Composite measurement system and measurement method for micro-array complex surface optical element

A technology of complex curved surfaces and optical components, applied in the field of microstructure topography testing, can solve the problems of lack of testing methods, short time, low device yield and reliability, etc., to expand the measurement range, improve the measurement speed, and improve the measurement accuracy. Effect

Active Publication Date: 2014-08-13
TIANJIN UNIV
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Problems solved by technology

[0006] In the past 10 years, with the support of the national science and technology plan, my country's ultra-precision processing and nano-processing technology has made great progress. Many research units have adopted single-point diamond turning, grinding, extreme ultraviolet lithography, LIGA and other technologies for processing Components with nanoscale feature structures or ultra-precise surfaces have been discovered, important progress has been made in theoretical research and engineering applications, and new processing technologies are constan

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  • Composite measurement system and measurement method for micro-array complex surface optical element
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  • Composite measurement system and measurement method for micro-array complex surface optical element

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[0042] The composite measurement system and measurement method of the microarray-type complex curved optical element of the present invention will be described in detail below with reference to the embodiments and drawings.

[0043] The composite measurement system of the microarray-type complex curved optical element of the present invention combines optical microscopy interference technology and scanning probe technology. The cantilever probe adopts the new self-excitation / self-induction tuning fork probe Akiyama probe of Swiss Nanosensors. Needle, without the need for traditional optical signal detection part, design a compact probe, build a new measurement system, so as to realize the combination of optical measurement and mechanical measurement, the combination of non-contact measurement and contact measurement, and the whole field measurement and single point The combination of scanning measurement combines large-range, high vertical resolution, low horizontal resolution mea...

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Abstract

The invention provides a composite measurement system and measurement method for a micro-array complex surface optical element. The composite measurement system is composed of a white light interference micro-structure test system, a self-induction tuning-fork atomic power microscopy measurement head, a scanning and displacement platform, a nanometer measurement machine controller and a piezoelectric ceramic controller, wherein the white light interference micro-structure test system is formed by sequentially connecting an optical microscopy interference system, a digital CCD camera and an image capture card; the self-induction tuning-fork atomic power microscopy measurement head is fixed to the white light interference micro-structure test system; the scanning and displacement platform is located below the self-induction tuning-fork atomic power microscopy measurement head and used for holding samples to be tested; the nanometer measurement machine controller and the piezoelectric ceramic controller are respectively and electrically connected with the scanning and displacement platform. The output end of the white light interference micro-structure test system is electrically connected with a PC machine, the output end of the self-induction tuning-fork atomic power microscopy measurement head is electrically connected with the PC machine through a high-speed digital signal processing servo feedback control system, the output end of the piezoelectric ceramic controller is further electrically connected with the nanometer measurement machine controller, and the input end of the piezoelectric ceramic controller is electrically connected with the PC machine through the high-speed digital signal processing servo feedback control system. Multi-information sensing and data fusion are achieved.

Description

technical field [0001] The invention relates to a microstructure morphology test. In particular, it relates to a composite measurement system and measurement method of a microarray type complex curved surface optical element that combines white light scanning interferometry with a self-induction tuning fork atomic force microscopic probe. Background technique [0002] Ultra-precision processing technology refers to all processing technologies with processing size and shape accuracy better than 0.1 μm and surface roughness Ra≤0.01 μm. Ultra-precision processing technology extends forward. When the processing precision reaches the nanometer level or the scale of the processed object is at the nanometer level, it is called nanoprocessing technology. At present, the characteristics of ultra-precision machining and nano-machining technology are: various processing methods, rich types of processing materials, complex processing structures and shapes, and high processing surface p...

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Application Information

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IPC IPC(8): G01B11/24G01Q60/24
Inventor 郭彤武志超陈津平傅星胡小唐
Owner TIANJIN UNIV
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