ZHANG, Yan ;SUN, Haodong ;LI, Qi ;SUN, Kaiming ;MOU, Yuanjing ;ZHANG, Shihong . Research on the Cutting Performance of Self-Lubricating Tools with Micro-Texture of the Front and Back Surfaces. Articles in Press, [S.l.], v. 0, n.0, p. , january 2025. ISSN 0039-2480. Available at: <https://www.sv-jme.eu/sl/article/research-on-the-cutting-performance-of-self-lubricating-tools-with-micro-texture-of-the-front-and-back-surfaces/>. Date accessed: 03 apr. 2025. doi:http://dx.doi.org/.
Zhang, Y., Sun, H., Li, Q., Sun, K., Mou, Y., & Zhang, S. (0). Research on the Cutting Performance of Self-Lubricating Tools with Micro-Texture of the Front and Back Surfaces. Articles in Press, 0(0), . doi:http://dx.doi.org/
@article{.,
author = {Yan Zhang and Haodong Sun and Qi Li and Kaiming Sun and Yuanjing Mou and Shihong Zhang},
title = {Research on the Cutting Performance of Self-Lubricating Tools with Micro-Texture of the Front and Back Surfaces},
journal = {Articles in Press},
volume = {0},
number = {0},
year = {0},
keywords = {PCBN tool; micro-texture of front and back surfaces; lubrication status; cutting force; surface roughness; chips; },
abstract = {To enhance the cutting performance of PCBN tools, a novel hexagonal micro-texture has been proposed. Three-dimensional models of both traditional and micro-textured tools were established, and the turning process was simulated using finite element analysis. The impact of the texture's position on tool performance was examined, and the micro-textured turning tool was prepared for orthogonal experiments to analyze cutting force, surface roughness, tool wear, and chip formation. The results indicated that, compared to the conventional tool (T1), the cutting force of the front and rear face textured tool (T4) was reduced by an average of 16.87%. Additionally, the surface roughness of the workpiece measured 1.51 μm, which is 37.6% lower than that of the T1 tool. The average wear width of the rear face was 3.86 μm, representing a 28.1% reduction compared to the conventional tool, demonstrating improved wear resistance, a larger chip bending radius, fewer burrs, and easier fracture. Furthermore, the cutting force decreased by an average of 6.41% with the incorporation of solid lubricant. Therefore, tools featuring micro-structures on both the front and back surfaces exhibit superior cutting performance.},
issn = {0039-2480}, pages = {}, doi = {},
url = {https://www.sv-jme.eu/sl/article/research-on-the-cutting-performance-of-self-lubricating-tools-with-micro-texture-of-the-front-and-back-surfaces/}
}
Zhang, Y.,Sun, H.,Li, Q.,Sun, K.,Mou, Y.,Zhang, S. 0 January 0. Research on the Cutting Performance of Self-Lubricating Tools with Micro-Texture of the Front and Back Surfaces. Articles in Press. [Online] 0:0
%A Zhang, Yan %A Sun, Haodong %A Li, Qi %A Sun, Kaiming %A Mou, Yuanjing %A Zhang, Shihong %D 0 %T Research on the Cutting Performance of Self-Lubricating Tools with Micro-Texture of the Front and Back Surfaces %B 0 %9 PCBN tool; micro-texture of front and back surfaces; lubrication status; cutting force; surface roughness; chips; %! Research on the Cutting Performance of Self-Lubricating Tools with Micro-Texture of the Front and Back Surfaces %K PCBN tool; micro-texture of front and back surfaces; lubrication status; cutting force; surface roughness; chips; %X To enhance the cutting performance of PCBN tools, a novel hexagonal micro-texture has been proposed. Three-dimensional models of both traditional and micro-textured tools were established, and the turning process was simulated using finite element analysis. The impact of the texture's position on tool performance was examined, and the micro-textured turning tool was prepared for orthogonal experiments to analyze cutting force, surface roughness, tool wear, and chip formation. The results indicated that, compared to the conventional tool (T1), the cutting force of the front and rear face textured tool (T4) was reduced by an average of 16.87%. Additionally, the surface roughness of the workpiece measured 1.51 μm, which is 37.6% lower than that of the T1 tool. The average wear width of the rear face was 3.86 μm, representing a 28.1% reduction compared to the conventional tool, demonstrating improved wear resistance, a larger chip bending radius, fewer burrs, and easier fracture. Furthermore, the cutting force decreased by an average of 6.41% with the incorporation of solid lubricant. Therefore, tools featuring micro-structures on both the front and back surfaces exhibit superior cutting performance. %U https://www.sv-jme.eu/sl/article/research-on-the-cutting-performance-of-self-lubricating-tools-with-micro-texture-of-the-front-and-back-surfaces/ %0 Journal Article %R %& %P 1 %J Articles in Press %V 0 %N 0 %@ 0039-2480 %8 2025-01-15 %7 2025-01-15
Zhang, Yan, Haodong Sun, Qi Li, Kaiming Sun, Yuanjing Mou, & Shihong Zhang. "Research on the Cutting Performance of Self-Lubricating Tools with Micro-Texture of the Front and Back Surfaces." Articles in Press [Online], 0.0 (0): . Web. 03 Apr. 2025
TY - JOUR AU - Zhang, Yan AU - Sun, Haodong AU - Li, Qi AU - Sun, Kaiming AU - Mou, Yuanjing AU - Zhang, Shihong PY - 0 TI - Research on the Cutting Performance of Self-Lubricating Tools with Micro-Texture of the Front and Back Surfaces JF - Articles in Press DO - KW - PCBN tool; micro-texture of front and back surfaces; lubrication status; cutting force; surface roughness; chips; N2 - To enhance the cutting performance of PCBN tools, a novel hexagonal micro-texture has been proposed. Three-dimensional models of both traditional and micro-textured tools were established, and the turning process was simulated using finite element analysis. The impact of the texture's position on tool performance was examined, and the micro-textured turning tool was prepared for orthogonal experiments to analyze cutting force, surface roughness, tool wear, and chip formation. The results indicated that, compared to the conventional tool (T1), the cutting force of the front and rear face textured tool (T4) was reduced by an average of 16.87%. Additionally, the surface roughness of the workpiece measured 1.51 μm, which is 37.6% lower than that of the T1 tool. The average wear width of the rear face was 3.86 μm, representing a 28.1% reduction compared to the conventional tool, demonstrating improved wear resistance, a larger chip bending radius, fewer burrs, and easier fracture. Furthermore, the cutting force decreased by an average of 6.41% with the incorporation of solid lubricant. Therefore, tools featuring micro-structures on both the front and back surfaces exhibit superior cutting performance. UR - https://www.sv-jme.eu/sl/article/research-on-the-cutting-performance-of-self-lubricating-tools-with-micro-texture-of-the-front-and-back-surfaces/
@article{{}{.},
author = {Zhang, Y., Sun, H., Li, Q., Sun, K., Mou, Y., Zhang, S.},
title = {Research on the Cutting Performance of Self-Lubricating Tools with Micro-Texture of the Front and Back Surfaces},
journal = {Articles in Press},
volume = {0},
number = {0},
year = {0},
doi = {},
url = {https://www.sv-jme.eu/sl/article/research-on-the-cutting-performance-of-self-lubricating-tools-with-micro-texture-of-the-front-and-back-surfaces/}
}
TY - JOUR AU - Zhang, Yan AU - Sun, Haodong AU - Li, Qi AU - Sun, Kaiming AU - Mou, Yuanjing AU - Zhang, Shihong PY - 2025/01/15 TI - Research on the Cutting Performance of Self-Lubricating Tools with Micro-Texture of the Front and Back Surfaces JF - Articles in Press; Vol 0, No 0 (0): Articles in Press DO - KW - PCBN tool, micro-texture of front and back surfaces, lubrication status, cutting force, surface roughness, chips, N2 - To enhance the cutting performance of PCBN tools, a novel hexagonal micro-texture has been proposed. Three-dimensional models of both traditional and micro-textured tools were established, and the turning process was simulated using finite element analysis. The impact of the texture's position on tool performance was examined, and the micro-textured turning tool was prepared for orthogonal experiments to analyze cutting force, surface roughness, tool wear, and chip formation. The results indicated that, compared to the conventional tool (T1), the cutting force of the front and rear face textured tool (T4) was reduced by an average of 16.87%. Additionally, the surface roughness of the workpiece measured 1.51 μm, which is 37.6% lower than that of the T1 tool. The average wear width of the rear face was 3.86 μm, representing a 28.1% reduction compared to the conventional tool, demonstrating improved wear resistance, a larger chip bending radius, fewer burrs, and easier fracture. Furthermore, the cutting force decreased by an average of 6.41% with the incorporation of solid lubricant. Therefore, tools featuring micro-structures on both the front and back surfaces exhibit superior cutting performance. UR - https://www.sv-jme.eu/sl/article/research-on-the-cutting-performance-of-self-lubricating-tools-with-micro-texture-of-the-front-and-back-surfaces/
Zhang, Yan, Sun, Haodong, Li, Qi, Sun, Kaiming, Mou, Yuanjing, AND Zhang, Shihong. "Research on the Cutting Performance of Self-Lubricating Tools with Micro-Texture of the Front and Back Surfaces" Articles in Press [Online], Volume 0 Number 0 (15 January 2025)
Articles in Press
To enhance the cutting performance of PCBN tools, a novel hexagonal micro-texture has been proposed. Three-dimensional models of both traditional and micro-textured tools were established, and the turning process was simulated using finite element analysis. The impact of the texture's position on tool performance was examined, and the micro-textured turning tool was prepared for orthogonal experiments to analyze cutting force, surface roughness, tool wear, and chip formation. The results indicated that, compared to the conventional tool (T1), the cutting force of the front and rear face textured tool (T4) was reduced by an average of 16.87%. Additionally, the surface roughness of the workpiece measured 1.51 μm, which is 37.6% lower than that of the T1 tool. The average wear width of the rear face was 3.86 μm, representing a 28.1% reduction compared to the conventional tool, demonstrating improved wear resistance, a larger chip bending radius, fewer burrs, and easier fracture. Furthermore, the cutting force decreased by an average of 6.41% with the incorporation of solid lubricant. Therefore, tools featuring micro-structures on both the front and back surfaces exhibit superior cutting performance.