Design and application of an imaging system based on oblique incidence reflectivity difference technology

SONG Chao; LI Huimin; ZHANG Hao; ZHAO Kun; MIAO Xinyang; ZHAN Honglei

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Design and application of an imaging system based on oblique incidence reflectivity difference technology

Optical Devices & System Design | 更新时间：2026-01-22

- Design and application of an imaging system based on oblique incidence reflectivity difference technology
- OPTICAL TECHNIQUE Vol. 52, Issue 1, Pages: 7-11(2026)
- 作者机构：
  
  中国石油大学（北京）新能源与材料学院，北京 102249
- 作者简介：
- 基金信息：
- DOI：
  CLC： TP394.1;TH691.9
- Received：19 August 2025，
  
  Revised：2025-10-30，
  
  Published：20 January 2026
- 稿件说明：
移动端阅览
宋超,李慧敏,张浩等.基于斜入射光反射差技术的成像系统设计及应用[J].光学技术,2026,52(01):7-11.

SONG Chao,LI Huimin,ZHANG Hao,et al.Design and application of an imaging system based on oblique incidence reflectivity difference technology[J].OPTICAL TECHNIQUE,2026,52(01):7-11.
宋超,李慧敏,张浩等.基于斜入射光反射差技术的成像系统设计及应用[J].光学技术,2026,52(01):7-11. DOI：

SONG Chao,LI Huimin,ZHANG Hao,et al.Design and application of an imaging system based on oblique incidence reflectivity difference technology[J].OPTICAL TECHNIQUE,2026,52(01):7-11. DOI：

摘要

研究提出一种基于斜入射光反射差（OIRD）技术的新型快速成像系统，应用于表界面物理化学动态过程的高分辨率实时监测。系统包含光源、光路系统、样品台和检测系统四个部分，在此基础上融合信号处理技术，实时输出OIRD图像，实现微米级尺寸的横向分辨率。将OIRD成像系统应用于盐溶液沉积晶体形貌分析、油水乳状液表征、以及表面活性剂液滴蒸发过程中的马兰戈尼涡流，实现了固体表面静态表征和液体体系动态过程监测，为表面成像、界面反应、多相体系演化等提供了非标记、高时空分辨的原位表征工具。

Abstract

This study proposes a novel rapid imaging system based on Oblique-Incidence Reflectance Difference （OIRD） technology

designed for high-resolution real-time monitoring of physicochemical dynamic processes at surfaces and interfaces. The system comprises four main components: a light source

an optical path system

a sample stage

and a detection system. By integrating signal processing techniques

it enables real-time output of OIRD images and achieves lateral resolution at the micrometer scale. The OIRD imaging system has been applied to analyze crystal morphology in salt solution deposition

characterize oil-in-water emulsions

and investigate Marangoni vortices during surfactant droplet evaporation. It demonstrates capabilities for both static characterization of solid surfaces and dynamic monitoring of liquid systems

thereby offering an unlabeled

in situ characterization tool with high spatiotemporal resolution for surface imaging

interfacial reactions

and the evolution of multiphase systems.

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references

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