Assessing the Practical Constraints and Capabilities of Accelerator-Based Focused Ion Thermal Analysis

This study investigates the capabilities of accelerator-based Focused Ion Thermal Analysis (FITA), a remote nondestructive method developed for characterizing thermal properties using a proton beam as a localized heat source. Employing infrared (IR) imaging, FITA captures the evolution of temperature in material samples after the beam is deactivated, enabling precise extraction of thermal properties. However, the performance of FITA is inherently influenced by the IR camera's resolution and frame rate, which imposes constraints on the types of materials that can be effectively analyzed. Here, a comprehensive series of finite element analysis (FEA) simulations were performed to evaluate the applicability of FITA for a wide range of materials. These simulations assess how variations in IR camera specifications impact the effectiveness of FITA in analyzing different materials. Our findings show that the current method can characterize a wide range of materials, including the majority of nuclear materials typically used in the nuclear industry.

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Publication Details

Journal
Materials
Published
2025-03-27
DOI
https://doi.org/10.3390/ma18071514
Citations
1
Primary Topic
Nuclear Physics and Applications
Type
article
Field-Weighted Citation Impact
1.88
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article

Assessing the Practical Constraints and Capabilities of Accelerator-Based Focused Ion Thermal Analysis

Rijul R. Chauhan, Lin Shao, F.А. Garner, Benjamin E. Mejia Diaz et al.
1 citations
Materials
Nuclear Physics and Applications
1.88
article

Assessing the Practical Constraints and Capabilities of Accelerator-Based Focused Ion Thermal Analysis

Rijul R. Chauhan, Lin Shao, F.А. Garner, Benjamin E. Mejia Diaz, Artur Santos Paixao
article en
1 citations

Abstract

This study investigates the capabilities of accelerator-based Focused Ion Thermal Analysis (FITA), a remote nondestructive method developed for characterizing thermal properties using a proton beam as a localized heat source. Employing infrared (IR) imaging, FITA captures the evolution of temperature in material samples after the beam is deactivated, enabling precise extraction of thermal properties. However, the performance of FITA is inherently influenced by the IR camera's resolution and frame rate, which imposes constraints on the types of materials that can be effectively analyzed. Here, a comprehensive series of finite element analysis (FEA) simulations were performed to evaluate the applicability of FITA for a wide range of materials. These simulations assess how variations in IR camera specifications impact the effectiveness of FITA in analyzing different materials. Our findings show that the current method can characterize a wide range of materials, including the majority of nuclear materials typically used in the nuclear industry.

MaterialsVol. 18(7)
Texas A&M University (US)
Openalex Percentile: Top 19%
Nuclear Physics and Applications
1.88
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Assessing the Practical Constraints and Capabilities of Accelerator-Based Focused Ion Thermal Analysis — Rijul R. Chauhan, Lin Shao, et al. · Materials (2025) | TGRS Research Map | TGRS