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Ellipsoidal and hyperbolic Radon transforms; microlocal properties and injectivity

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arxiv 2212.00243 v1 pith:LQUSL3KK submitted 2022-12-01 math.FA

classification math.FA
keywords injectivitymicrolocalradonconnectedprovetheorytransformsaddition
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abstract

We present novel microlocal and injectivity analyses of ellipsoid and hyperboloid Radon transforms. We introduce a new Radon transform, $R$, which defines the integrals of a compactly supported $L^2$ function, $f$, over ellipsoids and hyperboloids with centers on a smooth connected surface, $S$. $R$ is shown to be a Fourier Integral Operator (FIO) and in our main theorem we prove that $R$ satisfies the Bolker condition if the support of $f$ is connected and not intersected by any plane tangent to $S$. Under certain conditions, this is an equivalence. We give examples where our theory can be applied. Focusing specifically on a cylindrical geometry of interest in Ultrasound Reflection Tomography (URT), we prove injectivity results and investigate the visible singularities. In addition, we present example reconstructions of image phantoms in two-dimensions, and validate our microlocal theory.

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  1. Statistical microlocal analysis in two-dimensional X-ray CT

    math.ST 2025-06 conditional novelty 6.0 of 10

    A new statistical microlocal analysis derives the power of a hypothesis test for edge detectability in 2D X-ray CT from noisy discrete Radon data, validated by simulations.

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