Abstract

Electrical Capacitance Tomography (ECT) image reconstruction has developed for decades and made great achievements, but there is still a need to find a new theoretical framework to make it better and faster. In recent years, machine learning theory has been introduced in the ECT area to solve the image reconstruction problem. However, there is still no public benchmark dataset in the ECT field for the training and testing of machine learning-based image reconstruction algorithms. On the other hand, a public benchmark dataset can provide a standard framework to evaluate and compare the results of different image reconstruction methods. In this paper, a benchmark dataset for ECT image reconstruction is presented. Like the great contribution of ImageNet that transformed machine learning research, this benchmark dataset is hoped to be helpful for society to investigate new image reconstruction algorithms since the relationship between permittivity distribution and capacitance can be better mapped. In addition, different machine learning-based image reconstruction algorithms can be trained and tested by the unified dataset, and the results can be evaluated and compared under the same standard, thus, making the ECT image reconstruction study more open and causing a breakthrough.

Highlights

  • Electrical capacitance tomography (ECT) is a measurement technique for visualizing dielectric multi-phase flow processes, such as pneumatic conveying systems and fluidized beds, by generating cross-sectional images [1,2,3]

  • All the possible capacitance data among the non-redundant electrode combinations are measured based on a capacitance measurement circuit [4], and the permittivity distribution can be reconstructed by certain algorithms

  • A benchmark dataset for ECT image reconstruction is proposed. It consists of tens of thousands of capacitance vectors and corresponding permittivity distribution vectors, as well as sensitivity matrices obtained from 2D simulation models, and 3D simulation models along with static and dynamic experiments

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Summary

Introduction

Electrical capacitance tomography (ECT) is a measurement technique for visualizing dielectric multi-phase flow processes, such as pneumatic conveying systems and fluidized beds, by generating cross-sectional images [1,2,3]. A large-scale dataset is of great necessity for researchers in order to explore machine learning algorithms for ECT image reconstruction. A free and open large-scale dataset is expected (in the ECT field) to contribute more data to better map the relationship between capacitance and the permittivity distribution and to evaluate and compare the results of different image reconstruction methods under the same criteria. A benchmark dataset for ECT image reconstruction is proposed It consists of tens of thousands of capacitance vectors and corresponding permittivity distribution vectors, as well as sensitivity matrices obtained from 2D simulation models, and 3D simulation models along with static and dynamic experiments. Names these fourand flow patterns maymay not be be the same—for for example, the single bar flow is alsothe called theofcore flow two-bar flow mentioned as example, the single bar flow is called the core flow and two-bar flow may be mentioned the the two-object flow—they are mostly studied in ECT image reconstruction research, such as as those two-object in flow—they are mostly studiedTo in ECT image reconstruction such as flow those reported reported

The phantom parameters of the
Single
The Deep Autoencoder and the Iteration Method Based on It
Image Reconstruction Examples Based on the Simulation
Correlation coefficient
Phase ratio error
The Experiment Part of the Benchmark Dataset
Theand
The pipe is
The Image Reconstruction Examples Based on the Static Experiment
The Capacitance Data Open for the Image Reconstruction Study
The Dynamic Experiment Part of the Benchmark Dataset
Conclusions
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