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20022023
most citedSingular eigenfunctions for the three-dimensional radiative transport equation

29 citations · 135 across the 36 of their papers we have counts for

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6 papers · 1 filter

math.AP2023

Homogenization and Inverse Problems for Fractional Diffusion Equations

Atsushi Kawamoto, Manabu Machida, Masahiro Yamamoto

We consider the homogenization for time-fractional diffusion equations in a periodic structure and we derive the homogenized time-fractional diffusion equation. Then we discuss the…

math.AP2020★ 4 cited

Global Lipschitz stability for inverse problems for radiative transport equations

Manabu Machida, Masahiro Yamamoto

We consider inverse problems of determining coefficients or time independent factors of source terms in radiative transport equations by means of Carleman estimate. We establish gl…

math.AP2018★ 1 cited

Lipschitz stability in inverse source and inverse coefficient problems for a first- and half-order time-fractional diffusion equation

Atsushi Kawamoto, Manabu Machida

We consider inverse problems for the first and half order time fractional equation. We establish the stability estimates of Lipschitz type in inverse source and inverse coefficient…

math.AP2016★ 2 cited

Global Lipschitz stability for a fractional inverse transport problem by Carleman estimates

Atsushi Kawamoto, Manabu Machida

We consider a fractional radiative transport equation, where the time derivative is of half order in the Caputo sense. By establishing Carleman estimates, we prove the global Lipsc…

math.AP2012

Global Lipschitz Stability in Determining Coefficients of the Radiative Transport Equation

Manabu Machida, Masahiro Yamamoto

In this article, for the radiative transport equation, we study inverse problems of determining a time independent scattering coefficient or total attenuation by boundary data on t…

math.AP2011

Radiative Transport Equation for Bloch Electrons in Electromagnetic Fields

Manabu Machida

The radiative transport equation for the Schrödinger equation in a periodic potential with a weak random potential in electromagnetic fields is derived using asymptotic expansion.