Electrical impedance tomography (EIT) is a non-destructive imaging method, where a physical body is probed with electric measurements at the boundary, and information about the internal conductivity is extracted from the data. The enclosure method of Ikehata [J. Inv. III-Posed Prob. 8(2000)] recovers the convex hull of an inclusion of unknown conductivity embedded in known background conductivity. Practical implementations of the enclosure method are based on least-squares (LS) fitting of lines to noise-robust values of the so-called indicator function. It is shown how a convolutional neural network instead of LS fitting improves the accuracy of the enclosure method significantly while retaining interpretability.
Zainab HusainNadya Abdel MadjidPanos Liatsis
Diogo PessoaBruno RochaGrigorios‐Aris CheimariotisKostas HarisClaas StrodthoffEvangelos KaimakamisNicos MaglaverasInéz FrerichsP. CarvalhoRui Pedro Paiva
Adam CoxsonIvo S. MihovZiwei WangVasil AvramovFrederik Brooke BarnesSergey SlizovskiyCiaran MullanIvan TimokhinD.C.W. SandersonAndrey V. KretininQian YangWilliam LionheartArtem Mishchenko
Francesco ColibazziDamiana LazzaroSerena MorigiAndrea Samorè