An image inspection apparatus includes a pattern light illuminating section configured to generate pattern light having a periodic illuminance distribution and irradiate the pattern light on an inspection target object, an imaging section including a plurality of image receiving elements arrayed in a line shape, a trigger signal transmitting section configured to transmit an illumination trigger signal to the pattern light illuminating section, and an imaging control section configured to control, on the basis of the illumination trigger signal, values of electric currents fed to light emitting diodes to thereby cause the pattern light illuminating section to generate a plurality of pattern lights, phases of illuminance distributions of which are shifted.

A detection device and a detection method for detecting a hole or a pinhole present in a material are provided. The detection device includes: an illumination unit irradiating light at one side of the material; a light receiving unit acquiring an image of the material at the other side of the material to output a detection signal; a detection unit determining whether or not the hole or the pinhole is present in the material using the detection signal; and an illumination control unit dividing the illumination unit into a plurality of regions and controlling the illumination unit to irradiate light having different intensities of illumination for each of the plurality of regions.

A base and a diagnostic system for analyzing a sample is described herein. In an embodiment, the system includes a cartridge and a base configured to couple with the cartridge. In an embodiment, the cartridge is configured to hold a sample, and comprises a transparent viewing field positioned in the detection zone. In an embodiment, the base includes a detection component including a window to allow a light from a detection zone of the cartridge to enter the base, and a photodetector positioned to receive the light through the window and configured to generate a signal based on the light received, a plurality of light sources that emit one or more illumination lights onto the detection zone, and a controller communicatively configured to illuminate the detection zone with the plurality of light sources, and generate a detection signal with the photodetector based on the light received.

According to various embodiments of the present invention, an optical capture system is provided. In one embodiment, a micro-scale optical capturing system is provided with low divergence (approximately 1?) of the incident light and low acceptance angle (<8?) of the captured light. According to embodiments, a micro-scale optical capturing system is provided with a large number of collimated high-power white LEDs as light sources, between 60 and 100 units, for example, and may be positioned at distances of about 650 mm from the sample. In one embodiment, a digital camera using 50 mm focal objective with a 25 mm length extension tube captures images of the sample. This provides a working distance of approximately 100 mm and at the same time maintains ?0.5 magnification for microscale captures, with an image size of 4?4 microns per pixel.

An image inspection apparatus includes a pattern light illuminating section configured to generate pattern light having a periodic illuminance distribution and irradiate the pattern light on an inspection target object, an imaging section including a plurality of image receiving elements arrayed in a line shape, a trigger signal transmitting section configured to transmit an illumination trigger signal to the pattern light illuminating section, and an imaging control section configured to control, on the basis of the illumination trigger signal, values of electric currents fed to light emitting diodes to thereby cause the pattern light illuminating section to generate a plurality of pattern lights, phases of illuminance distributions of which are shifted.

To make it possible to set a shift direction of phases of illuminance distributions of pattern lights to an appropriate direction and perform an inspection at high accuracy while improving setting flexibility of an illuminating section and an imaging section. A phase shift direction of pattern light irradiated from a pattern light illuminating section is determined according to moving direction information concerning a moving direction of an inspection target object with respect to an array direction of light receiving elements and positional relation information concerning a positional relation between the light receiving elements and the pattern light illuminating section.

An illumination system incorporating a multi-faceted mirror in operative communication with an array of discrete illumination sources. The multi-faceted mirror may accept incident light beams from discrete illumination sources located at different positions and then deliver a reflected output to a common location for direct acceptance by an optical/imaging device or by a light guide transmission device operatively connected to a downstream optical/imaging device. Individual light sources may be selected and/or combined in a defined sequence by selectively activating and deactivating such light sources electronically with no need for moving parts. By pulsing different illumination sources, the optical/imaging system may be provided with a feed of narrow-band illumination for use in imaging. Outputs from several illumination sources can also be combined if desired to produce a custom-tuned illumination spectrum for a particular application.

A device for automatic detection of car body damage according to the invention includes at least one lighting module, to which a data processing device is mounted on the rear wall, and the front surface is a light source, on which at least one image recording device is mounted, and on the side wallthere is a measuring unit containing at least four sensors, with the lighting module located at a distance of 40 to 100 cm from the surface of the vehicle body or other detail, and the image recording device is a monochrome camera with a resolution of at least 3 Mpix with a hardware input that triggers the shutter, capable of synchronizing with a lighting module and an image recording device, the lens of which is equipped with the possibility of manual adjustment,

Disclosed is a method and a device for optically analysing fruit or vegetables. Different light sources are adapted to apply light radiation in different wavelength ranges selectively to each object according to a predetermined illumination sequence, and images are produced by at least one colour camera sensitive to infrared, the exposure of which is controlled in synchronism with the illumination sequence so as to produce a plurality of images in different wavelength ranges, including at least one image in a visible range and at least one image in an infrared range.

In order to make it possible to image the surface of a workpiece from a plurality of directions without reducing the amount of light to be projected to the workpiece, a light projection device having light emitting surfaces opposite to the workpiece and formed with a slit allowing light reflected by the workpiece to pass from the light emitting surface side toward an opposite side thereof is adapted such that the slit is formed in a tapered shape whose width gradually increases from the light emitting surface side toward the opposite side.