Adaptation of the material of the inspection object: Optical inspection equipment needs to be adapted for inspection objects of different materials. For metal materials, due to their good reflection characteristics, optical inspection methods based on reflection principles, such as laser interferometry, can be used to accurately detect surface flatness. For transparent materials, such as glass, transmission optical inspection can be used to detect internal defects by measuring the phase change after light passes through the sample to ensure the effectiveness of the inspection.
Adaptation of different shapes and sizes: Whether it is a tiny chip or a large mechanical part, optical inspection equipment must be applicable. For tiny objects, high-magnification microscopes can be used with high-resolution image sensors to achieve clear observation and measurement of microstructures. For large objects, multi-sensor splicing, laser scanning and other technologies can be used to expand the detection range while ensuring accuracy.
Adaptation of industrial environments: In industrial production environments, optical inspection equipment must be able to adapt to harsh conditions such as vibration, dust, and oil. By using a shock absorber, the impact of equipment vibration on detection accuracy can be reduced. The housing design of the equipment must have good sealing to prevent dust and oil from entering the optical system. In addition, the selection of oil-resistant optical materials and protective coatings can ensure the stable operation of the equipment in an industrial environment.
Adaptation in the medical field: In medical testing, optical inspection equipment must meet biosafety and clinical needs. For example, optical coherence tomography (OCT) equipment used for ophthalmic testing must ensure that it is harmless to the human body and can provide high-resolution images of eye tissue structures to assist doctors in disease diagnosis. Its detection parameters and operating methods must comply with the specifications and requirements of the medical industry.
Adaptation in scientific research scenarios: Scientific research often requires high-precision and high-sensitivity optical inspection equipment. In quantum optical experiments, the detection of photons requires extremely high sensitivity and time resolution. At this time, advanced optical inspection equipment such as single-photon detectors came into being, and their performance indicators can meet the needs of scientific researchers to explore the microscopic quantum world.
Integration and adaptation with other equipment: In order to achieve more comprehensive detection functions, optical inspection equipment often needs to be integrated with other equipment. In automated production lines, optical inspection equipment can be combined with robot arms and mechanical transmission devices to achieve automatic loading and unloading and detection of products. This requires the equipment to have standard communication interfaces and protocols to ensure seamless connection with other equipment.
Adaptation of different testing standards: Different industries and countries have their own testing standards. Optical inspection equipment needs to be adjusted and calibrated according to these standards. For example, in the inspection of automotive parts, it is necessary to comply with the quality inspection standards of the automotive industry; for products exported to different countries, the inspection equipment must also meet local regulations and standards to ensure the recognition and universality of the test results.
