A photographing method applied to a terminal including a first camera device and a second camera device includes: controlling the first camera device and the second camera device to photograph simultaneously when a photographing instruction for double exposure is received; acquiring a foreground image for a first target object according to materials including the first target object photographed by the first camera device, and marking the first target object in the foreground image to acquire a target object area corresponding to the first target object; acquiring a background image according to materials including a second target object photographed by the second camera device; and performing a superposition and integration processing on the foreground image, the background image and the target object area, to acquire a double exposure image.

A photographing method applied to a terminal including a first camera device and a second camera device includes: controlling the first camera device and the second camera device to photograph simultaneously when a photographing instruction for double exposure is received; acquiring a foreground image for a first target object according to materials including the first target object photographed by the first camera device, and marking the first target object in the foreground image to acquire a target object area corresponding to the first target object; acquiring a background image according to materials including a second target object photographed by the second camera device; and performing a superposition and integration processing on the foreground image, the background image and the target object area, to acquire a double exposure image.

Protected microphone systems may include one or more dampeners, one or more cavities, or a combination thereof to minimize the vibration sensitivity of a microphone of the protected microphone systems. The dampeners, when present, may be constructed of a foam material or a thin metal material.

The invention relates to an underwater digital video camera having an auto record system for automatically starting and stopping video recording at predetermined depths. The camera receives a current depth from a depth gauge and holds a sequence of recent currents depths and auto record settings such as a start trigger depth and a stop trigger depth, wherein the auto record system is adapted to, after the start/stop trigger depth is arrived at or passed for increasing/decreasing depths, start/stop video recording.

A removable and flexible protective cap that is configured and dimensioned to stretch and slip over fixed camera lenses, detachable camera lenses and other tubular-shaped objects. The protective cap fits on objects having different diameters. The protective cap further includes integrated bumpers to provide improved protection against impacts. The protective cap has a memory such that when it is removed from a lens, it returns to its original shape. The protective cap may include a lint-resistant feature to prevent lint and dust from adhering to the cap. The protective cap is particularly suited for lenses used in photography, videography, hunting, military, and astronomy. The protective cap is also suited for use on non-optical devices, including gun barrels. In addition, the protective cap is suitable for use on other tubular-shaped objects.

Protected microphone systems may include one or more dampeners, one or more cavities, or a combination thereof to minimize the vibration sensitivity of a microphone of the protected microphone systems. The dampeners, when present, may be constructed of a foam material or a thin metal material.

Protected microphone systems may include one or more dampeners, one or more cavities, or a combination thereof to minimize the vibration sensitivity of a microphone of the protected microphone systems. The dampeners, when present, may be constructed of a foam material or a thin metal material.

An imaging support device (10) includes an imaging point specification unit (22) that specifies an imaging point of a structure on the basis of drawing information, an imaging planning unit (24) that generates imaging plan information including at least one of imaging position information or imaging range information of an imaging device at each imaging of the structure on the basis of the specified imaging point and image quality information, an actual imaging information-acquisition unit (28) that acquires actual imaging information including at least one of actual imaging position information or actual imaging range information of the imaging device at each imaging of the structure, and an imaging support information-generation unit (30) that combines the imaging plan information and the actual imaging information with the drawing information and allows a display unit (13) to display combined information.

An imaging support device (10) includes an imaging point specification unit (22) that specifies an imaging point of a structure on the basis of drawing information, an imaging planning unit (24) that generates imaging plan information including at least one of imaging position information or imaging range information of an imaging device at each imaging of the structure on the basis of the specified imaging point and image quality information, an actual imaging information-acquisition unit (28) that acquires actual imaging information including at least one of actual imaging position information or actual imaging range information of the imaging device at each imaging of the structure, and an imaging support information-generation unit (30) that combines the imaging plan information and the actual imaging information with the drawing information and allows a display unit (13) to display combined information.

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.