Abstract:
An inspection system includes a CMOS integrated circuit having integrally formed thereon an at least two dimensional array of photosensors and providing an inspection output representing an object to be inspected. A defect analyzer is operative to receive the inspection output and to provide a defect report.
Abstract:
Optical apparatus includes a mount, which holds a workpiece. An array of optical heads project respective patterns of radiation onto the workpiece. A calibration assembly captures images of the respective patterns. A motion assembly, on which the calibration assembly is mounted, transports the calibration assembly among a plurality of different positions between the array of the optical heads and the mount so as to intercept and image, at each of the different positions, a respective pattern projected by a different one of the optical heads. A processor processes the images captured by the calibration assembly at the different positions so as to monitor operation of the apparatus.
Abstract:
A method for fabricating a semiconductor device includes providing a layer of a semiconductor material on at least a portion of a surface of a substrate, and forming along the surface a capillary structure, which is in communication with the semiconductor material but is at least partially empty of the semiconductor material. The semiconductor material is heated, so as to cause the semiconductor material to melt and flow into the capillary structure. Upon allowing the semiconductor material to cool, a crystal is seeded in the capillary structure and spreads from the capillary structure through an area of the semiconductor material.
Abstract:
A system and method for selectable area laser treatment of a substrate, such as thin film transistors, the system including a holder holding a substrate in proximity to reactant, and laser beams each addressing independently selectable mutually set apart locations on the substrate to induce a reaction between the substrate and the reactant.
Abstract:
A system for delivering energy to a substrate including a dynamically directable source of radiant energy providing a plurality of beams of radiation, each propagating in a dynamically selectable direction. Independently positionable beam steering elements in a plurality of beam steering elements are operative to receive the beams and direct them to selectable locations on the substrate.
Abstract:
An automated optical inspection method detects width defects by employing locally applied width information. A defect determination is based on proximal width information of nearby parts of a conductor. Automated optical inspection systems inspect the surfaces of patterned objects for line width defects, employing line width data that is at least partially obtained automatically from analyzing a reference image of a non-defective patterned object.
Abstract:
This invention discloses a method for printed circuit board (PCB) inspection, including providing a multiplicity of PCBs placed on an inspection panel, defining each non-identical PCB in terms of geometry and features which are to be inspected, grouping the PCBs into at least one cluster, the at least one cluster being defined in terms of an amount, location and orientation of the PCBs in the at least one cluster, creating a reference image for the panel defined by a location and orientation of the at least one cluster on the panel and inspecting the panel by comparing sensed information with the reference image.
Abstract:
An optical scanner may include a sampler to receive an optical beam and provide a sampled beam including a portion of the optical beam, a dispersive element to spectrally disperse the sampled beam along a dispersion direction, one or more detectors to receive at least a portion of the sampled beam dispersed along the dispersion direction, one or more acousto-optic deflectors (AODs) configured to deflect the optical beam from the sampler, and a controller. The controller may determine a center of mass of the sampled beam dispersed along the dispersion direction based on signals from at least one of the one or more detectors, and generate a drive signal for at least one of the one or more AODs to deflect the optical beam from the sampler along a selected deflection angle based on the center of mass.
Abstract:
The system includes a laser generator, an antenna, and a processor. The laser generator is configured to emit a pulsed laser beam toward an LED. The LED generates a photovoltaic radio frequency signal when radiated by the pulsed laser beam. The antenna is configured to receive the photovoltaic radio frequency signal generated by the LED. The processor is in electronic communication with the antenna and is configured to read the photovoltaic radio frequency signal and determine whether the LED is a defective LED or a functioning LED based on the photovoltaic radio frequency signal.
Abstract:
A system includes a light source configured to generate a beam of light, a stage configured to hold a workpiece in the path of the beam of light, a detector configured to capture an image of the workpiece based on the beam of light reflected from the workpiece, and a processor in electronic communication with the detector. The processor is configured to inspect the image of the workpiece received from the detector using an artificial intelligence (AI) inference model that is trained using a combined dataset of manually tagged data and AI-tagged data, and the AI inference model is stored on an electronic data storage unit that is in electronic communication with the processor.