Method and apparatus are disclosed in which an optical image connector is moved from a second position to a first position. Light is received from a first direction and accordingly forming of a first optical image on an image sensor is caused using a first optical input. The optical image connector is moved from the first position to the second position. Light is received by the optical image connector from a second optical input. The second optical input is in a direction at least 90 degrees different than the first direction. A second optical image corresponding to the received light is formed on the image sensor by the optical image connector.

A system includes an image capture device including a plurality of image sensors that are each configured to capture a mutually distinct visual of a scene. Further, a spatial data device is included that is configured to generate and transmit a signal, and to receive reflections of the signal from a plurality of objects within the scene, and to convey information corresponding to respective positions of the plurality of objects. At least one processor is configured to generate an image using at least one captured visual of the scene by at least one of the plurality of image sensors and using a measurement associated with the information conveyed by the spatial data device.

A system includes an image capture device including a plurality of image sensors that are each configured to capture a mutually distinct visual of a scene. Further, a spatial data device is included that is configured to generate and transmit a signal, and to receive reflections of the signal from a plurality of objects within the scene, and to convey information corresponding to respective positions of the plurality of objects. At least one processor is configured to generate an image using at least one captured visual of the scene by at least one of the plurality of image sensors and using a measurement associated with the information conveyed by the spatial data device.

The present disclosure is directed to a method and system for monitoring a distance between a shutter and a reference point in a processing module. For example, the method includes moving a shutter relative to a substrate support in a wafer processing module and determining a distance between the shutter and a wall of the wafer processing module with a measurement device. In response to the distance being greater than a value, the method further includes transferring a substrate to the substrate support, and in response to the distance being equal to or less than the value, the method includes resetting the shutter.

The present disclosure is directed to a method and system for monitoring a distance between a shutter and a reference point in a processing module. For example, the method includes moving a shutter relative to a substrate support in a wafer processing module and determining a distance between the shutter and a wall of the wafer processing module with a measurement device. In response to the distance being greater than a value, the method further includes transferring a substrate to the substrate support, and in response to the distance being equal to or less than the value, the method includes resetting the shutter.

A cooking apparatus and a cooking apparatus control method are disclosed. The cooking apparatus and cooking apparatus control method analyze information on a cooking target using image analysis artificial intelligence (AI) technology, and perform cooking based on analyzed cooking information on the cooking target. In particular, the intensity, time, or the like of heat emitted toward the cooking target positioned in a cooking apparatus is controlled using an artificial intelligence artificial intelligence (AI) model that performs machine learning (ML) through a 5G network. In addition, the intensity, time, or the like of heat emitted toward the cooking target is controlled depending on a cooking state of a container accommodating the cooking target, so as to prevent the cooking target from being damaged.

Provided are a fixed-focus photographing module, a manufacturing method thereof, and a focusing device and method thereof. The focusing method includes: pre-assembling an optical lens assembly in a lens assembly holder, wherein the optical lens assembly is exposed at the exterior of the lens assembly holder, and the optical lens assembly is located in a photosnesing path of a photosensing component assembled in a circuit board to form a pre-assembled photographing module; performing, by the pre-assembled photographing module, a photographing operation to obtain a testing image; adjusting, according to the testing image, a relative position between the optical lens assembly and lens assembly holder until the pre-assemble photographing module outputs a clear image as required; and fixing the optical lens assembly and the lens assembly holder to complete a focusing operation and obtain an assembled fixed-focus photographing module.

Provided are a fixed-focus photographing module, a manufacturing method thereof, and a focusing device and method thereof. The focusing method includes: pre-assembling an optical lens assembly in a lens assembly holder, wherein the optical lens assembly is exposed at the exterior of the lens assembly holder, and the optical lens assembly is located in a photosensing path of a photosensing component assembled in a circuit board to form a pre-assembled photographing module; performing, by the pre-assembled photographing module, a photographing operation to obtain a testing image; adjusting, according to the testing image, a relative position between the optical lens assembly and lens assembly holder until the pre-assemble photographing module outputs a clear image as required; and fixing the optical lens assembly and the lens assembly holder to complete a focusing operation and obtain an assembled fixed-focus photographing module.

The presently disclosed subject matter includes a camera system for aerial photography applications which can be mounted on an aircraft and be operated for obtaining images of a surveyed area. The proposed camera system comprises a camera control unit operatively connected to a camera supported by a pivotal supporting device such as a gimbal assembly. The camera is continuously moved along a scanning line without stopping and is operated to capture images in a certain frame rate, this is carried out by measuring as well as regulating the angular velocity of the camera to adapt the pictured and the non-pictures zones over the scanning line.

A plurality of sharing groups are available to a user, each mapping to a corresponding set of users. While a first sharing group is the currently-selected sharing group, a first one or more activations of a capture control is detected. Based on the first sharing group being the currently-selected sharing group when the first one or more activations occurred, one or more first digital media items captured in response are automatically shared with a first set of users corresponding to the first sharing group. While a second sharing group is the currently-selected sharing group, a second one or more activations of the capture control is detected. Based on the second sharing group being the currently-selected sharing group when the second one or more activations occurred, one or more second digital media items captured in response are automatically shared with a second set of users corresponding to the second sharing group.