Performance evaluation of surface-active-medium assisted ultrasonic grinding for Inconel-718

Inconel-718 is widely utilized in the aerospace and defense industries owing to its exceptional strength and thermal resistance. However, these properties make grinding difficult, often leading to rapid tool wear and poor surface quality. This study experimentally evaluates the use of an ecofriendly surface-active medium (SAM) with ultrasonic-assisted surface grinding (USG) as part of an advanced manufacturing process. The goal is to improve machining performance while reducing cutting force and material usage. To evaluate the efficacy of the proposed strategy, the key processing parameters considered are the depth of cut ap (15–35 μm), spindle speed ω (8000–16 000 rpm), ultrasonic amplitude A (2–10 μm), and feed rate fr (5–25 mm/min). The results indicate that the integration of an SAM with high-frequency vibrations significantly reduces grinding forces (by up to 39.86%), enhances tool life, and improve surface finish by as much as 56.8%. Additionally, the optimal cutting conditions (ap= 30 μm, A = 10 μm, ω = 16 000 rpm, and fr = 20 mm/min) are found to provide superior cutting performance. The proposed sustainable method demonstrates considerable potential for machining Inconel-718 using better machining processes.

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Publication Details

Journal
Nanotechnology and Precision Engineering
Published
2026-01-15
DOI
https://doi.org/10.1063/5.0285176
Primary Topic
Advanced machining processes and optimization
Type
article
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Performance evaluation of surface-active-medium assisted ultrasonic grinding for Inconel-718

Pingfa Feng, Q.W. Li, Muhammad Fawad Jamil, Mohammad Keymanesh
Nanotechnology and Precision Engineering
Advanced machining processes and optimization
article

Performance evaluation of surface-active-medium assisted ultrasonic grinding for Inconel-718

Pingfa Feng, Q.W. Li, Muhammad Fawad Jamil, Mohammad Keymanesh
article en

Abstract

Inconel-718 is widely utilized in the aerospace and defense industries owing to its exceptional strength and thermal resistance. However, these properties make grinding difficult, often leading to rapid tool wear and poor surface quality. This study experimentally evaluates the use of an ecofriendly surface-active medium (SAM) with ultrasonic-assisted surface grinding (USG) as part of an advanced manufacturing process. The goal is to improve machining performance while reducing cutting force and material usage. To evaluate the efficacy of the proposed strategy, the key processing parameters considered are the depth of cut ap (15–35 μm), spindle speed ω (8000–16 000 rpm), ultrasonic amplitude A (2–10 μm), and feed rate fr (5–25 mm/min). The results indicate that the integration of an SAM with high-frequency vibrations significantly reduces grinding forces (by up to 39.86%), enhances tool life, and improve surface finish by as much as 56.8%. Additionally, the optimal cutting conditions (ap= 30 μm, A = 10 μm, ω = 16 000 rpm, and fr = 20 mm/min) are found to provide superior cutting performance. The proposed sustainable method demonstrates considerable potential for machining Inconel-718 using better machining processes.

Nanotechnology and Precision EngineeringVol. 9(2)
University Town of Shenzhen (CN), Tsinghua University (CN)
Openalex Percentile: Top 87%
Advanced machining processes and optimization
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