Systems, devices, and methods for surgical illumination and imaging of ophthalmologic structures within a human eye are disclosed. In various embodiments, an emitter, imaging sensor, and a system control image processor are configured to irradiate ophthalmologic structures with near infrared light, detect near-infrared scatter from the irradiated ophthalmologic structures and visible light in real-time and generate or otherwise cause an image to be displayed on the user display that includes the detected near-infrared scatter from the irradiated ophthalmologic structures displayed in real-time. In one or more embodiments, the image is a virtual image of the irradiated ophthalmologic structures generated at least based on near-infrared light scattering coefficients of the irradiated ophthalmologic structures. In certain embodiments, the image displayed on the user display includes the detected near-infrared scatter from the irradiated ophthalmologic structures overlaid on a real-time view from a surgical microscope.

At a camera device for a vehicle, a camera images an obverse side of a glass cover via the glass cover. A water repelling film is formed on an obverse side surface of the glass cover. A transparent conductive film of the glass cover generates heat, and the glass cover is heated. Because the transparent conductive film is electrically conductive, electrical resistance of an obverse side surface of the water repelling film can be lowered by the transparent conductive film, and charging of the obverse side surface of the water repelling film can be suppressed.

A vehicular vision system includes a camera having a housing and a lens barrel including a lens. The camera is configured to be disposed at an exterior portion of a vehicle so as to have a field of view exterior of the vehicle. An image processor is operable to process frames of image data captured by the camera. A heating device is disposed at or near the lens and is activated to initially heat the lens responsive to determination, via processing by the image processor of a frame of captured image data, of a threshold degree of lens occlusion at the lens. The heating device is (i) deactivated responsive to determination that the determined lens occlusion is not water or moisture, or (ii) further powered to increase the heating function responsive to determination that the determined occlusion is water or moisture.

An optical device may include an optical fiber having a fixed end and a free end; a first actuator positioned at a actuator position between the fixed end and the free end and configured to apply a first force on the actuator position of the optical fiber such that a movement of the free end of the optical fiber in a first direction is caused, wherein the first direction is orthogonal to a longitudinal axis of the optical fiber; and a deformable rod disposed adjacent to the optical fiber, and having a first end and a second end, wherein the first end is connected to a first rod position of the optical fiber and the second end is connected to a second rod position of the optical fiber.

A refuse vehicle includes a chassis supporting a plurality of wheels and a vehicle body. The vehicle body defines a receptacle for storing refuse. A lifting system is movable between a first position and a second position vertically offset from the first position. A processing unit is in communication with a sensor. An imaging device is in communication with the processing unit and is positioned on the refuse vehicle to have a field of view extending outwardly away from the refuse vehicle. The processing unit controls the imaging device to capture an image upon receiving an indication, from the sensor, that an indicator is present within the field of view. In some embodiments, the indicator is the presence of a positive object, like a waste container. In other embodiments, the indicator is the omission of an object (e.g., no container is detected) within the field of view.

A document scanner includes an enclosure with a scanning area. A transparent platform in the scanning area allows a user to position a document for authentication. A top camera takes a picture of the top of the document and a bottom camera takes a picture of the bottom under multiple light conditions including UV, IR, and white light. Mirrors reduce the enclosure size and multiple computers within the enclosure share work to process image data and determine document type. Types are searched in order based historically detected types. Barcode data is decoded and image samples are filtered as one of the computers finds a match. Security features are checked for the detected type and fake variants of the detected type are checked. Card information and formatting is validated and face data captured from a face camera and as shown on the document are matched against a database of banned users.

Methods and apparatus for using a controllable filter, e.g., an liquid crystal panel, in front of a camera are described. The filter is controlled based on the luminosity of object in a scene being captured by the camera to reduce or eliminate luminosity related image defects such as flaring, blooming or ghosting. Multiple cameras and filters can be used to capture multiple images as part of a depth determination processes where pixel values captured by cameras at different locations are matched to determine the depth, e.g., distance from the camera or camera system to object in the environment. Pixel values are normalized in some embodiments based on the amount of filtering applied to a sensor region and sensor exposure time. The filtering allows for regional sensor exposure control at an individual camera even though the overall exposure time of the pixel sensors may be and often will be the same.

Provided are a display panel and a display device. The display panel includes a base substrate, an array layer located at one side of the base substrate, a display layer located at one side of the array layer facing away from the base substrate, a color filter layer located at one side of the display layer facing away from the array layer, a touch layer located between the color filter layer and the display layer, a second light-shielding layer located at one side of the display layer facing away from the color filter layer and a light-sensing sensor layer. The color filter layer includes a first light-shielding layer and color resists, the first light-shielding layer includes multiple first imaging pin-holes; the second light-shielding layer includes multiple second imaging pin-holes corresponding to the first imaging pin-holes. The light-sensing sensor layer is used for detecting images generated via the second imaging pin-holes.

Point to point transmission holograms are used to provide a scene camera for an augmented reality glasses display system. A glass or plastic substrate acts as spectacle style lens. A holographic medium is applied to a surface of the substrate, within which is recorded a series of point to point transmission holograms. The construction points of the holograms are arranged at the eye and at the pupil of a camera placed, ideally, to the temple side of the user's eye. The recorded transmission holograms act by diffracting a portion of the light from the scene surrounding the user that is heading for the user's eye towards the scene camera. The hologram efficiency is balanced so that the user is still able to see the surrounding scene. The perspective of the view seen by the scene camera is substantially identical to that seen by the user through the lens.

A system and method for acquiring video content using a gun camera secured to a weapon is provided. One embodiment comprises a processor system; a camera communicatively coupled to the processor system; a wireless transceiver communicatively coupled to the processor system; and at least one sensor configured to detect an interior surface of the holster, wherein the sensor communicates a signal to the processor that indicates that the gun camera and the weapon are not secured within the holster in response to no longer detecting the interior surface of the holster, and wherein the processor system activates the camera to acquire video content in response to receiving the signal from the at least one detector that indicates that the weapon has been drawn from the holster.