The fully automatic image measuring instrument is an artificial intelligence optical non-contact measuring instrument developed on the basis of digital image measuring instruments. It integrates machine vision, precision machinery, electronic technology, and measurement software technologies, and has the characteristics of high precision, non-contact measurement, and multifunctional applications. The fully automatic image measuring instrument is an optical non-contact measuring device based on machine vision and artificial intelligence technology, mainly used for high-precision 3D coordinate measurement of industrial products, suitable for fields such as electronics, machinery, molds, PCBs, etc. The working principle of the fully automatic image measuring instrument is based on high-precision optical imaging and computer image processing technology.
function
3D coordinate measurement: Rapid detection of workpiece dimensions is achieved through optical imaging and computer processing technology, supporting spatial coordinate rotation measurement and capable of handling batch detection requirements for complex workpieces. Automated operation: Equipped with functions such as autofocus, edge extraction, and target locking, it can automatically correct measurement offsets, reduce manual intervention, and greatly improve measurement efficiency. Intelligent learning: Automatically record and optimize measurement paths and point selection strategies through machine vision software to adapt to differences in different workpieces.
Fully automatic image measuring instruments are widely used in multiple fields, including but not limited to:
Mechanical manufacturing: used for accurate measurement of dimensions, shapes, positions, and other parameters of various mechanical parts, molds, fixtures, and other workpieces.
Electronic appliances: mainly used for accurate measurement of small parts such as circuit boards, electronic components, semiconductor devices, etc.
Automotive industry: widely used in the manufacturing and testing of automotive components, such as measuring engine parts, body parts, chassis parts, etc.
Precision manufacturing: including fields such as watches, jewelry, precision machinery, etc., to meet the measurement needs of various complex shapes and small sizes.
Research field: Measurement and analysis of microstructure in materials science, physics, chemistry, and other fields, providing important data support for scientific research work.