video clip may be cropped to match the still-capture scene and to remove transitory parts. Higher-precision horizon detection may be provided based on motion analysis and on pixel-data analysis.

Abstract: Provided an imaging system, an imaging apparatus and an image processing apparatus constituting the imaging system, an image processing method used in the image processing apparatus, and a non-transitory recording medium for causing a computer to implement the image processing method. According to the imaging apparatus according to one aspect of the present invention, an image of high image quality can be acquired (reconstructed) in the imaging system configured to include the imaging apparatus by acquiring first and second projected images using Fresnel zone plates having different phases of local spatial frequencies. In addition, the design parameters (pitches and the areas of the Fresnel zone plates, the number of pixels of image sensors, a distance between the Fresnel zone plates and the image sensors, and the like) can be selected without considering an effect of a noise component, and the number of restrictions on the design parameters is small.

Abstract: An image pickup apparatus that does not disturb an image pickup operation irrespective of an image pickup posture and is capable of reducing generation of image blur. The image pickup apparatus including a main body, a frame part, and at least one operating member. The main body has an image pickup lens. The frame part forms an opening together with a part of the main body and has an opening/closing member that opens/closes the opening. The operating member is used to enter a predetermined pickup instruction and is arranged in at least one of a first surface at an object side and a second surface opposite to the first surface that are parallel to an opening plane of the opening in the main body.

Abstract: Aspects of the disclosure relate to an emitter for active depth sensing shared by multiple apertures. An example method for active depth sensing by a device including a first aperture, a second aperture, a first emitter, and an optical element includes identifying whether the optical element is to be in a first optical element (OE) mode or a second OE mode, and controlling the optical element based on the identified OE mode. The optical element directs light from the first emitter towards the first aperture in the first OE mode. Light is directed from the first emitter towards the second aperture in the second OE mode.

Abstract: An image capture control apparatus comprises a touch detector being capable of detecting a touch operation, a tracking unit that tracks a tracking target in a live view image captured by an image capturing unit, and a display control unit that, in response to the touch detector detecting a movement operation of moving a touch position, carries out control to display an indicator at a position, in a display, that is based on a movement amount of the movement operation, and a control unit configured to, in response to a predetermined amount of time elapsing after the touch for making the movement operation has been released, carry out control such that a tracking target determined on the basis of the position of the indicator is tracked by the tracking unit.

Abstract: Preferable optical performance is ensured to improve image quality. The present technology includes: a housing having a mount part to which at least a first accessory and a second accessory are selectively attached; and an imaging element that photoelectrically converts captured light into an electrical signal, in which the mount part is formed with a first mount surface to which the first accessory is attached, and a second mount surface to which the second accessory is attached, and the first mount surface and the second mount surface are located on the same plane. Therefore, since the first accessory and the second accessory are selectively attached to the first mount surface and the second mount surface, which are located on the same plane, it is possible to ensure preferable optical performance and improve image quality.

Abstract: A stereo camera, including an imaging sensor, and an optical apparatus comprising first and second apertures separated by an interocular distance and configured to focus first and second images on the imaging sensor in a side by side arrangement. An imaging system including the stereo camera, and at least one image processor, configured to receive first and second frames of image data from a stereo camera, and construct volumetric image data based on binocular disparity between the first and second frames.

Abstract: An image sensor may include a substrate including first and second surfaces opposite each other, a plurality of photoelectric conversion devices isolated from direct contact with each other within the substrate, a first trench configured to extend into an interior of the substrate from the first surface of the substrate and between adjacent photoelectric conversion devices of the plurality of photoelectric conversion devices, a first supporter within the first trench, and a first isolation layer at least partially covering both sidewalls of the first supporter within the first trench, wherein a lower surface of the first supporter is coplanar with the first surface of the substrate.

Abstract: In one embodiment, a method includes, by a computing device of a first sensor receiving synchronization information from a controller. The synchronization information being generated based on a clock of the controller. The method also includes determining, based on the synchronization information, a first offset between a first clock of the first sensor and the clock of the controller; storing the first offset; and synchronizing, based on the stored first offset and the first clock of the first sensor, a first data capture by the first sensor with a second data capture by a second sensor. The first data capture and the second data capture being requested by the controller.