Diffuse Optical Tomography System in Soft Tissue Tumor Detection

Umamaheswari Kumarasamy, G. Shrichandran, A. V. Srivatson
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Abstract

Topical review of recent trends in Modeling and Regularization methods of Diffuse Optical Tomography (DOT) system promotes the optimization of the forward and inverse modeling methods which provides a 3D cauterization at a faster rate of 40frames/second with the help of a laser torch as a hand-held device. Analytical, Numerical and Statistical methods are reviewed for forward and inverse models in an optical imaging modality. The advancement in computational methods is discussed for forward and inverse models along with Optimization techniques using Artificial Neural Networks (ANN), Genetic Algorithm (GA) and Artificial Neuro Fuzzy Inference System (ANFIS). The studies carried on optimization techniques offers better spatial resolution which improves quality and quantity of optical images used for morphological tissues comparable to breast and brain in Near Infrared (NIR) light. Forward problem is based on the location of sources and detectors solved statistically by Monte Carlo simulations. Inverse problem or closeness in optical image reconstruction is moderated by different regularization techniques to improve the spatial and temporal resolution. Compared to conventional methods the ANFIS structure of optimization for forward and inverse modeling provides early detection of Malignant and Benign tumor thus saves the patient from the mortality of the disease. The ANFIS technique integrated with hardware provides the dynamic 3D image acquisition with the help of NIR light at a rapid rate. Thereby the DOT system is used to continuously monitor the Oxy and Deoxyhemoglobin changes on the tissue oncology.
漫射光学断层成像系统在软组织肿瘤检测中的应用
对漫射光学层析成像(DOT)系统建模和正则化方法的最新趋势进行了局部回顾,促进了正演和逆演建模方法的优化,该方法在激光炬作为手持设备的帮助下以更快的40帧/秒的速度提供3D灼烧。综述了光学成像模态中正演模型和反演模型的解析、数值和统计方法。讨论了正、逆模型计算方法的进展,以及利用人工神经网络(ANN)、遗传算法(GA)和人工神经模糊推理系统(ANFIS)的优化技术。优化技术的研究提供了更好的空间分辨率,从而提高了近红外(NIR)光下用于类似于乳房和大脑的形态学组织的光学图像的质量和数量。正演问题是基于源和检测器的位置,通过蒙特卡罗模拟统计求解。利用不同的正则化技术来调节光学图像重建中的逆问题或接近问题,以提高空间和时间分辨率。与传统方法相比,优化的ANFIS正、逆建模结构可以早期发现恶性肿瘤和良性肿瘤,从而避免患者因疾病而死亡。ANFIS技术与硬件相结合,实现了近红外光快速动态三维图像采集。因此,DOT系统可用于连续监测组织肿瘤上氧和脱氧血红蛋白的变化。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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