Reheating and Roller Forming of Aluminum Foam Fabricated by Foaming Precursor

Aluminum foam is expected to be applied in various industrial fields as a lightweight, multifunctional material. When it is used as an industrial product, it is essential to form it into the required shape. There have been some attempts to form aluminum foam. However, the formability remains low. In this study, we attempted to form aluminum foam, which was fabricated by heat foaming a precursor, into a flat plate by reheating it above its foaming temperature and then roller forming it. It was found that heating above the foaming temperature and subsequent roller forming enabled the aluminum foam to be formed into a flat plate without causing defects. In a sample in which the precursor was roller-formed immediately after foaming, it was found that compared to the as-foamed aluminum foam, the decrease in porosity was limited to approximately 5%, enabling roller forming while minimizing the influences on pore structures. In samples that were roller-formed after reheating, porosities slightly decreased, but most pores were retained. Even when the aluminum foam was roller-formed to the same thickness as the initial precursor before foaming, the porosities exhibited around 65%, limiting the reduction in porosities to approximately 15% compared to the as-foamed aluminum foam.

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Publication Details

Journal
Solids
Published
2026-03-02
DOI
https://doi.org/10.3390/solids7020013
Primary Topic
Cellular and Composite Structures
Type
article
Field-Weighted Citation Impact
0.00
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article

Reheating and Roller Forming of Aluminum Foam Fabricated by Foaming Precursor

Kentaro Ishiuchi, Nobuhiro YOSHIKAWA, Kenji Amagai, Yoshihiko Hangai
Solids
Cellular and Composite Structures
article

Reheating and Roller Forming of Aluminum Foam Fabricated by Foaming Precursor

Kentaro Ishiuchi, Nobuhiro YOSHIKAWA, Kenji Amagai, Yoshihiko Hangai
article en

Abstract

Aluminum foam is expected to be applied in various industrial fields as a lightweight, multifunctional material. When it is used as an industrial product, it is essential to form it into the required shape. There have been some attempts to form aluminum foam. However, the formability remains low. In this study, we attempted to form aluminum foam, which was fabricated by heat foaming a precursor, into a flat plate by reheating it above its foaming temperature and then roller forming it. It was found that heating above the foaming temperature and subsequent roller forming enabled the aluminum foam to be formed into a flat plate without causing defects. In a sample in which the precursor was roller-formed immediately after foaming, it was found that compared to the as-foamed aluminum foam, the decrease in porosity was limited to approximately 5%, enabling roller forming while minimizing the influences on pore structures. In samples that were roller-formed after reheating, porosities slightly decreased, but most pores were retained. Even when the aluminum foam was roller-formed to the same thickness as the initial precursor before foaming, the porosities exhibited around 65%, limiting the reduction in porosities to approximately 15% compared to the as-foamed aluminum foam.

SolidsVol. 7(2)
Gunma University (JP), Kiryu University (JP), The University of Tokyo (JP)
Openalex Percentile: Top 39%
Cellular and Composite Structures
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Reheating and Roller Forming of Aluminum Foam Fabricated by Foaming Precursor — Kentaro Ishiuchi, Nobuhiro YOSHIKAWA, et al. · Solids (2026) | TGRS Research Map | TGRS