Abstract: An image acquisition device including a first plurality of cameras arranged in a mutually spaced configuration, each having a field of view, each field of view lying in a plane and a second plurality of photon emitters arranged in a multiplicity of generally circumferential arrangements about each camera of the first plurality of cameras, at least one photon emitter within the generally circumferential arrangement directing light to a field of view of one of the first plurality of cameras that is not the closest field of view thereto.

Abstract: An image acquisition device including a first plurality of cameras arranged in a mutually spaced configuration, each having a field of view, each field of view lying in a plane and a second plurality of photon emitters arranged in a multiplicity of generally circumferential arrangements about each camera of the first plurality of cameras, at least one photon emitter within the generally circumferential arrangement directing light to a field of view of one of the first plurality of cameras that is not the closest field of view thereto.

Abstract: A light source includes one or more deflection mirrors to deflect a laser beam at varying angles and diffractive optics to diffract the deflected laser beam. The light source also includes a multi-mode fiber to transmit the diffracted laser beam and a plurality of lenses, disposed between the diffractive optics and the multi-mode fiber, to provide the diffracted laser beam to the multi-mode fiber.

Abstract: Provided is an optical apparatus that includes an illumination assembly which include an extended radiation source emitting radiation with a controllable spatial distribution and telecentric condensing optics, configured to receive and project the emitted radiation with a numerical aperture exceeding 0.3 along a first optical axis onto a field and an imaging assembly that includes a sensor and objective optics configured to image the field along a second optical axis onto the sensor and also a prism combiner positioned between the field and the condensing and objective optics which is configured to combine the first and second optical axes, while reflecting at least one of the optical axes multiple times within the prism combiner.

Abstract: Provided is an optical apparatus that includes an illumination assembly which include an extended radiation source emitting radiation with a controllable spatial distribution and telecentric condensing optics, configured to receive and project the emitted radiation with a numerical aperture exceeding 0.3 along a first optical axis onto a field and an imaging assembly that includes a sensor and objective optics configured to image the field along a second optical axis onto the sensor and also a prism combiner positioned between the field and the condensing and objective optics which is configured to combine the first and second optical axes, while reflecting at least one of the optical axes multiple times within the prism combiner.

Abstract: An inspection system including an illumination subsystem and an image sensing subsystem, the illumination subsystem providing a plurality of illumination modalities, the system simultaneously illuminating at least two areas of an object with different ones of the plurality of illumination modalities, images of which are acquired by a single sensor forming part of the image sensing subsystem.

Abstract: Provided is an optical apparatus that includes an illumination assembly which include an extended radiation source emitting radiation with a controllable spatial distribution and telecentric condensing optics, configured to receive and project the emitted radiation with a numerical aperture exceeding 0.3 along a first optical axis onto a field and an imaging assembly that includes a sensor and objective optics configured to image the field along a second optical axis onto the sensor and also a prism combiner positioned between the field and the condensing and objective optics which is configured to combine the first and second optical axes, while reflecting at least one of the optical axes multiple times within the prism combiner.

Abstract: An optical inspection apparatus includes an interferometer module, which is configured to direct a beam of coherent light toward an area under inspection and to produce a first image of interference fringes of the area. The apparatus also includes a triangulation module configured to project a pattern of structured light onto the area, and at least one image sensor configured to capture the first image of interference fringes and a second image of the pattern that is reflected from the area. Beam combiner optics are configured to direct the beam of coherent light and the projected pattern to impinge on the same location on the area. A processor is configured to process the first and second images in order to generate a 3D map of the area.

Abstract: An image acquisition device including a first plurality of cameras arranged in a mutually spaced configuration, each having a field of view, each field of view lying in a plane and a second plurality of photon emitters arranged in a multiplicity of generally circumferential arrangements about each camera of the first plurality of cameras, at least one photon emitter within the generally circumferential arrangement directing light to a field of view of one of the first plurality of cameras that is not the closest field of view thereto.

Abstract: An inspection system including an illumination subsystem and an image sensing subsystem, the illumination subsystem providing a plurality of illumination modalities, the system simultaneously illuminating at least two areas of an object with different ones of the plurality of illumination modalities, images of which are acquired by a single sensor forming part of the image sensing subsystem.

Abstract: A range differentiator useful for auto-focusing, the range differentiator including an image generator providing an image of a scene at various physical depths, a depth differentiator distinguishing portions of the image at depths below a predetermined threshold, irrespective of a shape of the portions, and providing a depth differentiated image and a focus distance ascertainer ascertaining a focus distance based on the depth differentiated image.

Abstract: An optical inspection apparatus includes an interferometer module, which is configured to direct a beam of coherent light toward an area under inspection and to produce a first image of interference fringes of the area. The apparatus also includes a triangulation module configured to project a pattern of structured light onto the area, and at least one image sensor configured to capture the first image of interference fringes and a second image of the pattern that is reflected from the area. Beam combiner optics are configured to direct the beam of coherent light and the projected pattern to impinge on the same location on the area. A processor is configured to process the first and second images in order to generate a 3D map of the area.

Abstract: A range differentiator useful for auto-focusing, the range differentiator including an image generator providing an image of a scene at various physical depths, a depth differentiator distinguishing portions of the image at depths below a predetermined threshold, irrespective of a shape of the portions, and providing a depth differentiated image and a focus distance ascertainer ascertaining a focus distance based on the depth differentiated image.

Abstract: An LED-based high power uniform light engine including an array of LEDs having a common anode and a fill factor which exceeds 0.85, the common anode having heat spreading functionality and an active heat sink which is thermally connected to the common anode.

Abstract: An LED-based high power uniform light engine including an array of LEDs having a common anode and a fill factor which exceeds 0.85, the common anode having heat spreading functionality and an active heat sink which is thermally connected to the common anode.

Abstract: Apparatus for optical inspection includes an illumination assembly, including multiple parallel rows of light sources for emitting light and illumination optics associated with each row for directing the light onto an object under inspection. The multiple parallel rows include at least a first row with first illumination optics including a first array of prisms that are configured to reflect the light emitted by the light sources in the first row, and at least a second row with second illumination optics including a second array of prisms that are configured to refract the light emitted by the light sources in the second row. An imaging assembly is configured to capture an image of the object under illumination by the multiple parallel rows of the light sources.

Abstract: Apparatus for optical inspection includes an illumination assembly, including multiple parallel rows of light sources for emitting light and illumination optics associated with each row for directing the light onto an object under inspection. The multiple parallel rows include at least a first row with first illumination optics including a first array of prisms that are configured to reflect the light emitted by the light sources in the first row, and at least a second row with second illumination optics including a second array of prisms that are configured to refract the light emitted by the light sources in the second row. An imaging assembly is configured to capture an image of the object under illumination by the multiple parallel rows of the light sources.

Abstract: Apparatus for sensing information regarding a surface including a first plurality of optical elements arranged to acquire two dimensional information about a surface, a second plurality of optical elements arranged to acquire topographical information about the surface, wherein the first plurality and the second plurality of optical elements are arranged to simultaneously provide the two dimensional information and the topographical information to at least partially non-overlapping portions of a single sensor array.

Abstract: Apparatus for sensing information regarding a surface including a first plurality of optical elements arranged to acquire two dimensional information about a surface, a second plurality of optical elements arranged to acquire topographical information about the surface, wherein the first plurality and the second plurality of optical elements are arranged to simultaneously provide the two dimensional information and the topographical information to at least partially non-overlapping portions of a single sensor array.