An illumination device for an imager for imaging a target includes an objective cover including a light transmissive member to direct light from the target to the imager to allow the imager to image the target, and at least one light source located nearer the imager than the objective cover to illuminate the target through the objective cover. The at least one light source is located outward from an inverted region that is a region formed by substantially inverting, toward the imager and with respect to the objective cover, a region defined by predetermined rays of rays nearer the target from the objective cover in a pencil of rays, the pencil of rays entering, through the imaging lens, the image sensor from the target in contact with the objective cover and in focus with the imaging lens.

Provided herein is an on-camera light or a double-sided light for a camera. Both the on-camera light and the double-sided light have a hollow body with a front light-transmitting surface and a back light-transmitting surface and a plurality of light emitting diodes attached to a pair of circuit boards disposed within the hollow body. A control board is operably connected to the pair of LED circuit boards, to a power source, which is connected to a switch, to a brightness adjustment knob, and to a display. The on-camera light has a camera mount, for example, a cold shoe head with a male mounting foot for attachment on a camera.

An inspection apparatus includes a portable housing and at least one handle structure integrally formed with the portable housing. The inspection apparatus further includes a vision data system, a lighting system, a user interface system, a wireless communication system, and a controller. The vision data system includes one or more cameras provided on the first face of the portable housing. The vision data system is operable to capture component data. The lighting system is arranged with the vision data system at the first face. The lighting system includes diffused light emitting diode (LED) ring arranged around at least one of the one or more cameras. The manufacturing inspection apparatus is a stand-alone and all-in-one computing device. The manufacturing inspection apparatus processes and stores inspection data locally.

An imaging apparatus includes: a wiring board; an imaging unit that includes a lens module and an imaging element mounted on the wiring board; a housing that assumes a frame shape and includes an opening in the direction of an optical axis of the imaging unit; a top cover placed over the housing; a light source that emits light to travel to the outside through the top cover; and a light guide body that surrounds the lens module and guides the light emitted from the light source, wherein the imaging unit is spaced apart from the top cover by a space, the housing includes a bulging section bulging toward the lens module without being in contact the wiring board, and the bulging section receives a load applied from the top cover via at least the light guide body.

a camera-puddle lamp integrated apparatus is disclosed. The apparatus comprising a lens module; an image sensor; and a puddle lamp module, the puddle lamp module includes a light source, a spring, a sliding bar, and a solenoid and is disposed in a second area outside the first area, the light source is formed to be movable to be located in the first area or the second area, the light source is fixed to one side of the sliding bar, a moving part of the solenoid is connected to the other side of the sliding bar, and the spring is formed to be operated to move the sliding bar when the solenoid is switched to a non-operational state so as to move the light source to the second area, the camera-puddle lamp integrated apparatus operates as a puddle lamp when the light source moves to the first area, and the camera-puddle lamp integrated apparatus operates as a camera when the light source moves to the second area.

An image acquisition apparatus includes a camera, a flash array adjacent to the camera, and a flash driving circuit connected to the flash array. In the process of image acquisition based on the image acquisition apparatus, a driving signal provided by the flash driving circuit may be used to drive corresponding flashes in the flash array to be lighted, a driving current for controlling each of the flashes may be adjusted to control the brightness of a respective one of the flashes. The number of lighted flashes in the flash array or the light supplement brightness of the lighted flashes may be adjusted adaptively according to different shooting scenes.

An image acquisition apparatus includes a camera, a flash array adjacent to the camera, and a flash driving circuit connected to the flash array. In the process of image acquisition based on the image acquisition apparatus, a driving signal provided by the flash driving circuit may be used to drive corresponding flashes in the flash array to be lighted, a driving current for controlling each of the flashes may be adjusted to control the brightness of a respective one of the flashes. The number of lighted flashes in the flash array or the light supplement brightness of the lighted flashes may be adjusted adaptively according to different shooting scenes.

An object is to closely observe, by means of images of a camera having high performance specifications, changes in a structure due to heating or cooling of the structure to a temperature beyond a service temperature limit of the camera having high performance specifications and returning from that temperature to room temperature. A structure observation device includes: a camera case of a rectangular three-dimensional shape, having a glass window of heat-resistant and/or cold-resistant glass on at least one side of the three-dimensional shape; heat insulating walls covering the camera case except for the glass window; a fluid supply port and a fluid discharge port through which a cooling or warming fluid is circulated into; and a camera that is disposed inside the camera case and captures a still image or a moving image through the glass window and externally outputs or internally stores data of the captured image.

A portable micro imaging device includes a lens and a lens body. The portable micro imaging device is detachably connected with a portable imaging device having a camera and an illuminator. The lens body is made of a transparent or semi-transparent solid material. An outer surface of a front surface of the lens body is partially provided with an independent specular reflection layer or diffuse reflection layer to cover the illuminator, and the specular reflection layer or the diffuse reflection layer is made of an opaque material. A closed annular light-transmission ring is formed between the specular reflection layer or the diffuse reflection layer and an outer periphery of the front surface of the lens body. An opening size of a mounting hole of the lens body in the front surface of the lens body is larger than a size of the lens.

The field of inspection assemblies and in particular to inspection assemblies that include light sources for illuminating a field of view of a camera including an elongate housing having a longitudinal axis, a camera mounted in the housing and arranged to capture an image of a region within a field of view external to the housing, a light source mounted in the housing and arranged to illuminate the field of view, and a window element mounted in the housing, the window element comprising a light transmitting material and being located such that light emitted by the light source passes through the window element before illuminating the field of view. The window element has an internal surface, closer to the light source, and an external surface, further from the light source, and the external surface comprises a concave region.