Development and Characterization of Aluminum AA2219-T852 Hollow Rectangular Forging

Abstract This study reports the development of heavy-section hollow rectangular forgings of aluminum alloy AA2219 in T852 temper with a ruling section thickness of 360 mm and establishes the associated processing–microstructure–property relationships. Traditional solid forgings of this size often suffer from quench sensitivity, where the slow cooling of the inner core leads to inconsistent mechanical properties. Unlike conventional solid thick-section forgings, the present work introduces a premachining-assisted hollow configuration prior to heat treatment to mitigate quench sensitivity and improve through-thickness property uniformity. An optimized open-die forging route was designed to control material flow, strain distribution, and thermal history during processing. Detailed microstructural characterization reveals uniform grain flow patterns and refined microstructural features across the section, which directly contribute to the enhanced mechanical performance. The results demonstrate that this hollow-core approach ensures total ultrasonic integrity and meets strict aerospace standards for mechanical performance, providing a scalable solution for manufacturing large-scale structural components.

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Publication Details

Journal
Materials Performance and Characterization
Published
2026-05-12
DOI
https://doi.org/10.1520/mpc20250135
Primary Topic
Metallurgy and Material Forming
Type
article
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article

Development and Characterization of Aluminum AA2219-T852 Hollow Rectangular Forging

Rajiv Panda, Lagudu Yerrinaidu, P. Nayak, Akhtedar Abbas Khan et al.
Materials Performance and Characterization
Metallurgy and Material Forming
article

Development and Characterization of Aluminum AA2219-T852 Hollow Rectangular Forging

Rajiv Panda, Lagudu Yerrinaidu, P. Nayak, Akhtedar Abbas Khan, Rohit Kumar Gupta
article en

Abstract

Abstract This study reports the development of heavy-section hollow rectangular forgings of aluminum alloy AA2219 in T852 temper with a ruling section thickness of 360 mm and establishes the associated processing–microstructure–property relationships. Traditional solid forgings of this size often suffer from quench sensitivity, where the slow cooling of the inner core leads to inconsistent mechanical properties. Unlike conventional solid thick-section forgings, the present work introduces a premachining-assisted hollow configuration prior to heat treatment to mitigate quench sensitivity and improve through-thickness property uniformity. An optimized open-die forging route was designed to control material flow, strain distribution, and thermal history during processing. Detailed microstructural characterization reveals uniform grain flow patterns and refined microstructural features across the section, which directly contribute to the enhanced mechanical performance. The results demonstrate that this hollow-core approach ensures total ultrasonic integrity and meets strict aerospace standards for mechanical performance, providing a scalable solution for manufacturing large-scale structural components.

Materials Performance and CharacterizationVol. 15(1)
ISRO Propulsion Complex (IN), Vikram Sarabhai Space Centre (IN)
Openalex Percentile: Top 8%
Metallurgy and Material Forming
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Development and Characterization of Aluminum AA2219-T852 Hollow Rectangular Forging — Rajiv Panda, Lagudu Yerrinaidu, et al. · Materials Performance and Characterization (2026) | TGRS Research Map | TGRS